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Phylogenetic distribution and evolution of mycorrhizas in land plants

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Mycorrhiza (2006) 16: 299–363<br />

DOI 10.1007/s00572-005-0033-6<br />

REVIEW<br />

B. Wang . Y.-L. Qiu<br />

<strong>Phylogenetic</strong> <strong>distribution</strong> <strong>and</strong> <strong>evolution</strong> <strong>of</strong> <strong>mycorrhizas</strong><br />

<strong>in</strong> l<strong>and</strong> <strong>plants</strong><br />

Received: 22 June 2005 / Accepted: 15 December 2005 / Published onl<strong>in</strong>e: 6 May 2006<br />

# Spr<strong>in</strong>ger-Verlag 2006<br />

Abstract A survey <strong>of</strong> 659 papers mostly published s<strong>in</strong>ce<br />

1987 was conducted to compile a checklist <strong>of</strong> mycorrhizal<br />

occurrence among 3,617 species (263 families) <strong>of</strong> l<strong>and</strong><br />

<strong>plants</strong>. A plant phylogeny was then used to map the mycorrhizal<br />

<strong>in</strong>formation to exam<strong>in</strong>e <strong>evolution</strong>ary patterns. Several<br />

f<strong>in</strong>d<strong>in</strong>gs from this survey enhance our underst<strong>and</strong><strong>in</strong>g <strong>of</strong><br />

the roles <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> the orig<strong>in</strong> <strong>and</strong> subsequent diversification<br />

<strong>of</strong> l<strong>and</strong> <strong>plants</strong>. First, 80 <strong>and</strong> 92% <strong>of</strong> surveyed l<strong>and</strong><br />

plant species <strong>and</strong> families are mycorrhizal. Second, arbuscular<br />

mycorrhiza (AM) is the predom<strong>in</strong>ant <strong>and</strong> ancestral type<br />

<strong>of</strong> mycorrhiza <strong>in</strong> l<strong>and</strong> <strong>plants</strong>. Its occurrence <strong>in</strong> a vast majority<br />

<strong>of</strong> l<strong>and</strong> <strong>plants</strong> <strong>and</strong> early-diverg<strong>in</strong>g l<strong>in</strong>eages <strong>of</strong> liverworts<br />

suggests that the orig<strong>in</strong> <strong>of</strong> AM probably co<strong>in</strong>cided with the<br />

orig<strong>in</strong> <strong>of</strong> l<strong>and</strong> <strong>plants</strong>. Third, ectomycorrhiza (ECM) <strong>and</strong> its<br />

derived types <strong>in</strong>dependently evolved from AM many times<br />

through parallel <strong>evolution</strong>. Co<strong>evolution</strong> between plant <strong>and</strong><br />

fungal partners <strong>in</strong> ECM <strong>and</strong> its derived types has probably<br />

contributed to diversification <strong>of</strong> both plant hosts <strong>and</strong> fungal<br />

symbionts. Fourth, mycoheterotrophy <strong>and</strong> loss <strong>of</strong> the mycorrhizal<br />

condition also evolved many times <strong>in</strong>dependently <strong>in</strong><br />

l<strong>and</strong> <strong>plants</strong> through parallel <strong>evolution</strong>.<br />

Keywords Mycorrhizas . L<strong>and</strong> <strong>plants</strong> . Fungi .<br />

Parallel <strong>evolution</strong><br />

Introduction<br />

Mycorrhizas, dual organs <strong>of</strong> absorption formed when symbiotic<br />

fungi <strong>in</strong>habit healthy tissues <strong>of</strong> most terrestrial <strong>plants</strong><br />

(Trappe 1996), have widespread occurrence among l<strong>and</strong><br />

<strong>plants</strong> <strong>and</strong> are <strong>in</strong>creas<strong>in</strong>gly believed to have played an important<br />

role <strong>in</strong> the successful colonization <strong>of</strong> the l<strong>and</strong> by<br />

B. Wang . Y.-L. Qiu (*)<br />

Department <strong>of</strong> Ecology <strong>and</strong> Evolutionary Biology,<br />

The University Herbarium, University <strong>of</strong> Michigan,<br />

830 N. University Avenue, Ann Arbor, MI 48109-1048, USA<br />

e-mail: ylqiu@umich.edu<br />

Tel.: +1-734-7648279<br />

Fax: +1-734-7630544<br />

<strong>plants</strong> (Pirozynski <strong>and</strong> Malloch 1975; Malloch et al. 1980;<br />

Harley <strong>and</strong> Harley 1987; Trappe 1987; Selosse <strong>and</strong> Le Tacon<br />

1998; Readetal.2000; Brundrett 2002). S<strong>in</strong>ce Nägeli first<br />

described them <strong>in</strong> 1842 (see Koide <strong>and</strong> Mosse 2004), only a<br />

few major surveys have been conducted on their phylogenetic<br />

<strong>distribution</strong> <strong>in</strong> various groups <strong>of</strong> l<strong>and</strong> <strong>plants</strong> either by<br />

retriev<strong>in</strong>g <strong>in</strong>formation from literature or through direct observation<br />

(Trappe 1987; Harley <strong>and</strong> Harley 1987; Newman<br />

<strong>and</strong> Reddell 1987). Trappe (1987) gathered <strong>in</strong>formation on<br />

the presence <strong>and</strong> absence <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> 6,507 species <strong>of</strong><br />

angiosperms <strong>in</strong>vestigated <strong>in</strong> previous studies <strong>and</strong> mapped the<br />

phylogenetic <strong>distribution</strong> <strong>of</strong> <strong>mycorrhizas</strong> us<strong>in</strong>g the classification<br />

system by Cronquist (1981). He found that 82% <strong>of</strong> the<br />

species were mycorrhizal. From the occurrence <strong>of</strong> various<br />

types <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> different subclasses <strong>and</strong> orders <strong>of</strong><br />

angiosperms, he further <strong>in</strong>ferred that the ancestral type was<br />

glomeromycetous (the orig<strong>in</strong>al word “zygomycotous” is not<br />

used because fungi form<strong>in</strong>g this type <strong>of</strong> mycorrhiza are now<br />

placed <strong>in</strong> the new phylum Glomeromycota, see Schussler et<br />

al. 2001) mycorrhiza, <strong>and</strong> ascomycetous <strong>and</strong> basidiomycetous<br />

<strong>mycorrhizas</strong> belong to the derived types, <strong>and</strong> that <strong>evolution</strong><br />

<strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> <strong>plants</strong> had progressed from obligate<br />

to facultative <strong>mycorrhizas</strong> <strong>and</strong> ultimately to non<strong>mycorrhizas</strong>.<br />

In the same year, Harley <strong>and</strong> Harley (1987) published a<br />

checklist <strong>of</strong> the mycorrhizal status <strong>of</strong> 144 families <strong>of</strong> vascular<br />

<strong>plants</strong> <strong>in</strong> the British flora, document<strong>in</strong>g various types <strong>of</strong><br />

<strong>mycorrhizas</strong> <strong>in</strong> an entire flora for the first time. More recently,<br />

Gemma et al. (1992) <strong>and</strong> Zhao (2000) <strong>in</strong>vestigated the<br />

mycorrhizal status <strong>of</strong> 89 <strong>and</strong> 256 species <strong>of</strong> pteridophytes <strong>in</strong><br />

Hawaii <strong>and</strong> Yunnan, Ch<strong>in</strong>a, respectively. They found that the<br />

percentages <strong>of</strong> mycorrhizal species <strong>in</strong> pteridophytes (74 <strong>and</strong><br />

33%, respectively) were lower than <strong>in</strong> angiosperms as<br />

reported by Trappe (1987). Whether bryophytes have <strong>mycorrhizas</strong><br />

or not is still a debatable issue, but many liverworts<br />

<strong>and</strong> hornworts have fungal associations (Read et al. 2000). In<br />

two surveys <strong>of</strong> British liverworts, Pocock <strong>and</strong> Duckett<br />

(1985) <strong>and</strong> Duckett et al. (1991) reported that among the 206<br />

<strong>and</strong> 284 exam<strong>in</strong>ed species, respectively, 16% conta<strong>in</strong>ed<br />

fungal endophytes <strong>in</strong> their rhizoids or thalli.<br />

Mycorrhizal research has advanced at an astonish<strong>in</strong>g pace<br />

over the last two decades due to a recent surge <strong>of</strong> <strong>in</strong>terest <strong>in</strong>


300<br />

the subject by botanists, mycologists, <strong>and</strong> ecologists. A large<br />

number <strong>of</strong> new reports on mycorrhizal occurrence <strong>in</strong> l<strong>and</strong><br />

<strong>plants</strong>, especially <strong>in</strong> pteridophytes <strong>and</strong> liverworts, have been<br />

published s<strong>in</strong>ce the surveys by Trappe (1987) <strong>and</strong> Harley <strong>and</strong><br />

Harley (1987). Dur<strong>in</strong>g the same period, our underst<strong>and</strong><strong>in</strong>g <strong>of</strong><br />

the l<strong>and</strong> plant phylogeny was greatly improved through<br />

major efforts by molecular systematists. An explicit phylogenetic<br />

classification system <strong>of</strong> angiosperms is now available<br />

(Stevens 2004), <strong>and</strong> a nonflower<strong>in</strong>g l<strong>and</strong> plant phylogeny<br />

will be published soon (Qiu et al. unpublished data). Hence,<br />

review<strong>in</strong>g mycorrhizal occurrence <strong>in</strong> l<strong>and</strong> <strong>plants</strong> <strong>and</strong> mapp<strong>in</strong>g<br />

this <strong>in</strong>formation onto the newly available plant<br />

phylogeny will update our knowledge on mycorrhizal abundance<br />

<strong>in</strong> <strong>plants</strong>, facilitate exam<strong>in</strong>ation <strong>of</strong> the orig<strong>in</strong> <strong>and</strong><br />

<strong>evolution</strong>ary pattern <strong>of</strong> mycorrhizal symbiosis <strong>in</strong> l<strong>and</strong> <strong>plants</strong>,<br />

<strong>and</strong> enhance our underst<strong>and</strong><strong>in</strong>g <strong>of</strong> this important biological<br />

<strong>in</strong>teraction <strong>and</strong> its impact on <strong>evolution</strong> <strong>of</strong> both <strong>plants</strong> <strong>and</strong><br />

fungi. Areas that require further study, especially the taxa that<br />

occupy critical positions <strong>in</strong> the l<strong>and</strong> plant phylogeny <strong>and</strong> for<br />

which mycorrhizal <strong>in</strong>formation is still lack<strong>in</strong>g, can also be<br />

identified through these efforts.<br />

Materials <strong>and</strong> methods<br />

In this review, we compiled <strong>in</strong>formation on mycorrhizal<br />

occurrence <strong>in</strong> l<strong>and</strong> <strong>plants</strong> mostly from the papers published<br />

s<strong>in</strong>ce 1987, as those published before were reviewed by<br />

Trappe (1987) <strong>and</strong> Harley <strong>and</strong> Harley (1987). First, a library<br />

consist<strong>in</strong>g <strong>of</strong> 4,193 mycorrhiza-related references was established.<br />

After brows<strong>in</strong>g the abstracts, 961 references that<br />

provided <strong>in</strong>formation on mycorrhizal occurrence <strong>in</strong> plant<br />

species from all the cont<strong>in</strong>ents <strong>and</strong> all major habitats were<br />

selected. Due to time limitation <strong>and</strong> unavailability <strong>of</strong> some<br />

literature, 659 <strong>of</strong> these 961 references are reviewed here.<br />

Data on mycorrhizal status <strong>of</strong> each plant species were extracted<br />

from these references, based on whether the species<br />

was mycorrhizal or not, <strong>and</strong> if so, what type. An updated<br />

mycorrhizal classification system proposed by Smith <strong>and</strong><br />

Read (1997) was used here. Seven types <strong>of</strong> <strong>mycorrhizas</strong> were<br />

all recognized (see the footnote b <strong>in</strong> Table 1), along with<br />

nonmycorrhiza <strong>and</strong> mycoheterotrophy. A species is considered<br />

to be obligately mycorrhizal if it is always found to<br />

form mycorrhiza, while a species is considered to be facultatively<br />

mycorrhizal if it is reported to form <strong>mycorrhizas</strong> <strong>in</strong><br />

one habitat but not <strong>in</strong> another. If a plant species can form<br />

different k<strong>in</strong>ds <strong>of</strong> <strong>mycorrhizas</strong> simultaneously or <strong>in</strong> different<br />

habitats, it is recorded as form<strong>in</strong>g all relevant mycorrhizal<br />

types. All the data are presented <strong>in</strong> Table 1, which groups all<br />

the exam<strong>in</strong>ed plant species <strong>in</strong>to families that are further<br />

arranged accord<strong>in</strong>g to the l<strong>and</strong> plant phylogeny used <strong>in</strong> this<br />

study (Stevens 2004; Qiu et al. unpublished). The family<br />

def<strong>in</strong>ition for vascular <strong>plants</strong> generally follows Mabberley<br />

(1987), but for a small number <strong>of</strong> newly recognized families,<br />

the nomenclature <strong>of</strong> Stevens (2004) is used. For liverworts,<br />

the system by Grolle (1983) for family def<strong>in</strong>ition is<br />

followed. The data from Harley <strong>and</strong> Harley (1987),<br />

conta<strong>in</strong><strong>in</strong>g 1,101 species, were added to this table, but<br />

those <strong>of</strong> Trappe (1987) were not as they were not published.<br />

The <strong>in</strong>formation <strong>in</strong> Table 1 was then mapped onto a l<strong>and</strong><br />

plant phylogeny drawn accord<strong>in</strong>g to a multigene analysis <strong>of</strong><br />

nonflower<strong>in</strong>g l<strong>and</strong> <strong>plants</strong> (Qiu et al. unpublished) <strong>and</strong> the<br />

angiosperm classification system proposed by Stevens<br />

(2004). Family was used as the unit <strong>of</strong> reconstruction (i.e.,<br />

term<strong>in</strong>al node) <strong>in</strong> this phylogeny. For each family, the<br />

percentages <strong>of</strong> obligate, facultative, <strong>and</strong> nonmycorrhizal<br />

species, <strong>and</strong> the percentage <strong>of</strong> each type <strong>of</strong> <strong>mycorrhizas</strong><br />

among all mycorrhizal species were calculated <strong>and</strong> plotted<br />

onto the l<strong>and</strong> plant phylogeny.<br />

One major improvement <strong>of</strong> this review over those by<br />

Trappe (1987) <strong>and</strong> Harley <strong>and</strong> Harley (1987) istheuse<strong>of</strong>a<br />

rigorously reconstructed l<strong>and</strong> plant phylogeny to map the<br />

mycorrhizal <strong>in</strong>formation down to the family level for a<br />

worldwide coverage. Trappe (1987) covered only angiosperms,<br />

whereas Harley <strong>and</strong> Harley (1987)surveyedonlythe<br />

British vascular flora. Cronquist’s (1981) classification system<br />

<strong>of</strong> angiosperms used by Trappe (1987) has been significantly<br />

revised by molecular systematists (Soltis et al. 2000;<br />

Stevens 2004). Another major improvement is that <strong>in</strong>formation<br />

on mycorrhizal occurrence, more precisely fungal association<br />

<strong>in</strong> bryophytes, is <strong>in</strong>cluded for the first time. Hence,<br />

this review should allow a thorough exam<strong>in</strong>ation <strong>of</strong> orig<strong>in</strong><br />

<strong>and</strong> <strong>evolution</strong> <strong>of</strong> mycorrhizal symbiosis <strong>in</strong> l<strong>and</strong> <strong>plants</strong>.<br />

Results <strong>and</strong> discussion<br />

A total <strong>of</strong> 3,617 species from 263 families <strong>of</strong> l<strong>and</strong> <strong>plants</strong> were<br />

covered <strong>in</strong> this survey <strong>of</strong> mycorrhizal status (Tables 1 <strong>and</strong> 2).<br />

For l<strong>and</strong> <strong>plants</strong> as a whole, 80% <strong>of</strong> the recorded species <strong>and</strong><br />

92% <strong>of</strong> the families are mycorrhizal. When broken <strong>in</strong>to four<br />

traditionally delimited groups (angiosperms, gymnosperms,<br />

pteridophytes, <strong>and</strong> bryophytes), these percentages vary from<br />

group to group. In angiosperms, the most species-rich clade<br />

<strong>of</strong> l<strong>and</strong> <strong>plants</strong> <strong>and</strong> the dom<strong>in</strong>ant group <strong>in</strong> most terrestrial plant<br />

communities, 85 <strong>and</strong> 94% <strong>of</strong> species <strong>and</strong> families are mycorrhizal.<br />

These numbers are similar to those reported by Trappe<br />

(1987), whose study <strong>in</strong>cluded more than twice as many<br />

species as this one. All <strong>of</strong> the 84 species <strong>of</strong> gymnosperms<br />

surveyed here are mycorrhizal, <strong>and</strong> almost all <strong>of</strong> them are<br />

obligately mycorrhizal. These two aspects <strong>of</strong> mycorrhizal<br />

status <strong>in</strong> gymnosperms highlight the essential role that <strong>mycorrhizas</strong><br />

play <strong>in</strong> the life <strong>of</strong> these <strong>plants</strong>, which generally<br />

grow <strong>in</strong> nutrient-poor environments. For pteridophytes, 52<br />

<strong>and</strong> 93% <strong>of</strong> the species <strong>and</strong> families are mycorrhizal. F<strong>in</strong>ally,<br />

46 <strong>and</strong> 71% <strong>of</strong> the bryophyte species <strong>and</strong> families have<br />

fungal associations.<br />

When this body <strong>of</strong> <strong>in</strong>formation is projected <strong>in</strong> a plant<br />

phylogenetic perspective (Fig. 1), the orig<strong>in</strong> <strong>and</strong> <strong>evolution</strong>ary<br />

patterns <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> l<strong>and</strong> <strong>plants</strong> become quite<br />

clear. Below, we discuss these various aspects <strong>of</strong> mycorrhizal<br />

<strong>evolution</strong> <strong>in</strong> <strong>plants</strong>.<br />

Orig<strong>in</strong> <strong>of</strong> mycorrhizal symbiosis <strong>in</strong> l<strong>and</strong> <strong>plants</strong><br />

The cont<strong>in</strong>uous phylogenetic <strong>distribution</strong> <strong>of</strong> <strong>mycorrhizas</strong><br />

throughout l<strong>and</strong> <strong>plants</strong>, with the sole major exception <strong>of</strong>


301<br />

Table 1 An updated checklist <strong>of</strong> mycorrhizal occurrence among<br />

l<strong>and</strong> <strong>plants</strong><br />

Exam<strong>in</strong>ed species a Mycorrhizal<br />

status b,c<br />

References<br />

BRYOPHYTES<br />

Haplomitriaceae<br />

Haplomitrium gibbsiae AM-like 107<br />

Haplomitrium ovalifolium AM-like 107<br />

Blasiaceae<br />

Blasia pusilla None 182, 328<br />

Lunulariaceae<br />

Lunularia cruciata<br />

Fungal association<br />

(G)<br />

182<br />

Marchantiaceae<br />

Marchantia foliacea AM-like 505<br />

Marchantia polymorpha Fungal association 182<br />

(G)<br />

Aytoniaceae<br />

Asterella wilmsii AM-like 345<br />

Conocephalaceae<br />

Conocephalum conicum AM-like 346<br />

Fungal association 182<br />

(G)<br />

Ricciaceae<br />

Riccia fluitans None 182<br />

Metzgeriaceae<br />

Apometzgeria pubescens None 466<br />

Metzgeria conjugata None 466<br />

Metzgeria fruticulosa None 466<br />

Metzgeria furcata None 466<br />

Metzgeria leptoneura None 466<br />

Metzgeria temperata None 466<br />

Aneuraceae<br />

Aneura p<strong>in</strong>guis ORM-like (B) 347<br />

Cryptothallus mirabilis Fungal association 466<br />

ORM-like (B) 347<br />

Mycoheterotrophy 77, 483<br />

(via ECM)<br />

Riccardia latifrons None 466<br />

Riccardia multifida None 466<br />

Riccardia palmate None 466<br />

Pelliaceae<br />

Pellia endiviifolia AM-like 598<br />

Pellia epiphylla<br />

Fungal association 182<br />

(G)<br />

Pellia fabbroniana AM-like 483<br />

Codoniaceae<br />

Fossombronia pusilla Fungal association 182<br />

(G)<br />

Fossombronia<br />

Fungal association 328<br />

wondraczekii<br />

Radulaceae<br />

Radula aquilegia None 466<br />

Radula complanata None 466<br />

Radula l<strong>in</strong>dbergiana None 466<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

Porellaceae<br />

Porella arboris-vitae None 466<br />

Porella cordaeana None 466<br />

Porella obtusata None 466<br />

Porella p<strong>in</strong>nata None 466<br />

Porella platyphylla None 466<br />

Jubulaceae<br />

Frullania dilatata None 466<br />

Frullania fragilifolia None 466<br />

Frullania microphylla None 466<br />

Frullania tamarisci None 466<br />

Frullania teneriffae None 466<br />

Jubula hutch<strong>in</strong>siae None 466<br />

Lejeuneaceae<br />

Aphanolejeunea<br />

None 466<br />

microscopica<br />

Cololejeunea calcarea None 466<br />

Cololejeunea m<strong>in</strong>utissima None 466<br />

Colura calyptrifolia None 466<br />

Drepanolejeunea None 466<br />

hamatifolia<br />

Harpalejeunea ovata None 466<br />

Lejeunea cavifolia None 466<br />

Lejeunea lamacer<strong>in</strong>a None 466<br />

Lejeunea patens None 466<br />

Lejeunea ulic<strong>in</strong>a None 466<br />

Marches<strong>in</strong>ia mackaii None 466<br />

Pseudolepicoleaceae<br />

Blepharostoma trichophyllum<br />

None 466<br />

Fungal association 328<br />

Herbertaceae<br />

Herbertus borealis None 466<br />

Plagiochilaceae<br />

Ped<strong>in</strong>ophyllum <strong>in</strong>terruptum None 466<br />

Plagiochila asplenioides None 466<br />

Plagiochila porelloides None 466<br />

Plagiochila punctata Fungal association 466<br />

Plagiochila sp<strong>in</strong>ulosa None 466<br />

Arnelliaceae<br />

Southbya nigrella<br />

Fungal association<br />

(B)<br />

References<br />

182<br />

Geocalycaceae<br />

Chiloscyphus pallescens None 466<br />

Chiloscyphus polyanthus None 466<br />

Geocalyx graveolens Fungal association 466<br />

Harpanthus flotovianus None 466<br />

Harpanthus scutatus Fungal association 466<br />

Leptoscyphus cuneifolius None 466<br />

Lophocolea bidentata None 466<br />

Lophocolea cuspidate None 466<br />

Lophocolea heterophylla None 182, 466<br />

Fungal association 328<br />

Saccogyna viticulosa Fungal association 466


302<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Lepidoziaceae<br />

Bazzania flaccida None 328<br />

Bazzania tricrenata None 466<br />

Bazzania trilobata None 328, 466<br />

Kurzia pauciflora Fungal association 466<br />

Fungal association 182, 328<br />

(A)<br />

Kurzia sylvatica Fungal association 466<br />

Kurzia trichoclados Fungal association 466<br />

Lepidozia reptans Fungal association 466<br />

Fungal association 182, 328<br />

(A)<br />

Telaranea murphyae Fungal association 466<br />

Telaranea nematodes Fungal association 466<br />

Scapaniaceae<br />

Diplophyllum albicans None 182, 466<br />

Fungal association 328<br />

Diplophyllum obtusifolium Fungal association 328<br />

Dou<strong>in</strong>ia ovata None 466<br />

Scapania calcicola None 466<br />

Scapania cuspiduligera None 466<br />

Scapania gracilis None 466<br />

Scapania sc<strong>and</strong>ica None 466<br />

Scapania umbrosa None 466<br />

Cephaloziellaceae<br />

Cephaloziella<br />

None 466<br />

baumgartneri<br />

Cephaloziella divaricata Fungal association 466<br />

Fungal association 182, 328<br />

(A)<br />

Cephaloziella exiliflora Fungal association 118<br />

(A)<br />

Cephaloziella hampeana Fungal association 466<br />

Cephaloziella massalongi None 466<br />

Cephaloziella rubella Fungal association 466<br />

Cephaloziaceae<br />

Cephalozia bicuspidate Fungal association 466<br />

Fungal association 182, 328<br />

(A)<br />

Cephalozia catenulate None 466<br />

Fungal association 328<br />

Cephalozia connivens Fungal association 466<br />

Fungal association 182<br />

(A)<br />

Cephalozia leucantha Fungal association 466<br />

Cephalozia loitlesbergeri Fungal association 466<br />

Fungal association 182<br />

(A)<br />

Cephalozia lunulifolia Fungal association 328, 466<br />

Cephalozia macrostachya Fungal association 466<br />

Cephalozia pleniceps Fungal association 466<br />

Cladopodiella fluitans None 466<br />

Cladopodiella francisci Fungal association 466<br />

Nowellia curvifolia Fungal association 182, 328, 466<br />

(A)<br />

Odontoschisma denudatum None 466<br />

Fungal association 182<br />

(A)<br />

Odontoschisma elongatum None 466<br />

Odontoschisma sphagni Fungal association 466<br />

Fungal association 182<br />

(A)<br />

Calypogeiaceae<br />

Calypogeia arguta Fungal association 466<br />

Calypogeia azurea Fungal association 328<br />

(A, B)<br />

Calypogeia fissa Fungal association 466<br />

Fungal association 182<br />

(A)<br />

Calypogeia <strong>in</strong>tegristipula Fungal association 328<br />

Calypogeia muellerana Fungal association 466<br />

Fungal association 182<br />

(A)<br />

Fungal association 328<br />

(A, B)<br />

Calypogeia neesiana Fungal association 328, 466<br />

Calypogeia sphagnicola Fungal association 466<br />

Calypogeia trichomanis Fungal association 466<br />

Jungermanniaceae<br />

Anastrophyllum m<strong>in</strong>utum Fungal association 328<br />

Barbilophozia barbata Fungal association 328<br />

(A, B)<br />

Barbilophozia hatcheri None 466<br />

Jamesoniella autumnalis Fungal association 466<br />

Jamesoniella undulifolia None 466<br />

Jungermannia atrovirens None 466<br />

Jungermannia borealis None 466<br />

Jungermannia exsertifolia None 466<br />

Jungermannia gracillima None 182, 466<br />

Jungermannia obovata None 466<br />

Jungermannia pumila None 466<br />

Leiocolea turb<strong>in</strong>ata None 466<br />

Lophozia <strong>in</strong>cisa<br />

Fungal association 328<br />

(B)<br />

Lophozia sudetica Fungal association 328<br />

(B)<br />

Lophozia ventricosa Fungal association 182<br />

(B)<br />

Mylia anomala Fungal association 328, 466<br />

Mylia taylorii Fungal association 328<br />

Nardia breidleri Fungal association 466<br />

Nardia scalaris<br />

Fungal association 182, 328<br />

(B)<br />

Sphenolobus helleranus None 466


303<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Sphenolobus m<strong>in</strong>utus None 466<br />

Gymnomitriaceae<br />

Gymnomitrion<br />

None 466<br />

conc<strong>in</strong>natum<br />

Gymnomitrion crenulatum None 466<br />

Gymnomitrion obtusum None 466<br />

Marsupella adusta None 466<br />

Marsupella alp<strong>in</strong>a None 466<br />

Marsupella emarg<strong>in</strong>ata None 466<br />

Fungal association 328<br />

Marsupella stableri None 466<br />

Anthocerotaceae<br />

Anthoceros punctatus AM-like 525<br />

Phaeoceros laevis AM-like 344<br />

PTERIDOPHYTES<br />

Lycopodiaceae<br />

Diphasiastrum alp<strong>in</strong>um AM + NM 260, 261<br />

Diphasiastrum<br />

NM 654<br />

complanatum<br />

Diphasiastrum issleri AM 260, 261<br />

Huperzia australiana AM 342<br />

Huperzia phyllantha AM 226<br />

Huperzia selago AM + NM 260, 261<br />

Huperzia serrata f. NM 654<br />

longipetiolata<br />

Lycopodiastrum<br />

NM 654<br />

casuar<strong>in</strong>oides<br />

Lycopodiella <strong>in</strong>undata AM 212<br />

AM + NM 260, 261<br />

Lycopodium alp<strong>in</strong>um NM 594<br />

Lycopodium annot<strong>in</strong>um AM 260, 261<br />

Lycopodium cernuum AM 181, 226<br />

Lycopodium clavatum AM 521, 594<br />

AM + NM 260, 261<br />

Lycopodium japonicum AM 654<br />

Lycopodium selago NM 594<br />

Palh<strong>in</strong>haea cernua NM 654<br />

Phlegmariurus henryi NM 654<br />

Isoetaceae<br />

Isoetes ech<strong>in</strong>ospora NM 260, 261<br />

Isoetes histrix NM 260, 261<br />

Isoetes lacustris NM 260, 261<br />

Selag<strong>in</strong>ellaceae<br />

Selag<strong>in</strong>ella arbuscula AM 226<br />

Selag<strong>in</strong>ella biformis AM 654<br />

Selag<strong>in</strong>ella chrysocaulos NM 654<br />

Selag<strong>in</strong>ella davidii AM 653, 654<br />

Selag<strong>in</strong>ella delicatula AM 654<br />

Selag<strong>in</strong>ella frondosa AM 654<br />

Selag<strong>in</strong>ella helferi NM 654<br />

Selag<strong>in</strong>ella <strong>in</strong>volvens AM 654<br />

Selag<strong>in</strong>ella kraussiana AM + NM 260, 261<br />

Selag<strong>in</strong>ella mairei AM 343<br />

Selag<strong>in</strong>ella moellendorfii AM 653<br />

Selag<strong>in</strong>ella monospora NM 654<br />

Selag<strong>in</strong>ella picta AM 654<br />

Selag<strong>in</strong>ella pulv<strong>in</strong>ata AM 343, 654<br />

Selag<strong>in</strong>ella remotifolia AM 654<br />

Selag<strong>in</strong>ella sangu<strong>in</strong>olenta AM 654<br />

Selag<strong>in</strong>ella selag<strong>in</strong>oides AM 260, 261<br />

Equisetaceae<br />

Equisetum arvense NM 307, 594, 260,<br />

261<br />

AM 599<br />

Equisetum debile NM 654<br />

Equisetum diffusum AM 343<br />

NM 654<br />

Equisetum fluviatile NM 260, 261<br />

Equisetum hyemale AM 653, 260, 261<br />

Equisetum palustre NM 260, 261<br />

Equisetum pratense NM 260, 261<br />

Equisetum ramosissimum NM 368, 260, 261<br />

AM 653<br />

Equisetum sylvaticum AM + NM 260, 261<br />

Equisetum telmateia AM 260, 261<br />

Equisetum × trachydon AM 260, 261<br />

Equisetum variegatum NM 594<br />

AM 260, 261<br />

Marattiaceae<br />

Angiopteris caudatiformis AM 654, 655<br />

Angiopteris evecta AM 226<br />

Angiopteris hokouensis AM 654<br />

Angiopteris wangii AM 654<br />

Angiopteris yunnanensis AM 654<br />

Archangiopteris bip<strong>in</strong>nata AM 654<br />

Archangiopteris henryi AM 654<br />

Archangiopteris hokouensis AM 654<br />

Archangiopteris<br />

subrotundata AM 654<br />

Calathea sp. AM 510<br />

Christensenia assamica AM 654<br />

Ctenanthe sp. AM 510<br />

Ischnosiphon gracilis AM 510<br />

Marattia douglasii NM 226<br />

Monotagma plurispicatum AM 510<br />

Saranthe compositae NM 510<br />

Stromanthe porteana AM 510<br />

Psilotaceae<br />

Psilotum complanatum NM 226<br />

Psilotum nudum AM 226<br />

Psilotum sp. AM 483<br />

Ophioglossaceae<br />

Botrychium lanug<strong>in</strong>osum AM 653<br />

Botrychium lunaria AM 194, 260, 261<br />

Botrychium ternatum AM 653<br />

Botrychium virg<strong>in</strong>ianum AM 329


304<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Ophioglossum conc<strong>in</strong>num AM 226<br />

Ophioglossum lusitanicum AM 260, 261<br />

Ophioglossum pendulum AM 226<br />

Ophioglossum petiolatum AM 654<br />

NM 226<br />

Ophioglossum reticulatum AM 522, 654<br />

Ophioglossum themale AM 654<br />

Ophioglossum vulgatum AM 653, 260, 261<br />

Osmundaceae<br />

Osmunda c<strong>in</strong>namomea AM 140<br />

Osmunda japonica AM 653, 654<br />

Osmunda regalis AM + NM 260, 261<br />

Hymenophyllaceae<br />

Crepidomanes latealatum NM 654<br />

Hymenophyllum<br />

M (endo) 260, 261<br />

tunbrigense<br />

Hymenophyllum wilsonii M (endo) 260, 261<br />

Mecodium badium NM 654<br />

Mecodium blumeanum NM 654<br />

Mecodium recurvum AM 226<br />

Sphaerocionium<br />

AM 226<br />

lanceolatum<br />

Trichomanes auriculatum NM 654<br />

Trichomanes speciosum NM 260, 261<br />

V<strong>and</strong>enboscia cyrtotheca NM 226<br />

V<strong>and</strong>enboscia davalliodes NM 226<br />

Gleicheniaceae<br />

Dicranopteris dichotoma AM 653<br />

Dicranopteris gigantea NM 654<br />

Dicranopteris l<strong>in</strong>earis AM 226<br />

Dicranopteris pedata NM 654<br />

Dicranopteris splendida NM 654<br />

Diplopterygium glaucoides NM 654<br />

Diplopterygium glaucum NM 654<br />

Diplopterygium p<strong>in</strong>natum AM 226<br />

Sticherus laevigatus NM 654<br />

Sticherus owhyhensis AM 226<br />

Schizaeaceae<br />

Anemia phyllitidis AM 31<br />

Lygodium conforme AM 654<br />

Lygodium japonicum AM 653<br />

NM 654<br />

Schizaea robusta AM 226<br />

Marsileaceae<br />

Pilularia globulifera AM + NM 260, 261<br />

Azollaceae<br />

Azolla filiculoides NM 226, 260, 261<br />

Plagiogyriaceae<br />

Plagiogyria dist<strong>in</strong>ctissima AM 654<br />

Cyatheaceae<br />

Alsophila constularis NM 654<br />

Alsophila sp<strong>in</strong>ulosa AM 654<br />

Cyathea cooperi AM 226<br />

Gymnosphaera gigantea NM 654<br />

Gymnosphaera podophylla NM 654<br />

Sphaeropteris brunoniana NM 654<br />

Dicksoniaceae<br />

Cibotium barometze NM 654<br />

Cibotium chamissoi AM 226<br />

Cibotium glaucum AM 226<br />

Cibotium st.-johnii AM 226<br />

Pteridaceae<br />

Doryopteris decipiens AM 226<br />

Doryopteris decora AM 226<br />

Histiopteris <strong>in</strong>cisa AM 654<br />

Pellaea mairei AM 654<br />

Pellaea ternifolia AM 226<br />

Pteridium aquil<strong>in</strong>um AM 653<br />

Pteridium revolutum NM 654<br />

Pteris aspericaulis AM 653<br />

Pteris aspericaulis var. NM 654<br />

tricolor<br />

Pteris cretica AM 226<br />

Pteris cretica var. laeta NM 654<br />

Pteris cretica var. nervosa NM 654<br />

Pteris dissitifolia NM 654<br />

Pteris ensiformis NM 654<br />

Pteris esquirolii NM 654<br />

Pteris excelsa AM 226<br />

NM 654<br />

Pteris irregularis AM 226<br />

Pteris l<strong>in</strong>earis NM 654<br />

Pteris semip<strong>in</strong>nata NM 654<br />

Pteris setulosocostulata AM 654<br />

Pteris venusta AM 655<br />

Pteris vittata AM 226, 653<br />

NM 654<br />

Pteris wangiana NM 654<br />

Vittariaceae<br />

Antrophyrum henryi NM 654<br />

Vittaria elongata AM 226<br />

Vittaria flexuosa NM 654<br />

Adiantaceae<br />

Adiantum bonatianum AM 654<br />

Adiantum capillus-veneris AM + NM 260, 261<br />

Adiantum edgewothii AM 654<br />

Adiantum flabellulatum AM 654<br />

Adiantum malesianum NM 654<br />

Adiantum philipense AM 343<br />

NM 654<br />

Aleuritopteris<br />

AM 654<br />

albomarg<strong>in</strong>atata<br />

Aleuritopteris argentea AM 654<br />

Aleuritopteris duclouxii NM 654<br />

Aleuritopteris<br />

pseud<strong>of</strong>ar<strong>in</strong>osa<br />

NM 654


305<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Anogramma leptophylla NM 260, 261<br />

Cheilosoria hancockii AM 654<br />

Coniogramme <strong>in</strong>termedia AM 654<br />

Coniogramme rosthorni NM 654<br />

Coniogramme simillima AM 654<br />

Cryptogramma crispa AM + NM 260, 261<br />

Gymnopteris bip<strong>in</strong>nata NM 654<br />

var. auriculata<br />

Gymnopteris vestita AM 654<br />

Leptolepidium subvillosum NM 654<br />

Onychium angustifrons NM 654<br />

Onychium contigium AM 654<br />

Onychium japonicum NM 654<br />

var. lucidum<br />

Onychium lucidum AM 654<br />

S<strong>in</strong>opteris grevilleoides NM 654<br />

Dennstaedtiaceae<br />

Dennstaedtia melanostipes AM 654<br />

Dennstaedtia scabra AM 654<br />

Hypolepis punctata NM 654<br />

L<strong>in</strong>dsaea cultrata AM 653<br />

L<strong>in</strong>dsaea ensifolia NM 654<br />

L<strong>in</strong>dsaea javanensis NM 654<br />

L<strong>in</strong>dsaea odorata NM 654<br />

L<strong>in</strong>dsaea orbiculata AM 654<br />

Microlepia hookeriana AM 654<br />

Microlepia marg<strong>in</strong>ata AM 654<br />

Microlepia marg<strong>in</strong>ata AM 654<br />

var. calvescens<br />

Microlepia pilosissima AM 654<br />

Microlepia platyphylla NM 654<br />

Microlepia rhomboidea NM 654<br />

Microlepia strigosa AM 226<br />

Monachosorum henryi AM 654<br />

Pteridium aquil<strong>in</strong>um AM + NM 260, 261<br />

Pteridium decompositum AM 226<br />

Schizoloma heterophyllum NM 653<br />

Stenoloma chusanum AM 653, 654<br />

Aspleniaceae<br />

Acrophorus stipellatus NM 654<br />

Acystopteris tenuisecta AM 654<br />

Allantodia alata NM 654<br />

Allantodia ch<strong>in</strong>ensis AM 653<br />

Allantodia dilatata AM 654<br />

Allantodia doederle<strong>in</strong>ii NM 654<br />

Allantodia laxifrons AM 654<br />

Allantodia megaphylla NM 654<br />

Allantodia spectabilis AM 654<br />

Allantodia stenochlamys NM 654<br />

Asplenium adiantumnigrum<br />

AM 226<br />

AM + NM 260, 261<br />

Asplenium billotii NM 260, 261<br />

Asplenium cheilosorum AM 654<br />

Asplenium excisum NM 654<br />

Asplenium f<strong>in</strong>laysonianum NM 654<br />

Asplenium florent<strong>in</strong>um AM 226<br />

Asplenium fuscipes NM 654<br />

Asplenium griffithianum NM 654<br />

Asplenium horridum NM 226<br />

Asplenium lushanense AM 654<br />

Asplenium macraei AM 226<br />

Asplenium mar<strong>in</strong>um NM 260, 261<br />

Asplenium nidus NM 226<br />

Asplenium normale AM 226<br />

NM 654<br />

Asplenium onopteris NM 472<br />

Asplenium pek<strong>in</strong>ense NM 654<br />

Asplenium praemosum NM 654<br />

Asplenium prolongatum NM 654<br />

Asplenium ruta-muraria AM + NM 260, 261<br />

Asplenium septentrionale NM 260, 261<br />

Asplenium sphenotomum AM 226<br />

Asplenium tenuicaule NM 654<br />

Asplenium trichomanes AM + NM 260, 261<br />

Asplenium unilaterale AM 226<br />

NM 654<br />

Asplenium varians NM 654<br />

Asplenium viride AM + NM 260, 261<br />

Asplenium wrightioides NM 654<br />

Asplenium yunnanense NM 654<br />

Athyriopsis longipes AM 654<br />

Athyriopsis ptersennii AM 654<br />

Athyrium anisopterum NM 654<br />

Athyrium biserrulatum AM 654<br />

Athyrium delicatulum NM 654<br />

Athyrium dissitifolium AM 654<br />

Athyrium distentifolium AM + NM 260, 261<br />

Athyrium esculentum AM 226<br />

Athyrium filix-fem<strong>in</strong>a AM + NM 260, 261<br />

Athyrium japonica AM 226<br />

Athyrium mack<strong>in</strong>nonii NM 654<br />

Athyrium macraei AM 226<br />

Athyrium mengtzeense AM 654<br />

Athyrium microphyllum AM 226<br />

Athyrium niponicum NM 654<br />

Athyrium s<strong>and</strong>wichianum AM 226<br />

Athyrium stigillosum AM 654<br />

Athyrium wardii AM 653<br />

Bolbitis heteroclita NM 654<br />

Bolbitis hokouensis NM 654<br />

Callipteris esculenta AM 653<br />

NM 654<br />

Ceterach <strong>of</strong>fic<strong>in</strong>arum NM 260, 261<br />

Ctenitis mariformis AM 653<br />

Ctenitis membranifolia NM 654<br />

Ctenitopsis devexa NM 654


306<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Ctenitopsis glabra NM 654<br />

Ctenitopsis sagenioides NM 654<br />

Ctenitopsis setulaosa NM 654<br />

Ctenitopsis subsageriacea NM 654<br />

Cystopteris fragilis AM + NM 260, 261<br />

Cystopteris montana NM 260, 261<br />

Cystopteris pellucida AM 653<br />

Diacalpe christensenae NM 654<br />

Diplazium donianum AM 653<br />

NM 654<br />

Diplazium lanceum AM 653<br />

Diplazium splendens AM 654<br />

Dryoathyrium boryanum NM 654<br />

Dryoathyrium edentulum AM 654<br />

Egenolfia s<strong>in</strong>ensis AM 654<br />

Egenolfia tok<strong>in</strong>ensis AM 654<br />

Gymnocarpium dryopteris AM + NM 260, 261<br />

Hypodematium crenatum AM 654<br />

Lomariopsis spectabilis NM 654<br />

Lunathyrium dolosum NM 654<br />

Monomelangium pull<strong>in</strong>geri AM 654<br />

var. daweishannicolum<br />

Neottopteris antrophyoides NM 654<br />

Neottopteris simonsiana NM 654<br />

Phyllitis scolopendrium AM 260, 261<br />

Pleocnemia w<strong>in</strong>itei NM 654<br />

Pseudocystopteris NM 654<br />

atk<strong>in</strong>sonii<br />

Quercifilix zeylanica NM 654<br />

Tectaria coadunata NM 654<br />

Tectaria decurrens NM 654<br />

Tectaria dubia NM 654<br />

Tectaria ha<strong>in</strong>anensis NM 654<br />

Tectaria hokouensis NM 654<br />

Tectaria simonii NM 654<br />

Tectaria variolosa NM 654<br />

Tectaria yunnanensis NM 654<br />

Woodsia alp<strong>in</strong>a NM 260, 261<br />

Woodsia ilvensis NM 260, 261<br />

Thelypteridaceae<br />

Ampelopteris prolifera NM 654<br />

Dictyocl<strong>in</strong>e wilfordii AM 653<br />

Cyclogramma auriculata AM 654<br />

Cyclosorus acum<strong>in</strong>atus NM 654<br />

Cyclosorus dentatus NM 654<br />

Cyclosorus hokouensis AM 654<br />

Cyclosorus mollicesculus NM 654<br />

Cyclosorus parasiticus NM 654<br />

Cyclosorus subnigrescens NM 654<br />

Cyclosorus truncatus NM 654<br />

Dictyocl<strong>in</strong>e griffithii AM 654<br />

Glaphylopteridopsis<br />

erubescens<br />

AM 654<br />

Macrothelypteris toressiana AM 654<br />

Metathelypteris flaccida NM 654<br />

Oreopteris limbosperma AM 260, 261<br />

Parathelypteris beddomei NM 654<br />

Parathelypteris hirsutipes AM 654<br />

Parathelypteris nipponica NM 653<br />

Phegopteris connectilis AM + NM 260, 261<br />

Pronephrium<br />

NM 654<br />

gymnopteridifrons<br />

Pronephrium nudotum NM 654<br />

Pronephrium simplex NM 654<br />

Pseudocyclosorus AM 654<br />

esquirolii<br />

Pseudocyclosorus NM 654<br />

subochthodes<br />

Pseudophegopteris NM 654<br />

pyrrhorachis<br />

Pseudophegopteris NM 654<br />

yunkweiensis<br />

Thelypteris cyatheoides NM 226<br />

Thelypteris globulifera AM 226<br />

Thelypteris hudsoniana AM 226<br />

Thelypteris <strong>in</strong>terrupta NM 226<br />

Thelypteris parasitica AM 226<br />

Thelypteris s<strong>and</strong>wicensis NM 226<br />

Thelypteris thelypteroides AM + NM 260, 261<br />

Blechnaceae<br />

Blechnum occidentale AM 226<br />

Blechnum orientale AM 654<br />

Blechnum penna-mar<strong>in</strong>a NM 342<br />

Blechnum spicant AM + NM 260, 261<br />

Bra<strong>in</strong>ea <strong>in</strong>signis NM 654<br />

Doodia kunthiana AM 226<br />

Sadleria cyatheoides AM 226<br />

Sadleria squarrosa AM 226<br />

Woodwardia japonica AM 654<br />

Woodwardia orientalis AM 653<br />

Woodwardia unigemmata NM 654<br />

Dryopteridaceae<br />

Acrorumohra diffraeta AM 654<br />

Arachniodes fest<strong>in</strong>a AM 653<br />

Arachniodes globisora AM 654<br />

Arachniodes rhomboidea AM 653<br />

Arachniodes simplicior AM 653<br />

Arachniodes sporadosora NM 654<br />

Cyrtomium caryotideum f. AM 654<br />

caryotideum<br />

Cyrtomium fortunei NM 654<br />

Dryopteris basisora NM 654<br />

Dryopteris caroli-hopei NM 654<br />

Dryopteris carthusiana AM 598<br />

AM + NM 260, 261<br />

Dryopteris chrysocoma NM 654


307<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Dryopteris cochleata NM 654<br />

Dryopteris cristata AM 260, 261<br />

Dryopteris dilatata AM 260, 261<br />

Dryopteris filix-mas AM + ECM + NM 260, 261<br />

Dryopteris fructuosa AM 654<br />

Dryopteris fuscipes AM 653<br />

Dryopteris fusco-atra AM 226<br />

Dryopteris glabra AM 226<br />

Dryopteris lepidopoda NM 654<br />

Dryopteris marg<strong>in</strong>ata AM 654<br />

Dryopteris odontoloma NM 654<br />

Dryopteris sparsa AM 654<br />

Dryopteris stenolepis NM 654<br />

Dryopteris sublacera AM 654<br />

Dryopteris thelypteris AM 140<br />

Dryopteris unidentata AM 226<br />

Dryopteris wallichiana AM 226<br />

Nothoperanema<br />

NM 654<br />

hendersonii<br />

Polystichum aculeatum AM + NM 260, 261<br />

Polystichum alteruatum NM 654<br />

Polystichum ch<strong>in</strong>gae NM 654<br />

Polystichum dielsii NM 654<br />

Polystichum eximium NM 654<br />

Polystichum jizhushanense AM 654<br />

Polystichum lonchitis AM 260, 261<br />

Polystichum pycnopterum NM 654<br />

Polystichum tsus-simense AM 654<br />

Polystichum vestitum NM 342<br />

Tectaria gaudichaudii AM 226<br />

Nephrolepidaceae<br />

Arthropteris palisotii NM 654<br />

Nephrolepis biserrata AM 35<br />

Nephrolepis faleata NM 654<br />

Polypodiaceae<br />

Arthromeris mairei NM 654<br />

Cheilanthes lanosa AM 449<br />

Colysis diversifolia NM 654<br />

Colysis hemitoma NM 653<br />

Colysis hokouensis NM 654<br />

Colysis pentaphylla NM 654<br />

Drynaria prop<strong>in</strong>qua NM 654<br />

Lepidogrammitis rostrama NM 654<br />

Lepisorus contortus NM 654<br />

Lepisorus macrosphaerus NM 654<br />

Lepisorus scolopendrium NM 654<br />

Microsorium car<strong>in</strong>atum NM 654<br />

Microsorium henryi NM 654<br />

Microsorium<br />

NM 654<br />

membranaceum<br />

Microsorium punctatum NM 654<br />

Microsorium spectrum NM 226<br />

Neocheiropteris<br />

palmatopedata NM 654<br />

Neolepisorus ovatus NM 654<br />

Neolepisorus s<strong>in</strong>ensis NM 654<br />

Onoclea sensibilis AM 140<br />

Phlebodium aureum NM 226<br />

Phymatopsis<br />

NM 654<br />

crenatop<strong>in</strong>nata<br />

Phymatopsis nigrovenia NM 654<br />

Phymatopsis trisecta NM 654<br />

Phymatosorus scolopendria NM 226<br />

Pleopeltis thunbergiana NM 226<br />

Polypodiodes amoenum NM 654<br />

Polypodium pellucidum NM 226<br />

Polypodium vulgare AM + NM 260, 261<br />

Pyrrosia adnaseens NM 654<br />

Pyrrosia gralla NM 654<br />

Pyrrosia l<strong>in</strong>gua NM 654<br />

Pyrrosia mollis NM 654<br />

Pyrrosia subfurfuracea NM 654<br />

Pyrrosia tonk<strong>in</strong>ensis NM 654<br />

Tricholepidium maculosum NM 654<br />

Grammitidaceae<br />

Adenophorus abiet<strong>in</strong>us AM 226<br />

Adenophorus p<strong>in</strong>natifidus NM 226<br />

Adenophorus tamarisc<strong>in</strong>us AM 226<br />

Grammitis baldw<strong>in</strong>ii NM 226<br />

Grammitis poeppigeana NM 342<br />

Grammitis tenella AM 226<br />

Loxogramme ensiformis NM 654<br />

Xiphopteris saffordii NM 226<br />

Davalliaceae<br />

Araiostegia perdurans NM 654<br />

Nephrolepis cordifolia AM 226<br />

Nephrolepis exaltata AM 226<br />

Nephrolepis multiflora AM 226<br />

GYMNOSPERMS<br />

Cycadaceae<br />

Cycas circ<strong>in</strong>alis AM 423<br />

Cycas revoluta AM 423<br />

Zamiaceae<br />

Ceratozamia mexicana AM 616<br />

Dioon edule AM 203, 616<br />

Lepidozamia hopei AM 484<br />

Macrozamia reidlei AM 93<br />

Zamia pumila AM 203<br />

G<strong>in</strong>kgoaceae<br />

G<strong>in</strong>kgo biloba AM 206<br />

P<strong>in</strong>aceae<br />

Abies alba ECM 189<br />

Abies gr<strong>and</strong>is ECM 375<br />

Abies lasiocarpa ECM 314<br />

Abies spp. ECM 260, 261<br />

Cedrus atlantica ECM 431


308<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Larix decidua ECM 260, 261<br />

Larix kaempferi ECM 644, 260, 261<br />

Larix occidentalis ECM 156<br />

Picea abies ECM 8<br />

ECM + EEM 260, 261<br />

Picea engelmannii ECM 314<br />

Picea glauca ECM 285, 338, 414,<br />

470<br />

Picea glehnii ECM 308<br />

Picea mariana ECM 91<br />

Picea rubens ECM 232<br />

Picea sitchensis ECM 13, 205, 260,<br />

261<br />

P<strong>in</strong>us banksiana ECM 91<br />

P<strong>in</strong>us cembra ECM 498<br />

P<strong>in</strong>us contorta ECM 98, 156, 403<br />

P<strong>in</strong>us densiflora ECM 228, 309, 634,<br />

635<br />

P<strong>in</strong>us ech<strong>in</strong>ata ECM 444<br />

P<strong>in</strong>us edulis ECM 223, 265, 470<br />

P<strong>in</strong>us elliottii ECM 470, 564<br />

P<strong>in</strong>us halepensis ECM 411, 590<br />

P<strong>in</strong>us jeffreyi ECM 617<br />

P<strong>in</strong>us lambertiana ECM 617<br />

P<strong>in</strong>us massoniana ECM 323, 564<br />

P<strong>in</strong>us montezumae ECM 509<br />

P<strong>in</strong>us muricata ECM 218, 280<br />

ECM + AM 281<br />

P<strong>in</strong>us nigra ECM 260, 261<br />

P<strong>in</strong>us patula ECM 487<br />

P<strong>in</strong>us p<strong>in</strong>aster ECM 458, 260, 261<br />

P<strong>in</strong>us p<strong>in</strong>ea ECM 368, 451<br />

P<strong>in</strong>us ponderosa AM 550<br />

ECM 156, 188, 375,<br />

506, 618<br />

P<strong>in</strong>us radiata ECM 184<br />

P<strong>in</strong>us res<strong>in</strong>osa ECM 363, 470<br />

P<strong>in</strong>us rigida ECM 152<br />

P<strong>in</strong>us sylvestris ECM 239, 320, 420<br />

ECM + EEM + 260, 261<br />

NM<br />

P<strong>in</strong>us tabulaeformis ECM 634, 635<br />

P<strong>in</strong>us taeda ECM 139, 160, 190<br />

P<strong>in</strong>us thunbergii ECM 364<br />

Pseudotsuga menziesii ECM 70, 156, 236,<br />

259, 280, 375<br />

AM 550<br />

AM + ECM 116<br />

ECM + EEM 260, 261<br />

Tsuga heterophylla ECM 9, 313<br />

AM + ECM 116<br />

Ephedraceae<br />

Ephedra trifurca AM 137<br />

Welwitschiaceae<br />

Welwitschia mirabilis AM 296<br />

Gnetaceae<br />

Gnetum africanum ECM 445<br />

Gnetum buchholzianum ECM 445<br />

Gnetum sp. AM + ECM 445<br />

Araucariaceae<br />

Agathis robusta AM 388<br />

Araucaria angustifolia AM 31, 89, 650<br />

Araucaria cunn<strong>in</strong>ghamii AM 388<br />

Wollemia nobilis AM + EEM 388<br />

Wollemia sp. ECM 656<br />

Podocarpaceae<br />

Dacrycarpus dacrydioidies AM 504<br />

Dacrydium cupress<strong>in</strong>um AM 504<br />

Parasitaxus ustus Mycoheterotrophy 659<br />

via AM?<br />

Podocarpus falcatus AM 637, 638<br />

Prumnopitys ferrug<strong>in</strong>ea AM 504<br />

Prumnopitys taxifolia AM 504<br />

Taxodiaceae<br />

Metasequoia<br />

AM 559<br />

glyptostroboides<br />

Sequoia sempervirens AM 6<br />

Sequoiadendrom<br />

AM 6<br />

giganteum<br />

Cupressaceae<br />

Austrocedrus chilensis AM 207<br />

Chamaecyparis thyoides AM 106<br />

Juniperus communis AM + ECM 260, 261<br />

Juniperus communis ssp. AM + ECM 260, 261<br />

nana<br />

Juniperus monosperma AM 470<br />

Juniperus oxycedrusL. ssp. AM 368<br />

macrocarpa<br />

Juniperus procera AM 637, 638<br />

Libocedrous decurrens AM 6, 25<br />

Tetracl<strong>in</strong>is articulata AM 169, 412<br />

Thuja occidentalis AM 81, 385<br />

Thuja plicata AM 100<br />

Taxaceae<br />

Taxus baccata AM 637, 638, 260,<br />

261<br />

Taxus × media AM 515<br />

ANGIOSPERMS<br />

Nymphaeaceae<br />

Nuphar × <strong>in</strong>termedia NM 260, 261<br />

Nuphar lutea NM 62, 260, 261<br />

Nuphar pumila NM 260, 261<br />

Nymphaea alba NM 260, 261


309<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Nymphaea sp. AM 656<br />

Acoraceae<br />

Acorus calamus AM 531<br />

NM 260, 261<br />

T<strong>of</strong>ieldiaceae<br />

T<strong>of</strong>ieldia pusilla AM 260, 261<br />

Araceae<br />

Aglaonema modestum AM 655<br />

Alocasia longiloba AM 655<br />

Alocasis macrorrhiza AM 422<br />

Amorphophallus<br />

AM 422<br />

bannaensis<br />

Anthurium aff<strong>in</strong>e AM 510<br />

Anthurium pentaphyllum AM 510<br />

Anthurium pitteri AM 474<br />

Arum italicum AM 260, 261<br />

Arum maculatum AM 260, 261<br />

Arum neglectum AM 260, 261<br />

Caladium bicolor AM 510<br />

Calla palustris NM 260, 261<br />

Colacasia esculenta AM 531<br />

Dieffenbachia amoena AM 510<br />

Philodendron ornatum NM 510<br />

Philodendron undulatum NM 510<br />

Pistia stratiotes NM 510<br />

Rhaphidophora decursiva AM 422<br />

Hydrocharitaceae<br />

Egreria densa NM 510<br />

Elodea canadensis NM 62, 260, 261<br />

Hydrilla verticillata NM 260, 261<br />

Vallisneria americana AM 631, 632<br />

Butomaceae<br />

Butomus umbellatus NM 260, 261<br />

Alismataceae<br />

Alisma lanceolatum AM + NM 260, 261<br />

Alisma plantago-aquatica AM 58<br />

NM 62, 260, 261<br />

Alisma subcordatum Weak AM 626<br />

Alisma triviale AM 140<br />

Baldellia ranunculoides AM 368<br />

Ech<strong>in</strong>odorus gr<strong>and</strong>iflorus NM 510<br />

Sagitaria latifolia AM 626<br />

Limnocharitaceae<br />

Hydrocleys nymphoides<br />

Juncag<strong>in</strong>aceae<br />

Trigloch<strong>in</strong> maritima AM + NM 260, 261<br />

Trigloch<strong>in</strong> palustris NM 260, 261<br />

Potamogetonaceae<br />

Potamogeton crispus NM 62, 260, 261<br />

Potamogeton gram<strong>in</strong>eus NM 62<br />

Potamogeton lucens NM 62<br />

Potamageton natans AM 58<br />

NM 62, 260, 261<br />

Potamogeton perfoliatus NM 62<br />

Potamogeton<br />

NM 260, 261<br />

polygonifolius<br />

Potamogeton praelongus NM 62<br />

Petrosaviaceae<br />

Petrosavia sakuraii Mycoheterotrophy 657, 658<br />

Petrosavia stellaris Mycoheterotrophy 657, 658<br />

Nartheciaceae<br />

Narthecium ossifragum AM + NM 260, 261<br />

Burmanniaceae<br />

Burmannia tenella Mycoheterotrophy 290<br />

(via AM)<br />

Thismia sp. Mycoheterotrophy 656<br />

Dioscoreaceae<br />

Tacca chantrieri NM 655<br />

Tamus communis AM 260, 261<br />

Triuridaceae<br />

Sciaphila polygyna Mycoheterotrophy 291<br />

Sciaphila tosaensis Mycoheterotrophy 642<br />

(via AM)<br />

P<strong>and</strong>anaceae<br />

Freyc<strong>in</strong>etia arborea AM 326<br />

P<strong>and</strong>anus furcatus NM 655<br />

P<strong>and</strong>anus tectorius NM 326<br />

Cyclanthaceae<br />

Asplundia gardneri NM 510<br />

Corsiaceae<br />

Arachnitis uniflora Mycoheterotrophy 79<br />

(via AM)<br />

Alstroemeriaceae<br />

Alstroemeria aurea AM 207<br />

Colchicaceae<br />

Colchicum autumnale AM 260, 261<br />

Melanthiaceae<br />

Paris quadrifolia AM + NM 260, 261<br />

Trillium flexipes AM 165<br />

Veratrum viride AM 140<br />

Smilacaceae<br />

Smilax aspera AM 63, 368<br />

Smilax corbularia AM 422<br />

Smilax hypoglauca AM 422<br />

Smilax <strong>in</strong>dica AM 422<br />

Liliaceae<br />

Gagea lutea AM + NM 260, 261<br />

Lilium martagon AM 260, 261<br />

Muscari comosum AM 260, 261<br />

Muscari neglectum AM 260, 261<br />

Smilac<strong>in</strong>a racemosa AM 165<br />

Orchidaceae<br />

Aceras anthropophorum ORM 260, 261<br />

Anacamptis pyramidalis ORM 260, 261<br />

Anoectochilus burmannicus ORM 422<br />

Anoectochilus roxburghii ORM 422


310<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Anoectochilus tortus AM 655<br />

Apostasia odorata AM 422<br />

Arund<strong>in</strong>a gram<strong>in</strong>ifolia ORM 326<br />

Caladenia formosa ORM 286<br />

Calypso bulbosa ORM 153<br />

Cephalanthera aust<strong>in</strong>ae Mycoheterotrophy 569<br />

(via ECM)<br />

Cephalanthera<br />

ORM + ECM 78<br />

damasonium<br />

ORM 260, 261<br />

Cephalanthera longifolia ORM 260, 261<br />

Cephalanthera rubra ORM + ECM 78<br />

ORM 368, 260, 261<br />

Chloraea virescens ORM 207<br />

Coeloglossum viride ORM 260, 261<br />

Corallorhiza maculata Mycoheterotrophy 569, 570, 571<br />

(via ECM)<br />

Corallorhiza mertensiana Mycoheterotrophy 570<br />

Corallorhiza trifida Mycoheterotrophy 392, 260, 261<br />

Corybas dienemus ORM 342<br />

Cypripedium calceolus ORM 540<br />

ORM + NM 260, 261<br />

Cypripedium californicum ORM 540<br />

Cypripedium c<strong>and</strong>idum ORM 540<br />

Cypripedium fasciculatum ORM 540<br />

Cypripedium guttatum ORM 540<br />

Cypripedium montanum ORM 540<br />

Cypripedium parviflorum ORM 540<br />

Dactylorhiza fuchsia ORM 260, 261<br />

Dactylorhiza <strong>in</strong>carnara ORM 173, 260, 261<br />

Dactylorhiza maculata ORM 260, 261<br />

Dactylorhiza maculata ssp. ORM 260, 261<br />

ericetorum<br />

Dactylorhiza majalis ORM 78, 334, 480,<br />

260, 261<br />

Dactylorhiza praetermissa ORM 260, 261<br />

Dactylorhiza praetermissa ORM 173<br />

var. junialis<br />

Dactylorhiza purpurella ORM 260, 261<br />

Epipactis atrorubens ORM + ECM 78<br />

ORM 304, 260, 261<br />

Epipactis distans ORM + ECM 78<br />

Epipactis hellebor<strong>in</strong>e ORM + ECM 78<br />

ORM 260, 261<br />

Epipactis microphylla ORM + ECM 530<br />

Epipactis palustris ORM 78, 481<br />

ORM + NM 260, 261<br />

Epipactis purpurata ORM 260, 261<br />

Epipogium aphyllum ORM 260, 261<br />

Goodyera repens ORM 260, 261<br />

Gymnadenia conopsea ORM 260, 261<br />

Gymnadenia odoratissima ORM 260, 261<br />

Haemaria discolor<br />

var. dawsoniana<br />

ORM 122<br />

Hammarbya paludosa ORM 260, 261<br />

Herm<strong>in</strong>ium monorchis ORM 260, 261<br />

Hexalectris spicata Mycoheterotrophy 572<br />

(via ECM)<br />

Himantoglossum hirc<strong>in</strong>um ORM 260, 261<br />

Ionopsis utricularioides ORM 448<br />

Liparis loeselii ORM 260, 261<br />

Listera cordata ORM 260, 261<br />

Listera ovata ORM 260, 261<br />

Malaxis latifolia ORM 422<br />

Microtis parviflora ORM 459<br />

Neot<strong>in</strong>ea maculata ORM 260, 261<br />

Neottia nidus-avis ORM + ECM 78<br />

ORM 260, 261<br />

Newiedia veratrifolia ORM 333<br />

Ophrys apifera ORM 260, 261<br />

Ophrys fuciflora ORM 260, 261<br />

Ophrys <strong>in</strong>sectifera ORM 260, 261<br />

Ophrys lutea ORM 56<br />

Ophrys sphegodes ORM 260, 261<br />

Orchis mascula ORM 260, 261<br />

Orchis militaris ORM 260, 261<br />

Orchis morio ORM 75, 173, 260,<br />

261<br />

Orchis palustris ORM 195<br />

Orchis purpurea ORM 260, 261<br />

Orchis simia ORM 260, 261<br />

Orchis ustulata ORM 260, 261<br />

Phaius mishmensis AM 655<br />

Platanthera bifolia ORM 260, 261<br />

Platanthera chlorantha ORM 78, 260, 261<br />

Platanthera leucophaea ORM 652<br />

Pseudorchis albida ORM 260, 261<br />

Pterostylis acum<strong>in</strong>ata ORM 460<br />

Serapias vomeracea ssp. ORM 195<br />

vomeracea<br />

Spathoglottis plicata ORM 326, 534, 565<br />

Spiranthes aestivalis ORM 260, 261<br />

Spiranthes s<strong>in</strong>ensis ORM 376<br />

var. amoena<br />

Spiranthes spiralis ORM 368, 260, 261<br />

Stanhopea tigr<strong>in</strong>a ORM 196<br />

Tolumnia variegata ORM 448<br />

Asteliaceae<br />

Astelia menziesiana AM 326<br />

Hypoxidaceae<br />

Curculigo capitulata AM 422<br />

Iridaceae<br />

Crocus vernus AM 260, 261<br />

Gladiolus segetum AM 260, 261<br />

Iris foetidissima AM 260, 261<br />

Iris germanica AM 260, 261


311<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Iris pseudacorus AM 368<br />

AM + NM 260, 261<br />

Sisyr<strong>in</strong>chium atlanticum AM 643<br />

Sisyr<strong>in</strong>chium sp. NM 207<br />

Sparaxis tricolor AM 514<br />

Hemerocallidaceae<br />

Dianella s<strong>and</strong>wicensis AM 326<br />

Asphodelaceae<br />

Asphodelus fistulosus AM 114, 115<br />

Bulb<strong>in</strong>e alata AM 438<br />

Haworthia tortuosa AM 417<br />

Alliaceae<br />

Allium ampeloprasum AM 260, 261<br />

Allium canadense AM 140<br />

Allium cepa AM 7, 349, 260,<br />

261<br />

Allium oleraceum AM + NM 260, 261<br />

Allium porrum AM 272, 260, 261<br />

Allium sativum AM 260, 261<br />

Allium schoenoprasum AM 3, 260, 261<br />

Allium scorodoprasum AM 260, 261<br />

Allium sphaerocephalon AM 472, 260, 261<br />

Allium subhirsutum AM 472<br />

Allium triquetrum AM 260, 261<br />

Allium urs<strong>in</strong>um AM 260, 261<br />

Amaryllidaceae<br />

Galanthus nivalis AM 260, 261<br />

Leucojum aestivum AM 260, 261<br />

Leucojum vernum AM + NM 260, 261<br />

Narcissus poeticus AM 260, 261<br />

Narcissus pseudonarcissus AM 260, 261<br />

Themidaceae<br />

Brodiaea laxa AM 513<br />

Hyac<strong>in</strong>thaceae<br />

Hyac<strong>in</strong>thoides non-scripta AM 398, 399, 260,<br />

261<br />

Ornithogalum nutans AM 260, 261<br />

Ornithogalum pyrenaicum AM 260, 261<br />

Ornithogalum umbellatum AM 260, 261<br />

Scilla autumnalis AM 260, 261<br />

Agavaceae<br />

Agave americana AM 343<br />

Agave datylio Weak AM 112<br />

Agave deserti AM 151<br />

Agave marmorata AM 103<br />

Agave salmiana Weak AM 103<br />

Agave univittata AM 417<br />

Yucca elata AM 137<br />

Yucca periculosa Weak AM 103<br />

Yucca valida AM 417<br />

Asparagaceae<br />

Asparagus acutifolius AM 368, 472<br />

Asparagus <strong>of</strong>fic<strong>in</strong>alis AM 192, 383, 260,<br />

261<br />

Ruscaceae<br />

Convallaria majalis AM + NM 260, 261<br />

Maianthemum bifolium AM + NM 260, 261<br />

Polygonatum multiflorum AM + NM 260, 261<br />

Polygonatum odoratum AM + NM 260, 261<br />

Polygonatum verticillatum AM + NM 260, 261<br />

Ruscus aculeatus AM 368, 260, 261<br />

Arecaceae<br />

Astrocaryum mexicanum AM 436<br />

Bactris gasipaes AM 135<br />

Caryota monostachya AM 655<br />

Cocos nucifera AM 326, 580<br />

Euterpe edulis AM 651<br />

Euterpe oleracea AM 130<br />

Serenoa repens AM 201<br />

Syagrus romanz<strong>of</strong>fiana Weak AM 651<br />

Wallichia mooreana NM 655<br />

Sparganiaceae<br />

Sparganium angustifolium NM 62<br />

Sparganium chlorocarpum AM 58<br />

Sparganium emersum NM 62<br />

Sparganium erectum NM 62<br />

AM 260, 261<br />

Sparganium eurycarpum Weak AM 626<br />

Typhaceae<br />

Typha angustifolia NM 62, 368<br />

Weak AM 557<br />

AM 566, 260, 261<br />

Typha latifolia NM 62<br />

Weak AM 557<br />

AM 140, 185, 599<br />

Typha × glauca Weak AM 557<br />

Bromeliaceae<br />

Aechmea stelligera NM 510<br />

Ananas comosus AM 44, 246<br />

Hechtia aff. podantha Weak AM 103<br />

Vriesea limae AM 510<br />

Juncaceae<br />

Juncus acutiflorus AM + NM 260, 261<br />

Juncus alp<strong>in</strong>us AM + NM 260, 261<br />

Juncus articulatus AM 260, 261<br />

Juncus biglumis NM 260, 261<br />

Juncus bufonius AM + NM 260, 261<br />

Juncus bulbosus NM 62, 260, 261<br />

Juncus dudleyi AM 599<br />

Juncus effuses NM 62<br />

AM 140<br />

AM + NM 260, 261<br />

Juncus filiformis Weak AM 194<br />

NM 260, 261<br />

Juncus gerardi AM + NM 260, 261


312<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Juncus <strong>in</strong>flexus AM 260, 261<br />

Juncus maritimus NM 368, 260, 261<br />

Juncus nodosus AM 599<br />

Juncus planifolius AM 326<br />

Juncus roemerianus AM 278<br />

Juncus scheuchzerioides AM 342<br />

NM 560<br />

Juncus squarrosus AM + NM 260, 261<br />

Juncus torreyi AM 599<br />

Juncus trifidus AM 260, 261<br />

Luzula campestris AM + NM 260, 261<br />

Luzula cr<strong>in</strong>ita var. cr<strong>in</strong>ita NM 342<br />

Luzula hawaiiensis AM 326<br />

Luzula luzuloides NM 260, 261<br />

Luzula pallescens NM 260, 261<br />

Luzula pilosa AM + NM 260, 261<br />

Luzula spicata AM 260, 261<br />

Luzula sylvatica NM 260, 261<br />

Cyperaceae<br />

Bequerelia cymosa AM 426<br />

Bulboschoneus maritimus AM 426<br />

Bulbostylis barbata Facultative AM 426<br />

Bulbostylis capillaris NM 326<br />

AM 149<br />

Facultative AM 426<br />

Bulbostylis cf. conifera AM 358<br />

Bulbostylis densa AM 426<br />

Bulbostylis paradoxa AM 358<br />

Bulbostylis puberula NM 426<br />

Carex acnescens NM 426<br />

Carex acuta NM 62, 260, 261<br />

Carex acutiformis NM 260, 261<br />

Carex albonigra NM 426<br />

Carex amphibola NM 402<br />

Carex annectens AM 402<br />

Carex aphylla NM 207<br />

Carex aquatilis NM 426<br />

Carex arenaria AM + NM 260, 261<br />

Carex atherodes NM 402<br />

Facultative AM 426<br />

Carex baccans AM 426<br />

Carex bicknellii AM 402<br />

Carex bigelowii NM 501, 594, 426<br />

Carex bl<strong>and</strong>a AM 402<br />

Carex boelckeiana NM 207<br />

Carex brevior AM 402<br />

Carex brizoides NM 426<br />

Carex brunnescens AM 194<br />

Carex buxbaumii AM 402<br />

NM 260, 261<br />

Carex caryophyllea NM 456, 260, 261<br />

Carex cephalophora AM 402<br />

Carex chordorrhiza NM 260, 261<br />

Carex crawei AM 402<br />

Carex cristatella AM 58, 402<br />

Carex curta NM 260, 261<br />

Carex davalliana AM 260, 261<br />

Carex digitata NM 260, 261<br />

Carex dioica NM 260, 261<br />

Carex distans NM 260, 261<br />

Carex disticha AM + NM 260, 261<br />

Carex divulsa AM 260, 261<br />

Carex ebenea NM 426<br />

Carex ech<strong>in</strong>ata NM 260, 261<br />

Carex elongata NM 260, 261<br />

Carex ericetorum NM 456, 260, 261<br />

Carex fillifolia NM 426<br />

Carex flacca NM 426<br />

AM + NM 260, 261<br />

Carex flava AM 140<br />

NM 426<br />

AM + NM 260, 261<br />

Carex fuscula AM 426<br />

Carex gayana NM 426<br />

Carex grannularis AM 402, 599<br />

Carex gravida AM 402<br />

Carex hallerana NM 472<br />

Carex hirta AM 456<br />

NM 260, 261<br />

Carex hostiana NM 260, 261<br />

Carex humilis NM 260, 261<br />

Carex hysteric<strong>in</strong>a NM 426<br />

Carex <strong>in</strong>terior NM 402<br />

Carex lachenalii NM 426, 260, 261<br />

Carex lanug<strong>in</strong>osa NM 599<br />

Carex lasiocarpa AM 58<br />

Weak AM 626<br />

Facultative AM 426<br />

NM 426, 260, 261<br />

Carex lepidocarpa NM 260, 261<br />

Carex limosa NM 260, 261<br />

Carex l<strong>in</strong>dleyana AM 426<br />

Carex lurida AM 58, 140<br />

Carex madoviana NM 426<br />

Carex maritime NM 426<br />

Carex membranacea NM 426<br />

Carex mertensii NM 584<br />

Carex meyenii AM 326<br />

Carex microchaeta NM 594<br />

Carex mis<strong>and</strong>ra NM 426<br />

Carex montana NM 260, 261<br />

Carex muricata NM 426<br />

AM + NM 260, 261<br />

Carex myosurus AM 426


313<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Carex nard<strong>in</strong>a NM 426<br />

Carex nigra AM 140, 194<br />

AM + NM 260, 261<br />

Carex otrubae NM 260, 261<br />

Carex oxy<strong>and</strong>ra NM 587<br />

Carex pallescens AM 194<br />

NM 260, 261<br />

Carex panacea AM 194<br />

Carex panicea AM + NM 260, 261<br />

Carex paniculata NM 260, 261<br />

Carex pellita NM 402<br />

Carex pendula NM 368, 260, 261<br />

Carex pensylvanica AM 402<br />

Carex pilulifera NM 260, 261<br />

Carex podocarpa NM 594<br />

Carex pulicaris NM 260, 261<br />

Carex remota AM + NM 260, 261<br />

Carex riparia NM 260, 261<br />

Carex rosea AM 402<br />

Carex rostrata NM 260, 261<br />

Carex scoparia AM 402<br />

NM 140<br />

Carex serot<strong>in</strong>a NM 260, 261<br />

Carex speciosa AM 426<br />

Carex sprengelii NM 402<br />

Carex stenophylla ssp. NM 426<br />

eleocharis<br />

Carex sterilis NM 426<br />

Carex stipata AM 140, 402<br />

Carex stricta NM 140, 402<br />

AM 626<br />

Facultative AM 426<br />

Carex aff. subantarticata NM 426<br />

Carex subspathecea NM 426<br />

Carex sylvatica NM 426, 260, 261<br />

Carex tenera NM 402<br />

Carex tetanica AM 402<br />

Carex tribuloides AM 58, 140<br />

Carex trichocarpa AM 599<br />

Carex trifida NM 342<br />

Carex urs<strong>in</strong>e NM 426<br />

Carex urticulata NM 426<br />

Carex vag<strong>in</strong>ata NM 503, 260, 261<br />

Carex vesicaria AM 626<br />

AM + NM 260, 261<br />

Carex vulp<strong>in</strong>a NM 260, 261<br />

Carex vulp<strong>in</strong>oidea AM 58, 140, 402<br />

Carex wahuensis AM 326<br />

NM 426<br />

Caustis dioica NM 426<br />

Caustis flexuosa AM 67<br />

Cladium amaicense AM 426<br />

Cladium jamaicense AM 297<br />

Cladium mariscus NM 368<br />

AM + NM 260, 261<br />

Cyathochaeta avenccea NM 426<br />

Cyperus arenarius AM 426<br />

Cyperus articulatus Weak AM 143<br />

Facultative AM 426<br />

Cyperus brevifolius AM 426<br />

Cyperus bulbosus NM 426<br />

Cyperus castaneous NM 426<br />

Cyperus clarkei AM 426<br />

Cyperus compressus Facultative AM 426<br />

Cyperus cyper<strong>in</strong>us AM 426<br />

Cyperus decompositus NM 426<br />

Cyperus difformis Facultative AM 426<br />

Cyperus distans Facultative AM 426<br />

Cyperus dubius AM 426<br />

Cyperus esculentus NM 426<br />

Cyperus exaltatus NM 426<br />

Cyperus flavescens AM 599<br />

Cyperus halpan Facultative AM 426<br />

NM 426<br />

Cyperus iria AM 424, 426<br />

Cyperus javanicus NM 426<br />

Cyperus kyll<strong>in</strong>ga Facultative AM 355, 426<br />

Cyperus laevigatus AM 426<br />

Cyperus ligularis AM 426<br />

Facultative AM 426<br />

Cyperus luzulae NM 426<br />

Cyperus microiria NM 643<br />

Cyperus niveus AM 343<br />

Cyperus nutans AM 426<br />

Cyperus odoratus AM 426<br />

Cyperus paniceus AM 426<br />

Cyperus pilosus AM 426<br />

Cyperus platyphyllus AM 426<br />

Cyperus pohlii NM 426<br />

Cyperus pygmaeus AM 426<br />

Cyperus rotundus NM 326<br />

AM 343, 424, 425<br />

Facultative AM 426<br />

Cyperus squarrosus AM 426<br />

Cyperus stoloniferous AM 426<br />

Cyperus strigosus AM 599<br />

NM 426<br />

Cyperus sur<strong>in</strong>amensis Facultative AM 426<br />

Cyperus tenuispica NM 426<br />

Cyperus triceps AM 426<br />

Eleocharis acutangula AM 426<br />

Eleocharis dulcis AM 426<br />

Eleocharis erythropoda NM 599<br />

Eleocharis geniculata AM 426<br />

NM 426<br />

Eleocharis multicaulis NM 260, 261


314<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Eleocharis ovata AM 140<br />

Eleocharis aff. pachycarpa NM 426<br />

Eleocharis palustris NM 62<br />

AM + NM 260, 261<br />

Eleocharis qu<strong>in</strong>queflora NM 260, 261<br />

Eleocharis scheuchezeri NM 426<br />

Eleocharis tenius NM 426<br />

Eleocharis triste NM 426<br />

Eleocharis uniglumis NM 260, 261<br />

Eleocharis vag<strong>in</strong>atum NM 426<br />

Eriophorum angustifolium AM + NM 260, 261<br />

Eriophorum latifolium NM 260, 261<br />

Eriophorum vag<strong>in</strong>atum AM + NM 260, 261<br />

Fimbristylis consangu<strong>in</strong>ea AM 426<br />

Fimbristylis cymosa NM 326, 355<br />

Fimbristylis eragrostis AM 426<br />

Fimbristylis falcata Facultative AM 426<br />

Fimbristylis miliacea Facultative AM 426<br />

Fimbristylis ovata Facultative AM 426<br />

Fimbristylis schoenoides NM 426<br />

Fimbristylis trachycarya NM 426<br />

Fimbristylis triflora NM 426<br />

Frimbristyllis complanata NM 149<br />

Fuirena ciliaris NM 426<br />

Gahnia gah<strong>in</strong>iformis NM 426<br />

Gahnia vitiensis AM 326<br />

Gahnia vitiensis<br />

AM 326<br />

ssp. kauaiensis<br />

Hypolytrum bullatum AM 426<br />

Hypolytrum pulchrum AM 149, 358<br />

Isolepis antartica NM 426<br />

Isolepis auckl<strong>and</strong>ica NM 342<br />

Isolepis nodosa AM 426<br />

Kobresia bellardii AM 426<br />

Kobresia myosuroides Facultative AM 426<br />

ECM 656<br />

Kobresia simpliciuscula NM 426, 260, 261<br />

Kyll<strong>in</strong>ga brevifolia NM 422, 426<br />

Kyll<strong>in</strong>ga bulbosa NM 426<br />

Kyll<strong>in</strong>ga nemoralis NM 426<br />

Lagenocarpus guianensis AM 358<br />

Lagenocarpus sphacelata NM 426<br />

Lepidosperma gracile AM 397<br />

Machaer<strong>in</strong>a augustifolia NM 326<br />

Machaer<strong>in</strong>a mariscoides AM 326<br />

Mariscus dubius NM 426<br />

Mariscus mariscoides AM 426<br />

ssp. meyenii<br />

Mariscus meyenianus AM 326<br />

Mariscus paniceus NM 426<br />

Mariscus squarrosus NM 426<br />

Mesomelaena pseudostygia NM 426<br />

Oreobolus furcatus AM 326<br />

Pleurostachys cephalotes Facultative AM 426<br />

Pycreus flavidus AM 426<br />

Pycreus polystachyos Facultative AM 426<br />

AM 326<br />

Pycreus pumilus AM 426<br />

Pycreus puncticulatus NM 426<br />

Rhynchospora barbata AM 149, 358<br />

Rhynchospora brasiliensis AM 358<br />

Rhynchospora cephalotes Facultative AM 426<br />

Rhynchospora ciliata NM 426<br />

Rhynchospora cormbosa AM 426<br />

Rhynchospora longisetis NM 426<br />

Rhynchospora pubera AM 426<br />

Rikliella squarrosa AM 426<br />

Schoenoplectus grossus NM 426<br />

Schoenoplectus juncoides NM 426<br />

Schoenoplectus<br />

NM 426<br />

senegalensis<br />

Schoenoplectus sup<strong>in</strong>us AM 426<br />

Schoenus ferrug<strong>in</strong>eus AM + NM 260, 261<br />

Schoenus nigricans AM + NM 260, 261<br />

Scirpus acutus AM 58, 626<br />

Scirpus atrovirens AM 58, 140, 599,<br />

626<br />

Scirpus cespitosus NM 426<br />

Scirpus cyper<strong>in</strong>us AM 58, 140<br />

Scirpus fluviatilis AM 426<br />

Scirpus holoschoenus NM 368<br />

Scirpus maritimus AM 626<br />

NM 260, 261<br />

Scirpus pendulus AM 599<br />

Scirpus aff. perpusillus NM 426<br />

Scirpus pungens AM 599<br />

Scirpus robustus AM 426<br />

Scirpus sylvaticus NM 260, 261<br />

Scirpus tabernaemontani AM 599<br />

Scirpus validus AM 58<br />

Scleria latifolia Facultative AM 426<br />

Scleria lithosperma AM 426<br />

Scleria melaleuca Facultative AM 426<br />

Tetraria capillaris AM 397<br />

Trichophorum alp<strong>in</strong>um NM 260, 261<br />

Trichophorum cespitosum AM + NM 260, 261<br />

Unc<strong>in</strong>ia richleriana NM 207<br />

Unc<strong>in</strong>ia unc<strong>in</strong>ata NM 326<br />

Restionaceae<br />

Alexgeorgea nitens AM 397<br />

Lyg<strong>in</strong>ia barbata AM 397<br />

Poaceae<br />

Aeluropus littoralis AM 620<br />

var. s<strong>in</strong>ensis<br />

Agropyron desertorum AM 183<br />

Agropyron repens AM 307


315<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Agropyron smithii AM 354<br />

Agropyron trachycaulum AM 132<br />

Agropyron tsukushiense AM 643<br />

var. pransiens<br />

Agropyron tsukushiense AM 294<br />

var. transiens<br />

Agrostis alba AM 140<br />

Agrostis can<strong>in</strong>a AM + NM 260, 261<br />

Agrostis capillaris AM 242<br />

AM + NM 260, 261<br />

Agrostis gigantea AM 260, 261<br />

Agrostis magellanica AM 560<br />

NM 342<br />

Agrostis palustris AM 126<br />

Agrostis scabra AM 95, 587<br />

Agrostis stolonifera AM 456, 467<br />

AM + NM 260, 261<br />

Agrostis stolonifera NM 307<br />

ssp. stolonifera<br />

Aira caryophyllea NM 207<br />

AM + NM 260, 261<br />

Aira praecox AM + NM 260, 261<br />

Alopecurus aequalis NM 260, 261<br />

Alopecurus geniculatus AM 260, 261<br />

Alopecurus myosuroides AM 260, 261<br />

Alopecurus pratensis AM 260, 261<br />

Ammocalamagrostis baltica AM + NM 260, 261<br />

Ammophila arenaria AM 331, 368<br />

AM + NM 260, 261<br />

Ammophila breviligulata AM 224, 225, 324,<br />

352<br />

Ampelodesmos<br />

AM 472<br />

mauritanicus<br />

Andropogon capillipes AM 415<br />

Andropogon gerardii Facultative AM 29<br />

AM 168, 263, 276,<br />

524<br />

Andropogon gerardii AM 88<br />

var. paucipilus<br />

Andropogon virg<strong>in</strong>icus AM 326, 415<br />

Anthoxanthum odoratum AM 194<br />

AM + NM 260, 261<br />

Apera spica-venti AM 260, 261<br />

Aristida adscensionis AM 479<br />

Aristida contorta Weak AM 438<br />

Aristida holathera NM 438<br />

Aristida longiseta AM 604<br />

Aristida mutabilis AM 567<br />

Aristida aff. romeriana AM 143<br />

Aristida stricta NM 30, 415<br />

Arrhenatherum elatius AM + NM 260, 261<br />

Avena barbata AM 472<br />

Avena fatua AM 260, 261<br />

Avena sativa AM 15<br />

AM + NM 260, 261<br />

Avena strigosa AM 260, 261<br />

Avenula pratensis AM 260, 261<br />

Avenula pubescens AM 260, 261<br />

Axonopus pru<strong>in</strong>osus AM 358<br />

Beckmannia syzigachne AM 294<br />

Bothriochloa pertusa AM 343<br />

Bouteloua eripoda AM 137<br />

Boutelous repens AM 143<br />

Brachiaria decumbens AM 150, 358<br />

Brachiaria humidicola AM 150, 358<br />

Brachypodium p<strong>in</strong>natum AM + NM 260, 261<br />

Brachypodium ramosum AM 472<br />

Brachypodium sylvaticum AM 260, 261<br />

Briza maxima AM 472, 260, 261<br />

Briza media AM + NM 260, 261<br />

Briza m<strong>in</strong>or AM 643, 260, 261<br />

Bromus erectus AM 260, 261<br />

Bromus hordeaceus AM 493<br />

AM + NM 260, 261<br />

Bromus <strong>in</strong>ermis AM 260, 261<br />

Bromus madritensis AM 646<br />

ssp. rubens<br />

Bromus sterilis NM 260, 261<br />

Bromus tectorum Facultative AM 237<br />

Calamagrostis canescens AM 260, 261<br />

Calamagrostis epigejos AM 307<br />

AM + NM 260, 261<br />

Calamagrostis stricta AM 260, 261<br />

Calamagrostis villosa AM 54, 366, 615<br />

Calamovilfa longifolia AM 88<br />

Catapodium rigidum AM 472<br />

Cenchrus ciliaris AM 20<br />

Cenchrus setigerus AM 567<br />

Chusquea culeou AM 207<br />

C<strong>in</strong>na arund<strong>in</strong>acea AM 140<br />

Corynephorus canescens AM 81<br />

AM + NM 260, 261<br />

Cymbopogon jwarancusa AM 567<br />

Cymbopogon w<strong>in</strong>terianus AM 327<br />

Cynodon dactylon AM 294, 260, 261<br />

Cynosurus cristatus AM 260, 261<br />

Dactylis glomerata AM 497<br />

AM + NM 260, 261<br />

Danthonia decumbens AM 194, 260, 261<br />

Dendrocalamus asper AM 608<br />

Dendrocalamus strictus AM 482<br />

Deschampsia antarctica Facultative AM 166<br />

NM 560<br />

Deschampsia caespitosa NM 342


316<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Deschampsia cespitosa AM 194, 293, 260,<br />

261<br />

Deschampsia chapmanii AM 342<br />

Deschampsia flexuosa AM 194, 270, 366,<br />

615, 260, 261<br />

Desmazeria rigida AM 260, 261<br />

Dichanthelium cynodon AM 326<br />

Dichanthelium<br />

AM 95<br />

lanug<strong>in</strong>osum<br />

Digitaria adscendens AM 294<br />

Digitaria ch<strong>in</strong>ensis AM 422<br />

Digitaria ciliaris Weak AM 129<br />

AM 643<br />

Digitaria eriantha AM 23<br />

Digitaria sangu<strong>in</strong>alis AM 260, 261<br />

Digitaria violascens AM 422<br />

Distichlis spicata AM 278<br />

Distichlis stricta AM 302<br />

Ech<strong>in</strong>ochloa crus-galli AM 140<br />

AM + NM 260, 261<br />

Ech<strong>in</strong>olaena <strong>in</strong>flexa AM 358<br />

Eleus<strong>in</strong>e coracana AM 576<br />

Eleus<strong>in</strong>e <strong>in</strong>dica AM 422<br />

Elymus canadensis AM 263, 274<br />

Elymus can<strong>in</strong>us AM 260, 261<br />

Elymus farctus AM + NM 260, 261<br />

Elymus pycnanthus AM + NM 260, 261<br />

Elymus repens AM 260, 261<br />

Enneapogon avenaceus AM 438<br />

Eragrostis dielsii Facultative AM 438<br />

Eragrostis ferrug<strong>in</strong>ea AM 643<br />

Eriachne aristidea Weak AM 438<br />

Festuca altissima NM 260, 261<br />

Festuca argent<strong>in</strong>a AM 207<br />

Festuca arund<strong>in</strong>acea AM 275, 260, 261<br />

Festuca baff<strong>in</strong>ensis AM 158<br />

Festuca brachyphylla AM 158<br />

Festuca brigant<strong>in</strong>a AM 235<br />

Festuca contracta NM 342<br />

Festuca erecta AM 560<br />

Festuca gigantea NM 260, 261<br />

Festuca hyperborea NM 158<br />

Festuca idahoensis AM 109, 371<br />

Festuca juncifolia AM 260, 261<br />

Festuca lemanii AM 260, 261<br />

Festuca ov<strong>in</strong>a AM 194, 456<br />

AM + NM 260, 261<br />

Festuca pallescens AM 207<br />

Festuca pratensis AM 194<br />

AM + NM 260, 261<br />

Festuca pumila AM 80<br />

Festuca rubra AM + ECM + NM 260, 261<br />

Festuca vivipara AM 260, 261<br />

Glyceria fluitans NM 260, 261<br />

Glyceria maxima NM 260, 261<br />

Glyceria plicata AM + NM 260, 261<br />

Heteropogon contortus AM 326, 343<br />

Hierochloe odorata AM 599, 260, 261<br />

Holcus lanatus AM 395, 586<br />

AM + NM 260, 261<br />

Holcus mollis AM 194, 260, 261<br />

Homolepsis aturensis AM 142<br />

Hordeum brachyantherum AM 293<br />

Hordeum comosum AM 207<br />

Hordeum distichon AM 260, 261<br />

Hordeum jubatum AM 302, 626<br />

Hordeum mur<strong>in</strong>um AM 260, 261<br />

Hordeum vulgare AM 119<br />

AM + NM 260, 261<br />

Imperata cyl<strong>in</strong>drica AM 422<br />

Ischaemum byronis AM 326<br />

Koeleria glauca NM 260, 261<br />

Koeleria macrantha AM 260, 261<br />

Koeleria pyramidata NM 274<br />

Koeleria vurilochensis NM 207<br />

Lagurus ovatus AM 260, 261<br />

Lasiurus s<strong>in</strong>dicus AM 567<br />

Leersia hex<strong>and</strong>ra AM 404<br />

Leersia oryzoides AM 58, 140<br />

NM 260, 261<br />

Leymus arenarius AM 240, 241<br />

NM 260, 261<br />

Lolium perenne AM 23, 140, 171,<br />

307<br />

Lolium perenne<br />

AM 260, 261<br />

ssp. multiflorum<br />

Lolium perenne<br />

AM 260, 261<br />

ssp. perenne<br />

Lolium temulentum AM + NM 260, 261<br />

Lygeum spartum AM 170<br />

Melica nutans AM + NM 260, 261<br />

Melica uniflora NM 260, 261<br />

Microstegium ciliatum AM 422<br />

Milium effusum AM + NM 260, 261<br />

Mol<strong>in</strong>ia caerulea AM 586, 260, 261<br />

Mulenbergia porteri AM 137<br />

Nardus stricta AM 194, 269, 260,<br />

261<br />

Nassella leucotricha AM 604<br />

Neyraudia reynaudiana AM 343<br />

Oryza sativa AM 536<br />

Oryzopsis hymenoides AM 11<br />

Palicourea rigida AM 358<br />

Panicum amarum AM 43


317<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Panicum<br />

AM 58<br />

cl<strong>and</strong>est<strong>in</strong>um<br />

Panicum hemitomon AM 404<br />

Panicum laxum AM 149<br />

Panicum maximum AM 20<br />

Panicum micranthum AM 358<br />

Panicum nephelophilum AM 326<br />

Panicum purpurascens AM 143<br />

Panicum virgatum AM 83, 134<br />

Weak AM 626<br />

Panicum virg<strong>in</strong>atum AM 193<br />

Paractaenum<br />

NM 438<br />

novae-holl<strong>and</strong>iae<br />

Parapholis <strong>in</strong>curva AM 260, 261<br />

Paspalidium flavidum AM 343<br />

Paspalum cf. car<strong>in</strong>atum AM 358<br />

Paspalum conjugatum AM 142<br />

Paspalum dilatatum AM 243<br />

Paspalum notatum AM 193, 295, 562<br />

Paspalum thunbergii AM 643<br />

Pennisetum alopecuroides AM 643<br />

Pennisetum glaucum AM 51, 567<br />

Pennisetum padicillatum AM 544<br />

Pennisetum parviflorum AM 545<br />

Pennisetum setaceum AM 326<br />

Phalaris arund<strong>in</strong>acea AM 58, 140<br />

NM 62<br />

AM + NM 260, 261<br />

Phleum alp<strong>in</strong>um AM 194, 260, 261<br />

Phleum arenarium NM 260, 261<br />

Phleum phleoides AM + NM 260, 261<br />

Phleum pratense AM 132, 194, 260,<br />

261<br />

Phragmites australis NM 62<br />

AM 140, 368<br />

AM + NM 260, 261<br />

Phragmites communis AM 620<br />

Piptatherum miliaceum AM 497<br />

Poa alp<strong>in</strong>a AM + NM 260, 261<br />

Poa angustifolia AM 307<br />

Poa annua AM 560, 643<br />

NM 342<br />

AM + NM 260, 261<br />

Poa arctica NM 594<br />

Poa compressa NM 307<br />

AM + NM 260, 261<br />

Poa cookie NM 560<br />

AM 342<br />

Poa flexuosa AM + NM 260, 261<br />

Poa foliosa NM 342<br />

Poa kerguelensis AM 560<br />

Poa lanug<strong>in</strong>osa AM 207<br />

Poa literosa NM 342<br />

Poa nemoralis AM + NM 260, 261<br />

Poa palustris AM + NM 260, 261<br />

Poa pratensis AM 194, 467, 626<br />

AM + NM 260, 261<br />

Poa trivialis AM + NM 260, 261<br />

Polypogon monspeliensis AM 260, 261<br />

Pucc<strong>in</strong>ellia distans AM + NM 260, 261<br />

Pucc<strong>in</strong>ellia macquariensis AM 342<br />

Pucc<strong>in</strong>ellia maritima AM + NM 260, 261<br />

Pucc<strong>in</strong>ellia nuttalliana AM 301<br />

Raddiella esembeckii AM 358<br />

Rhynchelytrum repens AM 355<br />

Saccharum <strong>of</strong>fic<strong>in</strong>arum AM 326, 489<br />

Saccharum spontaneum Weak AM 439<br />

Schizachyrium scoparium Facultative AM 29<br />

AM 117, 140<br />

Schizachyrium stoloniferum AM 415<br />

Secale cereale AM 512<br />

AM + NM 260, 261<br />

Sesleria albicans AM + NM 260, 261<br />

Setaria glauca AM 643<br />

Setaria pumila AM 260, 261<br />

Setaria verticillata AM 260, 261<br />

Setaria viridis AM 643<br />

AM + NM 260, 261<br />

Sorghastrum nutans AM 264<br />

Sorghum bicolor AM 171<br />

Sorghum halpense AM 193<br />

Sorghum sudanense AM 311<br />

Spart<strong>in</strong>a alterniflora NM 278<br />

Weak AM 391<br />

Spart<strong>in</strong>a anglica NM 260, 261<br />

Spart<strong>in</strong>a cynosuroides AM 278, 391<br />

Spart<strong>in</strong>a gracilis AM 302<br />

Spart<strong>in</strong>a patens AM 97, 278, 324<br />

Spart<strong>in</strong>a pect<strong>in</strong>ata AM 626<br />

Spart<strong>in</strong>a × townsendii NM 260, 261<br />

Sphenopholis obtusa AM 625<br />

Sporobolus heterolepis AM 168<br />

Sporobolus virg<strong>in</strong>icus AM 144, 326<br />

Sporobolus wrightii AM 491<br />

Stipa tenacissima AM 497<br />

Themeda tri<strong>and</strong>ra AM 23<br />

Thysanolaena maxima AM 422<br />

Trachypogon gou<strong>in</strong>ii AM 144<br />

Trachypogon plumosus AM 149, 353, 358<br />

Triodia basedowii Weak AM 438<br />

Tripogon filiformis AM 343<br />

Triraphis mollis Weak AM 438<br />

Trisetum flavescens AM 207, 260, 261<br />

Triticum aestivum AM 15<br />

Triticum durum AM 10<br />

Uniola paniculata AM 563


318<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Vulpia ciliata ssp. ambigua AM 110<br />

Zea mays AM 123<br />

Zoysia japonica AM 326<br />

Commel<strong>in</strong>aceae<br />

Amischotolype hispida AM 655<br />

Commel<strong>in</strong>a communis AM 294<br />

NM 643<br />

Commel<strong>in</strong>a aff. erecta AM 143<br />

Musaceae<br />

Musa acum<strong>in</strong>ata AM 163<br />

Heliconiaceae<br />

Heliconia psittacorum AM 510<br />

Cannaceae<br />

Canna cocc<strong>in</strong>ea NM 510<br />

Z<strong>in</strong>giberaceae<br />

Alp<strong>in</strong>ia conchigera AM 655<br />

Amomum villosum AM 422<br />

Costus speciosus AM 422<br />

Paramomum petaloideum AM 655<br />

Renealmia guianensis AM 510<br />

Costaceae<br />

Costus scaber AM 510<br />

Costus spiralis var. spiralis AM 510<br />

Myristicaceae<br />

Horsfieldia p<strong>and</strong>urifolia AM 655<br />

Horsfieldia tetratepala AM 422<br />

Myristica yunnanensis AM 655<br />

Pycnanthus angolensis AM 445<br />

Staudtia kamerunensis AM 445<br />

Magnoliaceae<br />

Liriodendron tulipifera AM 362, 470<br />

Magnolia henryi AM 422, 655<br />

Talauma ovata NM 548<br />

Annonaceae<br />

Annona cherimola AM 42<br />

Enantia chlorantha AM 445<br />

Goniothalamus griffithii AM 422, 655<br />

Hexalobus crispiflorus AM 445<br />

Mitrephora calcarea AM 655<br />

Pseuduvaria <strong>in</strong>doch<strong>in</strong>ensis NM 655<br />

Lauraceae<br />

Beilschmiedia pendula AM 356, 357<br />

Cryptocarya angulata AM 222<br />

Cryptocarya mack<strong>in</strong>noniana AM 222<br />

Cryptocarya yunnanensis AM 422<br />

Laurus nobilis AM 368, 603<br />

L<strong>in</strong>dera benzo<strong>in</strong> AM 140<br />

Litsea dileniifolia AM 655<br />

Litsea liyuy<strong>in</strong>gi AM 655<br />

Nect<strong>and</strong>ra rigida AM 31<br />

Ocotea <strong>in</strong>decora AM 651<br />

Ocotea puberula AM 651<br />

Persea americana AM 41, 250, 326,<br />

609<br />

Phoebe lanceolata AM 422<br />

Aristolochiaceae<br />

Asarum europaeum AM + NM 260, 261<br />

Piperaceae<br />

Peperomia hesperomannii AM 326<br />

Peperomia membranacea AM 326<br />

Piper longum AM 422, 655<br />

Piper nigrum AM 578<br />

Piper sarmentosum AM 422<br />

Piper sp. NM 422<br />

Papaveraceae<br />

Chelidonium majus NM 260, 261<br />

Macleaya cordata AM 343<br />

Papaver rhoeas AM + NM 260, 261<br />

Papaver somniferum NM 260, 261<br />

Menispermaceae<br />

Cocculus trilobus AM 326<br />

Berberidaceae<br />

Berberis buxifolia AM 207<br />

Berberis darw<strong>in</strong>ii NM 207<br />

Berberis vulgaris AM 260, 261<br />

Mahonia aquifolium AM 260, 261<br />

Podophyllum peltatum AM 410, 621<br />

Ranunculaceae<br />

Aconitum delph<strong>in</strong>ifolium AM 594<br />

Aconitum napellus AM + NM 260, 261<br />

Actea spicata AM + NM 260, 261<br />

Anemone nemorosa AM + NM 260, 261<br />

Anemone ranunculoides AM 260, 261<br />

Anemone vulgaris AM 260, 261<br />

Batrachium circ<strong>in</strong>atum NM 62<br />

Batrachium peltatum NM 62<br />

Caltha palustris NM 62<br />

AM + NM 260, 261<br />

Clematis stans AM 636<br />

Clematis vitalba AM 368<br />

AM + ECM 260, 261<br />

Consolida ambigua AM 260, 261<br />

Corydalis lutea NM 260, 261<br />

Corydalis solida NM 260, 261<br />

Fumaria <strong>of</strong>fic<strong>in</strong>alis AM + NM 260, 261<br />

Helleborus foetidus AM 260, 261<br />

Myosurus m<strong>in</strong>imus AM 260, 261<br />

Pulsatilla patens AM 408<br />

Pulsatilla pratensis AM 408<br />

Pulsatilla vulgaris AM + NM 260, 261<br />

Ranunculus acris AM 194, 456, 586,<br />

260, 261<br />

Ranunculus acris AM 503<br />

ssp. pumilus<br />

Ranunculus adoneus AM 416, 519


319<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Ranunculus auricomus AM 586<br />

AM + NM 260, 261<br />

Ranunculus biternatus AM 560<br />

Ranunculus bulbosus AM 456, 260, 261<br />

Ranunculus crassipes AM 342<br />

Ranunculus ficaria AM + NM 260, 261<br />

Ranunculus flammula AM 62<br />

AM + NM 260, 261<br />

Ranunculus fluitans NM 260, 261<br />

Ranunculus l<strong>in</strong>gua AM + NM 260, 261<br />

Ranunculus nemorosus AM 586<br />

Ranunculus paludosus AM 260, 261<br />

Ranunculus repens AM + NM 260, 261<br />

Ranunculus reptans × AM 260, 261<br />

flammula<br />

Ranunculus sardous AM 260, 261<br />

Ranunculus sceleratus AM + NM 260, 261<br />

Thalictrum m<strong>in</strong>us AM 260, 261<br />

Trollius europaeus AM 194, 503, 260,<br />

261<br />

Proteaceae<br />

Banksia aricifolia Weak AM 454<br />

Conospermum longifolium AM 67<br />

Conospermum taxifolium AM 67<br />

Lomatia hirsute NM 207<br />

Grevillea robusta NM 326<br />

Telopea speciosissima AM 67<br />

Buxaceae<br />

Buxus sempervirens AM 260, 261<br />

Gunneraceae<br />

Gunnera petaloidea AM 326<br />

Dilleniaceae<br />

Hibbertia serpyllifolia AM 67<br />

Droseraceae<br />

Drosera anglica NM 326, 260, 261<br />

Drosera <strong>in</strong>termedia AM 212<br />

NM 260, 261<br />

Drosera rotundifolia AM 140<br />

AM + NM 260, 261<br />

Frankeniaceae<br />

Frankenia laevis NM 260, 261<br />

Frankenia plicata Weak AM 438<br />

Tamaricaceae<br />

Tamarix ch<strong>in</strong>ensis AM 620<br />

Tamarix gallica AM 368<br />

Plumbag<strong>in</strong>aceae<br />

Armeria maritime AM 277<br />

AM + NM 260, 261<br />

Armeria maritima AM 456<br />

ssp. halleri<br />

Limonium vulgare AM + NM 260, 261<br />

Polygonaceae<br />

Bistorta vivipara AM 194<br />

Coccoloba uvifera ECM 326<br />

Coccoloba warm<strong>in</strong>gii AM 31<br />

Fagopyrum esculentum NM 260, 261<br />

Fallopia convolvulus NM 260, 261<br />

Oxyria digyna NM 260, 261<br />

Polygonum amphibium Facultative AM 62, 626<br />

NM 260, 261<br />

Polygonum aviculare NM 307<br />

AM + NM 260, 261<br />

Polygonum bistorta NM 594<br />

AM 260, 261<br />

Polygonum capitatum ECM + weak AM 326<br />

Polygonum cespitosum AM 140<br />

Polygonum cuspidatum AM 636<br />

NM 643<br />

Polygonum hydropiper NM 260, 261<br />

Polygonum lapathifolium NM 260, 261<br />

Polygonum lapathifolium NM 307<br />

ssp. pallidum<br />

Polygonum longisetum NM 643<br />

Polygonum maritimum NM 260, 261<br />

Polygonum mite NM 260, 261<br />

Polygonum pesicaria Weak AM 626<br />

AM + NM 260, 261<br />

Polygonum statice AM 343<br />

Polygonum viviparum ECM 594<br />

AM + ECM 260, 261<br />

Polygonum weyrichii ECM 587<br />

Polygonum weyrichii NM 636<br />

var. alp<strong>in</strong>um<br />

Rumex acetosa AM 194, 294, 456<br />

AM + NM 260, 261<br />

Rumex acetosella NM 207, 456<br />

Rumex acetosella agg. NM 260, 261<br />

Rumex alp<strong>in</strong>us AM + NM 260, 261<br />

Rumex altissimus AM 140<br />

Rumex conglomeratus NM 260, 261<br />

Rumex crispus NM 307<br />

AM + NM 260, 261<br />

Rumex hastatus AM 343<br />

Rumex hydrolapathum NM 62<br />

Rumex japonicus NM 643<br />

Rumex longifolius Weak AM 194<br />

Rumex obtusifolius AM + NM 260, 261<br />

Rumex palustris NM 260, 261<br />

Rumex scutatus NM 260, 261<br />

Ruprechtia laxiflora NM 651<br />

Caryophyllaceae<br />

Agrostemma githago NM 260, 261<br />

Arenaria serpyllifolia NM 260, 261<br />

Cerastium alp<strong>in</strong>um NM 260, 261<br />

Cerastium arcticum NM 260, 261


320<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Cerastium arvense AM 456<br />

NM 260, 261<br />

Cerastium cerastoides NM 260, 261<br />

Cerastium fontanum AM 194<br />

NM 456<br />

Cerastium fontanum AM 342<br />

ssp. fontanum<br />

Cerastium fontanum AM + NM 260, 261<br />

ssp. glabrescens<br />

Cerastium glomeratum NM 560<br />

Cerastium holosteoides NM 643<br />

var. hallaisanense<br />

Cerastium semidec<strong>and</strong>rum NM 260, 261<br />

Colobanthus apetalus AM 342<br />

var. alp<strong>in</strong>us<br />

Colobanthus kerguelensis NM 560<br />

Colobanthus muscoides NM 342<br />

Dianthus carthusianorum AM 456<br />

NM 260, 261<br />

Dianthus caryophyllus NM 554<br />

Dianthus deltoides NM 260, 261<br />

Dianthus gratianopolitanus NM 260, 261<br />

Gypsophila fastigiata NM 456<br />

Honkenya peploides NM 260, 261<br />

Lychnis flos-cuculi AM + NM 260, 261<br />

Lychnis viscaria NM 260, 261<br />

M<strong>in</strong>uartia hybrida AM 260, 261<br />

M<strong>in</strong>uartia verna NM 260, 261<br />

Moehr<strong>in</strong>gia tr<strong>in</strong>ervia NM 260, 261<br />

Myosoton aquaticum NM 260, 261<br />

Polycarpaea corymbosa AM 336<br />

Sag<strong>in</strong>a apetala NM 260, 261<br />

Sag<strong>in</strong>a procumbens NM 260, 261<br />

Sag<strong>in</strong>a subulata NM 260, 261<br />

Saponaria <strong>of</strong>fic<strong>in</strong>alis NM 260, 261<br />

Scleranthus annuus NM 260, 261<br />

Silene acaulis AM 594<br />

AM + ECM + NM 260, 261<br />

Silene alba NM 260, 261<br />

Silene colorata<br />

AM 368<br />

ssp. canescens<br />

Silene dioica Weak AM 194<br />

NM 260, 261<br />

Silene maritima NM 260, 261<br />

Silene nutans NM 260, 261<br />

Silene otites AM 260, 261<br />

Silene vulgaris NM 456, 260, 261<br />

Schiedea spergul<strong>in</strong>a AM 326<br />

Spergula arvensis AM + NM 260, 261<br />

Spergularia mar<strong>in</strong>a AM or NM 260, 261<br />

Spergularia media AM + NM 260, 261<br />

Stellaria als<strong>in</strong>e NM 260, 261<br />

Stellaria gram<strong>in</strong>ea NM 260, 261<br />

Stellaria holostea AM + NM 260, 261<br />

Stellaria media AM 294<br />

AM + NM 260, 261<br />

Stellaria media ssp. media AM 342<br />

Stellaria nemorum AM + NM 260, 261<br />

Stellaria pallida AM + NM 260, 261<br />

Stellaria palustris NM 260, 261<br />

Stellaria parviflora NM 342<br />

Amaranthaceae<br />

Achyranthes aspera NM 422<br />

AM 343<br />

Achyranthes fauriei NM 643<br />

Achyranthes splendens NM 326<br />

Amaranthus caudatus AM 33<br />

Amaranthus lividus AM 294<br />

Amaranthus retr<strong>of</strong>lexus NM 260, 261<br />

Amaranthus sp<strong>in</strong>osus NM 422<br />

AM 343<br />

Amaranthus tricolor AM 33<br />

Amaranthus viridis AM 343<br />

Atriplex barclayana Weak AM 112<br />

Atriplex canescens AM 57<br />

Atriplex glabriuscula NM 260, 261<br />

Atriplex halimus NM 368<br />

Atriplex hortensis NM 260, 261<br />

Atriplex julacea AM 543<br />

Atriplex limbata NM 438<br />

Atriplex littoralis AM 260, 261<br />

Atriplex patula AM 260, 261<br />

Atriplex prostrata NM 260, 261<br />

Atriplex semibaccata NM 326<br />

Beta vulgaris AM 260, 261<br />

Celosia cristata AM 33<br />

Chenopodium album NM 307<br />

AM + NM 260, 261<br />

Chenopodium<br />

AM 343<br />

ambrosioides<br />

Chenopodium bonushenricus<br />

NM 260, 261<br />

Chenopodium glaucum NM 260, 261<br />

Chenopodium murale NM 326<br />

Chenopodium rubrum NM 260, 261<br />

Enchylaena tomentosa NM 438<br />

Gomphrena globosa AM 33<br />

Halimione portulacoides AM + NM 260, 261<br />

Nototrichium s<strong>and</strong>wicense NM 326<br />

Ptilotus latifolius NM 438<br />

Ptilotus obovatus var. obovatus<br />

NM 438<br />

Ptilotus sessilifolius NM 438<br />

Salicornia europaea AM 277<br />

AM + NM 260, 261


321<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Salsola kali NM 19, 300, 260,<br />

261<br />

AM + NM 438<br />

Sclerolaena diacantha AM 438<br />

Sclerolaena holtiana NM 438<br />

Suaeda glauca AM 620<br />

Suaeda maritima AM 533<br />

AM + NM 260, 261<br />

Suaeda vera AM + NM 260, 261<br />

Aizoaceae<br />

Cheredospsis purpurea NM 417<br />

Delosperma herbium Falcutative AM 417<br />

Sesuvium portulacastrum NM 326<br />

AM 143<br />

Tetragonia tetragonioides AM 326<br />

Phytolaccaceae<br />

Stegnosperma halimifolia AM 112<br />

Nyctag<strong>in</strong>aceae<br />

Abronia maritima Falcutative AM 543<br />

Abronia umbellata AM 543<br />

Boerhavia repens NM 326<br />

Bouga<strong>in</strong>villea spectabilis NM 326, 651<br />

Mirabilis jalapa NM 326<br />

Neea sp. ECM 656<br />

Pisonia sp. ECM 656<br />

Pisonia umbellifera NM 326<br />

Cactaceae<br />

Chamacereus sylvestris NM 417<br />

Cochemia poselgeri AM 112<br />

Coryphanta radians Weak AM 103<br />

Escontria chiotilla Weak AM 103<br />

Ferocactus acanthodes AM 151<br />

Ferocactus flavovirens Weak AM 103<br />

Ferocactus latisp<strong>in</strong>us Weak AM 103<br />

Ferocactus pen<strong>in</strong>sulae AM 112<br />

Lemaireocereus thurberi Weak AM 112<br />

Lophocereus schottii AM 112<br />

Machaerocereus gummosus Weak AM 112<br />

Mammilaria carnea Weak AM 103<br />

Mammilaria dioica Weak AM 112<br />

Mamillaria elongata NM 417<br />

Myrtillocactus<br />

Weak AM 103<br />

geometrizans<br />

Neobuxbaumia tetetzo Weak AM 103<br />

Nopalea karw<strong>in</strong>skiana AM 20<br />

Opuntia cholla AM 112<br />

Opuntia excelsa AM 20<br />

Opuntia ficus-<strong>in</strong>dica AM 151<br />

Opuntia l<strong>in</strong>dsayi AM 112<br />

Opuntia pilifera AM 103<br />

Opuntia puberula AM 20<br />

Opuntia streptacantha AM 103<br />

Opuntia stricta var. dillenii AM 143<br />

Opuntia tuna NM 417<br />

Pachycereus<br />

AM 494<br />

pect<strong>in</strong>-aborig<strong>in</strong>um<br />

Pachycereus pr<strong>in</strong>glei Weak AM 112<br />

Selenicereus macdonaldiae AM 417<br />

Stenocereus queretaroensis AM 463, 464<br />

Stenocereus stellatus Weak AM 103<br />

Portulacaceae<br />

Lyallia kerguelensis NM 560<br />

Montia fontana<br />

NM 342<br />

ssp. fontana<br />

Montia perfoliata NM 207<br />

Montia sibirica AM 260, 261<br />

Portulaca <strong>in</strong>traterranea NM 438<br />

Portulaca lutea NM 326<br />

Portulaca oleracea AM + NM 260, 261<br />

Portulaca sclerocarpa NM 326<br />

Olacaceae<br />

Coula edulis AM 445<br />

Ongokea gore AM 445<br />

Strombosis gr<strong>and</strong>ifolia AM 445<br />

Loranthaceae<br />

Viscum album NM 260, 261<br />

Santalaceae<br />

Santalum ellipticum NM 326<br />

Santalum paniculatum AM 326<br />

Thesium alp<strong>in</strong>um NM 456<br />

Thesium humifusum NM 260, 261<br />

Loasaceae<br />

Caiophora sylvestris NM 207<br />

Loasa berghii NM 207<br />

Cornaceae<br />

Cornus sangu<strong>in</strong>ea AM + NM 260, 261<br />

Balsam<strong>in</strong>aceae<br />

Impatiens capensis AM 140<br />

Impatiens gl<strong>and</strong>ulifera AM + NM 260, 261<br />

Impatiens noli-tangere AM + NM 260, 261<br />

Impatiens parviflora AM + NM 260, 261<br />

Impatiens walleriana AM 322<br />

Tetrameristaceae<br />

Tetramerista glabra AM 568<br />

Polemoniaceae<br />

Polemonium caeruleum AM 260, 261<br />

Fouquieriaceae<br />

Fouquieria digueti AM 112<br />

Theaceae<br />

Pyrenaria cheliensis AM 422<br />

Ebenaceae<br />

Diospyros nigrocartex AM 422, 655<br />

Theophrastaceae<br />

Jacqu<strong>in</strong>ia pungens AM 20<br />

Primulaceae<br />

Anagallis arvensis AM 472, 260, 261


322<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Anagallis tenella AM 260, 261<br />

Asterol<strong>in</strong>um stellatum AM 472<br />

Cyclamen hederifolium AM 260, 261<br />

Glaux maritima AM 260, 261<br />

Hottonia palustris AM + NM 260, 261<br />

Lysimachia japonica AM 643<br />

Lysimachia nemorum AM + NM 260, 261<br />

Lysimachia nummularia AM + NM 260, 261<br />

Lysimachia terrestris AM 140<br />

AM + NM 260, 261<br />

Lysimachia thyrsiflora NM 62<br />

AM + NM 260, 261<br />

Lysimachia vulgaris AM 368<br />

AM + NM 260, 261<br />

Primula elatior AM 260, 261<br />

Primula far<strong>in</strong>osa AM 260, 261<br />

Primula veris AM + NM 260, 261<br />

Primula vulgaris AM 260, 261<br />

Samolus valer<strong>and</strong>i AM 368, 260, 261<br />

Trientalis europaea AM 501<br />

AM + NM 260, 261<br />

Myrs<strong>in</strong>aceae<br />

Ardisia crenata AM 87<br />

Ardisia tenera AM 422, 655<br />

Measa <strong>in</strong>dica AM 422<br />

Myrs<strong>in</strong>e alyxifolia AM 326<br />

Rapanea ferrug<strong>in</strong>ea AM 31<br />

Styracaceae<br />

Strich<strong>in</strong>us brasiliensis AM 651<br />

Diapensiaceae<br />

Diapensia lapponica ERM 260, 261<br />

Lecythidaceae<br />

Barr<strong>in</strong>gtonia macrostachya AM 655<br />

Barr<strong>in</strong>gtonia racemosa AM 655<br />

Car<strong>in</strong>iana estrellensis AM 651<br />

Sapotaceae<br />

An<strong>in</strong>geria adolfi-friedericii AM 637, 638<br />

An<strong>in</strong>geria robusta AM 445<br />

Argania sp<strong>in</strong>osa AM 434<br />

Autranella congolensis AM 445<br />

Baillonella toxisperma AM 445<br />

Gambeya africana AM 445<br />

Omphalocarpum procerum AM 445<br />

Palaquium gutta AM 568<br />

Act<strong>in</strong>idiaceae<br />

Act<strong>in</strong>idia deliciosa AM 523<br />

Clethraceae<br />

Clethra barb<strong>in</strong>ervis AM 335<br />

Ericaceae<br />

Andromeda polifolia ERM 260, 261<br />

Arbutus menziesii ABM 374<br />

ECM 375<br />

Arbutus unedo ABM 200, 238, 421,<br />

368, 472, 260,<br />

261<br />

Arctostaphylos alp<strong>in</strong>us ABM 594<br />

ERM 260, 261<br />

Arctostaphylos uva-ursi ABM 259, 507<br />

M(endo) + ERM + 260, 261<br />

ABM + ECM +<br />

EEM<br />

Calluna vulgaris ERM 72, 238, 299,<br />

260, 261<br />

Cassiope tetragona ERM 594<br />

Cavendishia capitulata ERM 474<br />

Cavendishia melastomoides ERM 474<br />

Daboecia cantabrica ERM 260, 261<br />

Disterigma humboldtii ERM 474<br />

Empetrum nigrum ERM 594, 260, 261<br />

Erica arborea ERM 368<br />

Erica c<strong>in</strong>erea ERM 99, 260, 261<br />

Erica erigena ERM 260, 261<br />

Erica mackaiana ERM 260, 261<br />

Erica multiflora ERM 472<br />

Erica tetralix ERM 260, 261<br />

Erica vagans ERM 260, 261<br />

Gaultheria erecta ERM 474<br />

Gaultheria procumbens ERM 238<br />

Gaultheria shallon ERM 22, 639<br />

Gonocalyx costaricense ERM 474<br />

Kalmia latifolia ERM 238<br />

Ledum palustre ERM 260, 261<br />

Ledum palustre<br />

ERM 594<br />

ssp. decumbens<br />

Ledum palustre<br />

ERM 594<br />

ssp. groenl<strong>and</strong>icum<br />

Leucopogon parviflorus ERM 401<br />

Leucothoe fontanesiana ERM 238<br />

Loiseleuria procumbens ERM 594, 260, 261<br />

Oxydendrum arboreum ERM 238<br />

Pernettya mucronata ERM 207<br />

Phyllodoce caerulea ERM 260, 261<br />

Pieris floribunda ERM 238, 555<br />

Rhododendron<br />

ERM 154<br />

brachycarpum<br />

Rhododendron<br />

ERM 238<br />

calendulaceum<br />

Rhododendron<br />

ERM 238<br />

carol<strong>in</strong>ianum<br />

Rhododendron catawbiense ERM 238<br />

Rhododendron maximum ERM 238<br />

Rhododendron<br />

ERM 238<br />

mucronulatum<br />

Rhododendron obtusum ERM 601


323<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Rhododendron ponticum ERM 260, 261<br />

Sphyospermum buxifolium ERM 474<br />

Sphyospermum cordifolium ERM 474<br />

Vacc<strong>in</strong>ium angustifolium ERM 157<br />

Vacc<strong>in</strong>ium calyc<strong>in</strong>um ERM + AM 325, 326<br />

Vacc<strong>in</strong>ium corymbosum ERM 238, 645<br />

Vacc<strong>in</strong>ium dentatum ERM + AM 325, 326<br />

Vacc<strong>in</strong>ium macrocarpon ERM 99, 238, 260,<br />

261<br />

Vacc<strong>in</strong>ium myrtillus ERM 72, 260, 261<br />

Vacc<strong>in</strong>ium oxycoccos ERM 260, 261<br />

Vacc<strong>in</strong>ium reticulatum ERM + weak AM 326<br />

ERM + AM 325<br />

Vacc<strong>in</strong>ium ulig<strong>in</strong>osum ERM 594, 260, 261<br />

Vacc<strong>in</strong>ium vitis-idaea ERM 594, 260, 261<br />

Woollsia pungens ERM 401<br />

Ericaceae “Pyrolaceae”<br />

Moneses uniflora EEM + M(endo) 260, 261<br />

Orthilia secunda EEM + M(endo) 260, 261<br />

Pyrola media M(endo) 260, 261<br />

Pyrola m<strong>in</strong>or EEM + M(endo) 260, 261<br />

Pyrola rotundifolia EEM + M(endo) 260, 261<br />

Ericaceae (Monotropoideae)<br />

Monotropa hypopitys MTM 260, 261<br />

Monotropa uniflora MTM 647<br />

Monotropastrum humile MTM 384<br />

Sarcodes sangu<strong>in</strong>ea ERM + MTM 332<br />

Ericaceae (Epacridoideae)<br />

Astroloma conostephioides ERM 393<br />

Astroloma humifusum ERM 393<br />

Astroloma p<strong>in</strong>ifolium ERM 393, 394<br />

Brachyloma daphnoides AM 67<br />

ERM 393<br />

Epacris impressa ERM 393, 394<br />

Epacris impressa ERM 393<br />

var. gr<strong>and</strong>iflora<br />

Epacris microphylla AM 67<br />

ERM 128<br />

Leucopogon ericoides ERM 393<br />

Leucopogon juniper<strong>in</strong>us AM 67<br />

Leucopogon parviflorus ERM 393, 556<br />

Lys<strong>in</strong>ema ciliatum ERM 36<br />

Styphelia adscendens ERM 393<br />

Styphelia tameiameiae ERM + AM 325, 326<br />

Woollsia pungens ERM 127, 312<br />

Icac<strong>in</strong>aceae<br />

Pittosporopsis kerrii AM 422<br />

Borag<strong>in</strong>aceae<br />

Arnebia hispidisima AM 567<br />

Borago <strong>of</strong>fic<strong>in</strong>alis NM 260, 261<br />

Bourreria sonorae AM 112<br />

Cerastium arvense NM 207<br />

Cordia alliodora AM 20<br />

Cordia curassavica Weak AM 103<br />

Cordia ecalyculata AM 651<br />

Cordia trichotoma AM 651<br />

Cynoglossum creticum AM 207<br />

Cynoglossum lanceolatum AM 343<br />

Echium vulgare AM 260, 261<br />

Heliotropium anomalum AM 326<br />

Heliotropium curassavicum AM 326<br />

Heliotropium sp. AM 567<br />

Lithospermum arvense NM 260, 261<br />

Lithospermum <strong>of</strong>fic<strong>in</strong>ale NM 260, 261<br />

Lithospermum<br />

AM 260, 261<br />

purpurocaeruleum<br />

Myosotis alpestris AM + NM 260, 261<br />

Myosotis arvensis NM 260, 261<br />

Myosotis decumbens Facultative AM 194<br />

Myosotis discolor AM 260, 261<br />

Myosotis laxa<br />

AM 260, 261<br />

ssp. caespitosa<br />

Myosotis palustris Facultative AM 62<br />

Myosotis ramosissima AM + NM 260, 261<br />

Myosotis scorpioides AM + NM 260, 261<br />

Myosotis sylvatica AM + NM 260, 261<br />

Omphalalappula concava NM 438<br />

Plagiobothrys figuratus AM 293<br />

Pulmonaria <strong>of</strong>fic<strong>in</strong>alis AM + NM 260, 261<br />

Silene <strong>and</strong>icola NM 207<br />

Stellaria gram<strong>in</strong>ea AM 194<br />

Stellaria media AM 207<br />

Symphytum <strong>of</strong>fic<strong>in</strong>ale AM 260, 261<br />

Symphytum tuberosum AM + NM 260, 261<br />

Tournefortia argentea AM 326<br />

Trichodesma zeylanicum AM 438<br />

Rubiaceae<br />

Asperula cynanchica AM 260, 261<br />

Borreria articularis AM 336<br />

Borreria pusilla AM 336<br />

Canthium parvifoliam AM 422<br />

Cephalanthus occidentalis AM 140<br />

Chesalia curviflora AM 422, 655<br />

C<strong>of</strong>fea arabica<br />

AM 602<br />

cv. guatemala<br />

Coprosma ernodeoides AM 326<br />

Coprosma kauensis AM 326<br />

Coprosma perpusilla NM 342<br />

ssp. subantarctica<br />

Declieuxia fruticosa AM 149<br />

Duperrea pavettaefolia AM 655<br />

Galium album AM 194, 260, 261<br />

Galium antarcticum AM 560<br />

Galium apar<strong>in</strong>e NM 207<br />

AM + NM 260, 261<br />

Galium boreale AM 260, 261


324<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Galium cruciata AM 260, 261<br />

Galium mollugo AM 456<br />

AM + NM 260, 261<br />

Galium odoratum AM + NM 260, 261<br />

Galium palustre AM + NM 260, 261<br />

Galium saxatile AM + NM 260, 261<br />

Galium sp. AM 140<br />

Galium ulig<strong>in</strong>osum NM 260, 261<br />

Galium verum AM 260, 261<br />

Geophila herbacea AM 422, 655<br />

Hedyotis costata AM 422<br />

Hedyotis elatior AM 326<br />

Hedyotis foggiana AM 326<br />

Hedyotis term<strong>in</strong>alis AM 326<br />

Lasianthus hookeri AM 422<br />

Lasianthus sikkimensis AM 655<br />

Lasianthus verticillatus AM 655<br />

Metad<strong>in</strong>a trichotoma AM 655<br />

Mitrag<strong>in</strong>a ciliata AM 445<br />

Mor<strong>in</strong>da lucida AM 422<br />

Mycetia hirta AM 655<br />

Nauclea diederrichii AM 445<br />

Neonauclea tsaiana AM 655<br />

Nertera granadensis AM 326<br />

Oldenl<strong>and</strong>ia aspera AM 336<br />

Ophiorrhiza<br />

AM 422<br />

austro-yunnanensis<br />

Paederia sc<strong>and</strong>ens AM 643<br />

Pausynistalia johimbe AM 445<br />

Prismatomeria tetr<strong>and</strong>ra AM 422<br />

Psychotria calocarpa AM 655<br />

Psychotria henryi AM 422<br />

Psychotria siamica NM 655<br />

Psychotria sp. AM 326<br />

R<strong>and</strong>ia ruglosa AM 315<br />

Relbuneum hypocarpium AM 207<br />

Relbuneum richardianum AM 207<br />

Rubia peregr<strong>in</strong>a AM 368<br />

AM + ECM 472<br />

ECM 260, 261<br />

Sherardia arvensis AM 472<br />

Vangueria <strong>in</strong>fausta AM 84, 85<br />

Vangueria <strong>in</strong>fausta AM 221<br />

ssp. <strong>in</strong>fausta<br />

Gentianaceae<br />

Blackstonia perfoliata AM 368, 472<br />

AM + NM 260, 261<br />

Centaurium erythraea AM 472, 260, 261<br />

Gentiana algida NM 594<br />

Gentiana nivalis AM + NM 260, 261<br />

Gentiana pneumonanthe AM + NM 260, 261<br />

Gentiana verna AM 561, 260, 261<br />

Gentianella amarella AM 260, 261<br />

Gentianella campestris AM 194, 260, 261<br />

Gentianella germanica AM 456, 260, 261<br />

Voyria aurantiaca Mycoheterotrophy 79<br />

(via AM)<br />

Voyria caerulea<br />

Mycoheterotrophy 79<br />

(via AM)<br />

Voyria corymbosa Mycoheterotrophy 79<br />

(via AM)<br />

Voyria obconica<br />

Mycoheterotrophy 292<br />

(via AM)<br />

Voyria rosea<br />

Mycoheterotrophy 79<br />

(via AM)<br />

Voyria tenuiflora Mycoheterotrophy 79<br />

(via AM)<br />

Voyriella parviflora Mycoheterotrophy 79<br />

(via AM)<br />

Loganiaceae<br />

Anthocleista schwe<strong>in</strong>furthii AM 445<br />

Buddleia asiatica AM 326<br />

Apocynaceae<br />

Adenium obesum AM 623<br />

Adenium somalense AM 623<br />

Allam<strong>and</strong>a cathartica AM 623<br />

var. schotti<br />

Allam<strong>and</strong>a violacea AM 623<br />

Alstonia boonei AM 445<br />

Alyxia oliviaeformis AM 326<br />

Amsonia tabernaemontana AM 623<br />

Apocynum cannab<strong>in</strong>um AM 623<br />

Apocynum medium AM 623<br />

Aspidosperma parvifolium NM 548<br />

Aspidosperma polyneuron NM 651<br />

Catharanthus roseus AM 623<br />

Dyera costulata NM 568<br />

L<strong>and</strong>olphia heudelottii NM 47<br />

M<strong>and</strong>evilla s<strong>and</strong>erei AM 623<br />

Nerium ole<strong>and</strong>er AM 623<br />

Pachypodium lamerei AM 623<br />

Picralima nitida AM 445<br />

Plumeria obtuse AM 623<br />

Plumeria rubra AM 623<br />

Rauwolfia serpent<strong>in</strong>a AM 623<br />

Rauwolfia verticillata AM 623<br />

Saba senegalensis NM 47<br />

Stemmadenia<br />

AM 244<br />

donnell-smithii<br />

Strophanthus capensis AM 623<br />

Tabernaemontana australis AM 651<br />

Thevetia peruviana AM 623


325<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Trachelospermum AM 623<br />

jasm<strong>in</strong>oides<br />

V<strong>in</strong>ca major AM 260, 261<br />

V<strong>in</strong>ca m<strong>in</strong>or AM 623, 260, 261<br />

Apocynaceae<br />

(Asclepiadoideae)<br />

Asclepias <strong>in</strong>carnata AM 58, 140<br />

Calotropis gigantea AM 343<br />

Cynanchum<br />

AM 207<br />

nummularifolium<br />

Periploca graeca NM 368<br />

Stapelia glabricaulis AM 417<br />

Oleaceae<br />

Frax<strong>in</strong>us excelsior AM 465, 622<br />

AM + ECM 260, 261<br />

Frax<strong>in</strong>us ornus AM 368<br />

Frax<strong>in</strong>us oxycarpa AM 368<br />

Frax<strong>in</strong>us pennsylvanica AM 28<br />

Jasm<strong>in</strong>um laurifolium AM 655<br />

Jasm<strong>in</strong>um wangii AM 422<br />

Ligustrum vulgare AM 368, 260, 261<br />

Olea europaea AM 17, 101<br />

Olea europaea<br />

AM 637, 638<br />

ssp. cuspidate<br />

Olea europaea<br />

AM 108, 368<br />

ssp. sylvestris<br />

Olea europaea var. oleaster AM 472<br />

Phillyrea angustifolia AM 368, 472<br />

Phillyrea latifolia AM 368<br />

Gesneriaceae<br />

Corallodiscus flabellatus AM 343<br />

Cytr<strong>and</strong>ra longifolia AM 326<br />

Pedaliaceae<br />

Sesamum <strong>in</strong>dicum AM 612<br />

Plantag<strong>in</strong>aceae<br />

Callitriche hamulata AM 260, 261<br />

Littorella uniflora AM 62, 432, 260,<br />

261<br />

Plantago coronopus AM 260, 261<br />

Plantago drummondii AM 438<br />

Plantago lanceolata AM 194, 307, 446,<br />

456, 260, 261<br />

Plantago major AM 49, 368, 260,<br />

261<br />

Plantago major<br />

AM 260, 261<br />

ssp. <strong>in</strong>termedia<br />

Plantago maritima AM 260, 261<br />

Plantago media AM 48, 194, 260,<br />

261<br />

Plantago pr<strong>in</strong>ceps AM 326<br />

Bignoniaceae<br />

Incarvillea arguta AM 343<br />

Jacar<strong>and</strong>a mimosaefolia AM 548, 651<br />

Jacar<strong>and</strong>a puberula AM 651<br />

Oroxylum <strong>in</strong>dicum AM 655<br />

Stenolobium stans AM 548<br />

Tabebuia chrysotricha AM 651<br />

Tabebuia roseo-alba AM 651<br />

Tecoma stans Weak AM 103<br />

AM 112<br />

Zeyheria tuberculosa NM 651<br />

Verbenaceae<br />

Aegiphila sellowiana AM 651<br />

Citharexylum myrianthum AM 651<br />

Clerodendron japonicum AM 422<br />

Lantana camara AM 326<br />

Lippia graveolens Weak AM 103<br />

Lippia nodiflora AM 143<br />

Tectona gr<strong>and</strong>is AM 476<br />

Teucrium flavum AM 368<br />

Verbena hastata AM 140<br />

Verbena <strong>of</strong>fic<strong>in</strong>alis AM 260, 261<br />

Vitex agnus-castus AM 368<br />

Vitex montevidensis AM 651<br />

Vitex negundo AM 343<br />

Vitex rotundifolia AM 326<br />

Vitex vestita AM 655<br />

Lamiaceae<br />

Ajuga genevensis AM 260, 261<br />

Ajuga pyramidalis AM 194<br />

Ajuga reptans AM 260, 261<br />

Ballota nigra NM 260, 261<br />

Betonica <strong>of</strong>fic<strong>in</strong>alis AM 212<br />

Cl<strong>in</strong>opodium gracile AM 643<br />

Cl<strong>in</strong>opodium vulgare AM + NM 260, 261<br />

Colebrookea oppositifolia AM 655<br />

Coleus parviflorus AM 469<br />

Coleus × hybridus AM 322<br />

Coll<strong>in</strong>sonia canadensis AM 140<br />

Elsholtzia bl<strong>and</strong>a AM 422<br />

Elsholtzia cypriani AM 343<br />

Galeopsis segetum NM 260, 261<br />

Galeopsis tetrahit NM 260, 261<br />

Glechoma hederacea AM + NM 260, 261<br />

Gomphostemma microdon AM 655<br />

Hyptis lantiflora AM 112<br />

Lamiastrum galeobdolon AM + NM 260, 261<br />

Lamium album AM 260, 261<br />

Lamium amplexicaule AM 294, 260, 261<br />

Lamium purpureum AM 260, 261<br />

Lav<strong>and</strong>ula augustifolia AM 348<br />

Lav<strong>and</strong>ula <strong>of</strong>fic<strong>in</strong>alis AM 104<br />

Lav<strong>and</strong>ula pedunculata AM 339<br />

Lav<strong>and</strong>ula spica AM 39<br />

Leucas aspera AM 336<br />

Lycopus europaeus AM + NM 260, 261


326<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Melittis melissophyllum AM + NM 260, 261<br />

Mentha aquatica AM 368<br />

AM + NM 260, 261<br />

Mentha arvensis AM 248<br />

AM + NM 260, 261<br />

Mentha arvensis<br />

AM 1<br />

ssp. haplocalyx<br />

Mentha cardiaca AM 1<br />

Mentha citrata AM 1<br />

Mentha piperita AM 1<br />

AM + NM 260, 261<br />

Mentha pulegium AM 260, 261<br />

Mentha spicata AM 1<br />

Mentha viridis AM 1<br />

Nepeta cataria AM 260, 261<br />

Ocimum basilicum AM 105, 171, 343<br />

Origanum vulgare AM 260, 261<br />

Paraphlomis javanica AM 655<br />

Prunella vulgaris AM 194, 586<br />

AM + NM 260, 261<br />

Pycnanthemum tenuifolium AM 140, 599<br />

Pycnanthemum<br />

AM 140<br />

virg<strong>in</strong>ianum<br />

Rosmar<strong>in</strong>us <strong>of</strong>fic<strong>in</strong>alis AM 472<br />

Salvia azurea AM 633<br />

Salvia <strong>of</strong>fic<strong>in</strong>alis AM 105<br />

Salvia pratensis AM 260, 261<br />

Salvia splendens AM 322<br />

Salvia verbenaca AM 260, 261<br />

Scutellaria galericulata AM + NM 260, 261<br />

Stachys × ambigua AM 260, 261<br />

Stachys maritima AM 368<br />

Stachys <strong>of</strong>fic<strong>in</strong>alis AM 260, 261<br />

Stachys palustris AM 260, 261<br />

Stachys recta<br />

NM 368<br />

var. psammophila<br />

Stachys sylvatica AM + NM 260, 261<br />

Stenogyne purpurea AM 326<br />

Teucrium chamaedrys AM 260, 261<br />

Teucrium fruticans AM 348, 472<br />

Teucrium scordium AM 260, 261<br />

Teucrium scordonia AM 260, 261<br />

Thymus mastich<strong>in</strong>a AM 339<br />

Thymus polytrichus AM 630<br />

ssp. britannicus<br />

Thymus pulegioides AM 456<br />

Thymus serpyllum AM 456, 260, 261<br />

Thymus vulgaris AM 105, 583<br />

Thymus zygis AM 339<br />

Acanthaceae<br />

Barleria cristata AM 343<br />

Carlowrightia californica AM 112<br />

Justicia procumbens var. AM 643<br />

leucantha<br />

Phlogacanthus curviflorus AM 655<br />

Pseudoranthemum AM 422, 655<br />

palatiferum<br />

Ruellia pen<strong>in</strong>sularis AM 112<br />

Scrophulariaceae<br />

Antirrh<strong>in</strong>um majus AM 74<br />

Bartsia alp<strong>in</strong>a AM + NM 260, 261<br />

Buddleja davidii NM 260, 261<br />

Calceolaria crenatiflora AM 207<br />

Calceolaria polyrrhiza AM 207<br />

Castilleja arvensis NM 326<br />

Chaenorh<strong>in</strong>um m<strong>in</strong>us NM 260, 261<br />

Cymbalaria muralis AM 260, 261<br />

Digitalis purpurea AM + NM 260, 261<br />

Eremophila longifolia Weak AM 438<br />

Eremophila macdonnellii Weak AM 438<br />

Euphrasia m<strong>in</strong>ima NM 260, 261<br />

Euphrasia <strong>of</strong>fic<strong>in</strong>alis s. l. NM 260, 261<br />

Euphrasia stricta NM 456<br />

Kickxia spuria AM 260, 261<br />

Lamourouxia rh<strong>in</strong>anthifolia NM 103<br />

L<strong>in</strong>aria repens AM + NM 260, 261<br />

L<strong>in</strong>aria sup<strong>in</strong>a AM + NM 260, 261<br />

L<strong>in</strong>aria vulgaris AM + NM 260, 261<br />

Melampyrum arvense NM 260, 261<br />

Melampyrum cristatum NM 260, 261<br />

Melampyrum pretense NM 194<br />

AM + NM 260, 261<br />

Melampyrum sylvaticum NM 194, 260, 261<br />

Mimulus guttatus NM 62<br />

AM 95<br />

Mimulus r<strong>in</strong>gens AM 140<br />

Odontites lutea AM 368<br />

Odontites verna NM 260, 261<br />

Pedicularis capitata NM 594<br />

Pedicularis kanei NM 594<br />

Pedicularis langsdorffii NM 594<br />

Pedicularis palustris NM 260, 261<br />

Pedicularis sylvatica NM 260, 261<br />

Pedicularis verticillata NM 594<br />

Penstemon cardwellii Facultative AM 585<br />

Penstemon frutescens Facultative AM 587<br />

Plantago asiatica AM 643<br />

Rh<strong>in</strong>anthus angustifolius AM 456<br />

NM 260, 261<br />

Rh<strong>in</strong>anthus m<strong>in</strong>or Weak AM 194<br />

Scrophularia auriculata AM 260, 261<br />

Scrophularia nodosa AM + NM 260, 261<br />

Scrophularia umbrosa NM 260, 261<br />

Scrophularia vernalis NM 260, 261


327<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Verbascum lychnitis AM 260, 261<br />

Verbascum nigrum AM 260, 261<br />

Verbascum thapsus AM 207, 260, 261<br />

Veronica agrestis AM + NM 260, 261<br />

Veronica alp<strong>in</strong>a AM 260, 261<br />

Veronica<br />

Facultative AM 62<br />

anagallis-aquatica AM 260, 261<br />

Veronica arvensis AM 643, 260, 261<br />

Veronica beccabunga NM 62, 260, 261<br />

Veronica chamaedrys AM 194, 456<br />

AM + NM 260, 261<br />

Veronica filiformis AM 260, 261<br />

Veronica fruticans AM 260, 261<br />

Veronica <strong>of</strong>fic<strong>in</strong>alis AM 194<br />

AM + NM 260, 261<br />

Veronica peregr<strong>in</strong>a AM 260, 261<br />

Veronica persica AM 643, 260, 261<br />

Veronica serpyllifolia AM 194, 260, 261<br />

Veronica spicata AM 260, 261<br />

Lentibulariaceae<br />

P<strong>in</strong>guicula alp<strong>in</strong>e NM 260, 261<br />

P<strong>in</strong>guicula vulgaris NM 260, 261<br />

Convolvulaceae<br />

Calystegia sepium AM 260, 261<br />

Calystegia soldanella NM 368<br />

Convolvulus arvensis AM 260, 261<br />

Convolvulus elegantissimus AM 472<br />

Convolvulus eyreanus AM 438<br />

Ipomoea arborescens Weak AM 103<br />

Ipomoea batatas AM 455<br />

Ipomoea imperati AM 326<br />

Ipomoea pes-caprae AM 64, 65, 144,<br />

326, 336<br />

Ipomoea stolonifera Weak AM 143<br />

Jacquemontia ovalifolia AM 326<br />

Jacquemontia recl<strong>in</strong>ata AM 202<br />

Solanaceae<br />

Atropa belladonna AM 260, 261<br />

Capsicum annuum AM 50<br />

Cestrum <strong>in</strong>termedium AM 651<br />

Datura metal AM 216<br />

Datura stramonium AM 343<br />

Lycium barbarum AM 260, 261<br />

Lycium fremontii AM 112<br />

Lycium s<strong>and</strong>wicense AM 326<br />

Lycopersicon esculentum AM 407<br />

Nicotiana velut<strong>in</strong>a AM 438<br />

Petunia × hybrida AM 322<br />

Solanum argenteum AM 651<br />

Solanum dulcamara NM 62<br />

AM 260, 261<br />

Solanum elipticum AM 438<br />

Solanum khasianum AM 343<br />

Solanum h<strong>in</strong>dsianum AM 112<br />

Solanum nigrum AM + NM 260, 261<br />

Solanum surattense AM 567<br />

Solanum torvum NM 422<br />

Solanum tuberosum AM 386<br />

Aquifoliaceae<br />

Ilex aquifolium AM + ECM 260, 261<br />

Ilex paraguariensis AM 31<br />

Ilex verticallata AM 140<br />

Araliaceae<br />

Didymopanax<br />

AM 31<br />

angustissimum<br />

Hedera helix AM 368, 472, 260,<br />

261<br />

Macropanax dispermus AM 655<br />

Panax g<strong>in</strong>seng AM 178<br />

Panax qu<strong>in</strong>quefolius AM 390<br />

Pseudopanax laetevirens AM 207<br />

Stilbocarpa polaris NM 342<br />

Trevesia palmata NM 422<br />

Trevesia palmata NM 655<br />

var. costata<br />

Pittosporaceae<br />

Pittosporum gayanum AM 326<br />

Apiaceae<br />

Act<strong>in</strong>otis helianthi AM 67<br />

Aegopodium podograria AM + NM 260, 261<br />

Aethusa cynapium AM 260, 261<br />

Angelica archangelica AM 260, 261<br />

Angelica sylvestris AM 260, 261<br />

Anthriscus sylvestris NM 260, 261<br />

Apium graveolens AM 490, 260, 261<br />

Apium nodiflorum NM 260, 261<br />

Astrantia major AM + NM 260, 261<br />

Azorella macquariensis AM 342<br />

Berula erecta Facultative AM 62<br />

NM 260, 261<br />

Bupleurum baldense AM 472<br />

Bupleurum falcatum AM 260, 261<br />

Carum carvi AM 194, 260, 261<br />

Chaerophyllum temulentum AM + NM 260, 261<br />

Conium maculatum AM 260, 261<br />

Conopodium majus AM 260, 261<br />

Cori<strong>and</strong>rum sativum AM 220<br />

Daucus carota AM 171<br />

AM + NM 260, 261<br />

Ech<strong>in</strong>ophora sp<strong>in</strong>osa AM 368<br />

Eryngium campestre AM 260, 261<br />

Eryngium maritimum AM 368<br />

AM + NM 260, 261<br />

Eryngium paniculatum AM 207<br />

Foeniculum vulgare AM 305<br />

Heracleum sphondylium AM + NM 260, 261


328<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Hydrocotyle bonariensis AM 143<br />

Hydrocotyle<br />

AM 342<br />

novae-zeel<strong>and</strong>iae<br />

Hydrocotyle vulgaris AM 368<br />

AM + NM 260, 261<br />

Myrrhis odorata AM 260, 261<br />

Oenanthe aquatica NM 260, 261<br />

Oenanthe crocata NM 260, 261<br />

Osmorhiza chilensis AM 207<br />

Past<strong>in</strong>aca sativa AM 307, 260, 261<br />

Petroselium crispum AM 171<br />

NM 260, 261<br />

Peucedanum ostruthium AM 260, 261<br />

Peucedanum palustre AM 260, 261<br />

Pimp<strong>in</strong>ella major AM + NM 260, 261<br />

Pimp<strong>in</strong>ella saxifraga AM 194, 456<br />

AM + NM 260, 261<br />

Platysace l<strong>in</strong>earifolia ECM 67<br />

Sanicula europaea AM 260, 261<br />

Sc<strong>and</strong>ix pecten-veneris AM 260, 261<br />

Seseli libanotis AM 260, 261<br />

Seseli tortuosum AM 368<br />

Silaum silaus AM 260, 261<br />

Sium latifolium NM 260, 261<br />

Trachymene glaucifolia AM 438<br />

Campanulaceae<br />

Brighamia <strong>in</strong>signis AM 326<br />

Campanula glomerata AM 260, 261<br />

Campanula lasiocarpa AM 587<br />

Campanula patula AM 260, 261<br />

Campanula persicifolia AM 194<br />

AM + NM 260, 261<br />

Campanula punctata AM 636<br />

ssp.hondoensis<br />

Campanula rapunculoides AM 260, 261<br />

Campanula rotundifolia AM 194, 437, 456,<br />

260, 261<br />

Campanula trachelium NM 260, 261<br />

Clermontia fauriei AM 326<br />

Cyanea leptostegia AM 326<br />

Down<strong>in</strong>gia elegans AM 293<br />

Jasione montana AM + NM 260, 261<br />

Lobelia card<strong>in</strong>alis AM 140<br />

Lobelia dortmanna AM 62, 432, 260,<br />

261<br />

Lobelia sp. AM + ECM 656<br />

Lobelia yuccoides AM 326<br />

Phyteuma orbiculare AM 260, 261<br />

Phyteuma spicatum AM + NM 260, 261<br />

Pratia nummularia AM 422<br />

Trematolobelia kauaiensis AM 326<br />

Menyanthaceae<br />

Menyanthes trifoliata NM 260, 261<br />

Nymphoides peltata NM 260, 261<br />

Goodeniaceae<br />

Calogyne sp. AM + ECM 656<br />

Dampiera stricta AM + ECM 67<br />

Goodenia cycloptera AM 438<br />

Goodenia lunata AM 438<br />

Goodenia sp. AM + ECM 656<br />

Scaevola chamissoniana AM 326<br />

Scaevola gaudichaudii AM 326<br />

Scaevola parvibarbata AM 438<br />

Scaevola procera AM 326<br />

Scaevola sericea AM 326<br />

Asteraceae<br />

Achillea millefolium AM 194<br />

AM + NM 260, 261<br />

Achillea ptarmica AM 194<br />

NM 260, 261<br />

Agerat<strong>in</strong>a esp<strong>in</strong>osarum Weak AM 103<br />

Ageratum conyzoides AM 336, 422<br />

Ambrosia artemisifolia AM 143<br />

Anaphalis margaritacea Facultative AM 585<br />

AM 260, 261<br />

Angianthus sp. AM + ECM 656<br />

Antennaria dioica AM 194, 260, 261<br />

Anthemis arvensis AM 260, 261<br />

Anthemis t<strong>in</strong>ctoria AM 260, 261<br />

Arctium lappa AM + NM 260, 261<br />

Arctium m<strong>in</strong>us s. l. AM 260, 261<br />

Arnica angustifolia AM 443<br />

Arnica montana AM 194, 269<br />

Artemisia abs<strong>in</strong>thium NM 260, 261<br />

Artemisia californica AM 646<br />

Artemisia campestris AM 260, 261<br />

Artemisia codonocephala AM 343<br />

Artemisia dracunculus AM 105<br />

Artemisia ludoviciana AM 633<br />

Artemisia maritima AM + NM 260, 261<br />

Artemisia pr<strong>in</strong>ceps AM 643<br />

Artemisia tridentata AM 183<br />

Artemisia tridentata AM 552<br />

ssp. wyom<strong>in</strong>gensis<br />

Artemisia vulgaris AM 307, 260, 261<br />

Aster novi belgii AM 260, 261<br />

Aster sericeus AM 633<br />

Aster subulatus AM 326<br />

Aster tripolium AM 113, 518, 260,<br />

261<br />

Baccharis racemosa AM 207<br />

Baldu<strong>in</strong>a angustifolia AM 30<br />

Bebbia juncea AM 112<br />

Bellis perennis AM + NM 260, 261<br />

Berkheya coddii AM 597


329<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Bidens asymmetrica × AM 227<br />

s<strong>and</strong>vicensis<br />

Bidens bip<strong>in</strong>nata AM 422<br />

Bidens cosmoides AM 326<br />

Bidens frondosa AM 140, 368<br />

Bidens pilosa AM 143, 343, 422<br />

Bidens s<strong>and</strong>wicensis AM 227, 326<br />

Bidens tripartita AM 140<br />

AM + NM 260, 261<br />

Bla<strong>in</strong>villea acmella AM 343<br />

Calendula <strong>of</strong>fic<strong>in</strong>alis AM 260, 261<br />

Callistephus ch<strong>in</strong>ensis AM 428<br />

Carduus acanthoides AM 307, 260, 261<br />

Carl<strong>in</strong>a vulgaris AM 456, 260, 261<br />

Carthamus t<strong>in</strong>ctorius AM 94<br />

Centaurea cyanus AM 260, 261<br />

Centaurea jacea AM 194, 260, 261<br />

Centaurea maculosa AM 109, 371<br />

Centaurea nigra AM 260, 261<br />

Centaurea pratensis AM 260, 261<br />

Centaurea scabiosa AM 260, 261<br />

Centaurea subciliata AM 368<br />

Chrysanthemum<br />

AM 551<br />

morifolium<br />

Chrysanthemum segetum AM 260, 261<br />

Cicerbita alp<strong>in</strong>a AM + NM 260, 261<br />

Cichorium <strong>in</strong>tybus AM 260, 261<br />

Cirsium acaule AM 260, 261<br />

Cirsium arvense AM 307, 260, 261<br />

Cirsium helenioides AM 260, 261<br />

Cirsium oleraceum AM 260, 261<br />

Cirsium palustre AM + NM 260, 261<br />

Cirsium purpuratum AM 636<br />

Cirsium setosum AM 620<br />

Cirsium vulgare AM 626<br />

AM + NM 260, 261<br />

Conyza bl<strong>in</strong>ii AM 343<br />

Conyza canadensis AM 326, 343<br />

Cotula plumose NM 342, 560<br />

Crassocephalum<br />

AM 422<br />

crepidioides<br />

Crepis biennis AM 260, 261<br />

Crepis capillaris AM 260, 261<br />

Crepis paludosa AM + NM 260, 261<br />

Crepis praemorsa AM 194<br />

Crepis setosa AM 207<br />

Cynara cardunculus AM 369<br />

Dittrichia viscosa AM 497<br />

Dubautia ciliolata AM 326<br />

Dubautia knudseni AM 326<br />

Dubautia plantag<strong>in</strong>ea AM 326<br />

Dubautia scabra AM 326<br />

Eclipta alba AM 577<br />

Emilia sonchifolia AM 326, 336<br />

Erechtites hieracifolia AM 326<br />

Ericameria diffusa AM 112<br />

Erigeron acer NM 260, 261<br />

Erigeron annuus AM 643<br />

Erigeron bonariensis AM 643<br />

Erigeron borealis AM 260, 261<br />

Erigeron canadensis AM 294<br />

AM + NM 260, 261<br />

Eriophyllum lanatum AM 293<br />

Eupatorium cannab<strong>in</strong>um AM 260, 261<br />

Eupatorium coelesticum AM 422<br />

Eupatorium maculatum AM 140<br />

Eupatorium odoratum AM 422<br />

Eupatorium perfoliatum AM 140<br />

Eupatorium serot<strong>in</strong>um AM 599<br />

Filag<strong>in</strong>ella ulig<strong>in</strong>osa AM 194<br />

Florest<strong>in</strong>a tripteris AM 143<br />

Flourensia cernua AM 137<br />

Gal<strong>in</strong>soga ciliata AM 260, 261<br />

Gal<strong>in</strong>soga parviflora AM 260, 261<br />

Gal<strong>in</strong>soga sup<strong>in</strong>um AM 260, 261<br />

Gal<strong>in</strong>soga sylvaticum AM 260, 261<br />

Gal<strong>in</strong>soga ulig<strong>in</strong>osum AM 260, 261<br />

Gnaphalium norvegicum AM 502, 503, 260,<br />

261<br />

Gnephosis eriocarpa Weak AM 438<br />

Gutierrezia sarothrae AM 492, 493<br />

Gymnosperma glut<strong>in</strong>osum Weak AM 103<br />

Haplopappus venetus AM 543<br />

Helianthus annuus AM 121, 260, 261<br />

Helianthus niveus AM 543<br />

Helichrysum italicum AM 368<br />

Helichrysum sp. AM + ECM 656<br />

Helichrysum stoechas AM 368<br />

Helipterum sp. AM + ECM 656<br />

Hieracium albiflorum Facultative AM 585<br />

Hieracium alp<strong>in</strong>um AM 260, 261<br />

Hieracium bifidum AM 260, 261<br />

Hieracium lachenalii AM 260, 261<br />

Hieracium lactucella AM 194<br />

Hieracium laevegatum AM + NM 260, 261<br />

Hieracium murorum AM + NM 260, 261<br />

Hieracium pilosella AM 270, 456, 260,<br />

261<br />

Hieracium sagittatum AM 260, 261<br />

Hieracium subaundum AM 260, 261<br />

Hieracium umbellatum AM 194, 260, 261<br />

Hieracium vulgatum AM + NM 260, 261<br />

Homogyne alp<strong>in</strong>a AM + ECM 260, 261<br />

Hypochaeris radicata Facultative AM 584, 585, 260,<br />

261<br />

Hypochoeris achyrophorus AM 472


330<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Inula conyza AM 260, 261<br />

Inula salic<strong>in</strong>a AM 260, 261<br />

Ixeris denticulate AM 129<br />

Jaumea carnosa AM 90<br />

Lactuca hirsuta AM 140<br />

Lactuca sativa AM 40, 171, 500<br />

Laggera pterodonta AM 343<br />

Lapsana communis AM 260, 261<br />

Launaea sarmentosa AM 336<br />

Leontodon autumnalis AM 194, 260, 261<br />

Leontodon hispidus AM 260, 261<br />

Leontodon hispidus AM 456<br />

ssp. danubialis<br />

Leontodon hispidus AM 456<br />

ssp. hispidus<br />

Leucanthemum vulgare AM 194, 260, 261<br />

Leuceria achillaeifolia NM 207<br />

Liatris tenuifolia<br />

Weak AM 30<br />

var. laevigata<br />

Lipochaeta connata AM 326<br />

Matricaria maritime AM 307<br />

ssp. <strong>in</strong>odora<br />

Matricaria matricarioides AM 260, 261<br />

Matricaria recutita AM + NM 260, 261<br />

Microseris lac<strong>in</strong>iata AM 293<br />

Mutisia decurrens AM 207<br />

Mutisia sp<strong>in</strong>osa AM 207<br />

Mycelis muralis AM + ECM + NM 260, 261<br />

Omalotheca norvegica AM 194<br />

Onopordum acanthium AM + NM 260, 261<br />

Otanthus maritimus AM 368<br />

Othonna gregorii AM + NM 438<br />

Palafoxia l<strong>in</strong>denii AM 144<br />

Parthenium argentatum AM 461<br />

Parthenium hysterophorus AM 343<br />

Pectis saturejoides AM 143<br />

Petasites albus AM + NM 260, 261<br />

Petasites frigidus NM 594<br />

Petasites hybridus AM + NM 260, 261<br />

Phagnalon rupestre AM 472<br />

Picris echioides AM 260, 261<br />

Picris hieracioides AM 260, 261<br />

Piptocarpha axillaris AM 651<br />

Pityopsis gram<strong>in</strong>ifolia Weak AM 30<br />

Pleurophyllum hookeri AM 342<br />

Podolepis sp. AM + ECM 656<br />

Polycalymma stuartii AM 438<br />

Porophyllum numularium AM 143<br />

Pulicaria angustifolia AM 567<br />

Pulicaria dysenterica AM 260, 261<br />

Remya kauaiensis AM 326<br />

Rhodanthe floribunda AM 438<br />

Rhodanthe moschata AM 438<br />

Sagittaria latifolia AM 58, 626<br />

Sanvitalia procumbens AM 260, 261<br />

Saussurea alp<strong>in</strong>a AM 260, 261<br />

Scorzonera humilis AM 194<br />

Senecio articulatus AM 417<br />

Senecio bicolor AM 368, 260, 261<br />

Senecio bracteolatus AM 207<br />

Senecio erucifolius AM 260, 261<br />

Senecio jacobaea AM + NM 260, 261<br />

Senecio pendulus AM 417<br />

Senecio praecox AM 208<br />

NM 103<br />

Senecio squalidus AM 260, 261<br />

Senecio sylvaticus AM + NM 260, 261<br />

Senecio viscosus AM 307, 260, 261<br />

Senecio vulgaris AM 625<br />

AM + NM 260, 261<br />

Serratula t<strong>in</strong>ctoria AM 212, 260, 261<br />

Siegesbeckia orientalis AM 343<br />

Solidago altissima AM 643<br />

Solidago canadensis AM 298, 626<br />

Solidago chilenesis AM 207<br />

Solidago gigantea AM 140<br />

Solidago gram<strong>in</strong>ifolia AM 140<br />

Solidago litoralis AM 368<br />

Solidago sp. AM 58<br />

Solidago virgaurea AM 194, 260, 261<br />

Sonchus arvensis AM 302<br />

AM + NM 260, 261<br />

Sonchus asper AM + NM 260, 261<br />

Sonchus oleraceus AM 343, 643, 260,<br />

261<br />

Spilanthes callimorpha AM 422<br />

Synedrella nudiflora AM 422<br />

Tagetes erecta AM 2, 102, 350<br />

Tagetes patula AM 322, 350, 554<br />

Tagetes tenuifolia AM 350<br />

Tanacetum parthenium NM 260, 261<br />

Tanacetum vulgare AM + NM 260, 261<br />

Taraxacum japonicum AM 643<br />

Taraxacum <strong>of</strong>fic<strong>in</strong>ale AM 307<br />

Tithonia diversifolia AM 422, 539<br />

Tragopogon pratensis AM 260, 261<br />

Tridax procumbens AM 336<br />

Tripleurospermum AM 260, 261<br />

<strong>in</strong>odorum<br />

Tripleurospermum AM 260, 261<br />

maritimum<br />

Tussilago farfara AM 307<br />

AM + NM 260, 261<br />

Verbes<strong>in</strong>a encelioides AM 326<br />

Vernonia noveboracensis AM 140<br />

Viguiera eriophora AM 103


331<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Waitzia sp. AM + ECM 656<br />

Wedelia trilobata AM 326<br />

Wilkesia gymnoxiphium AM 326<br />

Xanthium sibiricum AM 343<br />

Xanthocephalum<br />

AM 137<br />

microcephala<br />

Z<strong>in</strong>nia acerosa AM 137<br />

Z<strong>in</strong>nia elegans AM 2, 343<br />

Adoxaceae<br />

Adoxa moschatell<strong>in</strong>a NM 260, 261<br />

Caprifoliaceae<br />

Carlemannia tetragona AM 655<br />

L<strong>in</strong>naea borealis AM 260, 261<br />

Lonicera caprifolium AM 260, 261<br />

Lonicera implexa AM 368<br />

Lonicera pericylmenum AM 260, 261<br />

Lonicera xylosteum AM + NM 260, 261<br />

Sambucus nigra AM + NM 260, 261<br />

Sambucus racemosa AM + ECM+NM 260, 261<br />

Symphoricarpos rivularis AM + NM 260, 261<br />

Viburnum lantana AM 260, 261<br />

Viburnum lentago AM 140<br />

Viburnum opulus AM 260, 261<br />

Viburnum t<strong>in</strong>us AM 368<br />

Dipsacaceae<br />

Dipsacus fullonum AM + NM 260, 261<br />

Knautia arvensis AM 194, 260, 261<br />

Pycnocomon rutifolium AM 368<br />

Scabiosa columbaria AM 260, 261<br />

Scabiosa ochroleuca AM 456<br />

Succisa pratensis AM 194, 260, 261<br />

Valerianaceae<br />

Centranthus ruber NM 260, 261<br />

Valeriana dioica NM 260, 261<br />

Valeriana laxiflorac AM 207<br />

Valeriana <strong>of</strong>fic<strong>in</strong>alis AM + NM 260, 261<br />

Hamamelidaceae<br />

Liquidambar styraciflua AM 139<br />

Crassulaceae<br />

Aeonium decorum AM 417<br />

Crassula aquatica NM 260, 261<br />

Crassula moschata NM 342, 560<br />

Crassula phyturus AM 417<br />

Crassula rupestris AM 417<br />

Echeveria sedoides NM 417<br />

Kalanchoe daigremontana AM 417<br />

Sedum acre AM + NM 260, 261<br />

Sedum adolfii AM 417<br />

Sedum album NM 260, 261<br />

Sedum dasyphyllum NM 260, 261<br />

Sedum forsteranum NM 260, 261<br />

Sedum reflexum NM 260, 261<br />

Sedum rosea AM + NM 260, 261<br />

Sedum telephium NM 260, 261<br />

Sempervivum tectorum M(endo) + NM 260, 261<br />

Haloragaceae<br />

Myriophyllum alterniflorum NM 260, 261<br />

Proserp<strong>in</strong>aca palustris AM 140<br />

Grossulariaceae<br />

Ribes alp<strong>in</strong>um AM + ECM + NM 260, 261<br />

Ribes magellanicum AM 207<br />

Ribes nigrum AM 260, 261<br />

Ribes rubrum AM 260, 261<br />

Ribes uva-crispa AM 260, 261<br />

Saxifragaceae<br />

Chrysosplenium<br />

AM + NM 260, 261<br />

alternifolium<br />

Chrysosplenium<br />

NM 260, 261<br />

oppositifolium<br />

Saxifraga aizoides AM + NM 260, 261<br />

Saxifraga granulate AM 194<br />

AM + NM 260, 261<br />

Saxifraga hieracifolia NM 594<br />

Saxifraga hirculus NM 594<br />

Saxifraga oppositifolia AM + NM 260, 261<br />

Saxifraga stellaris NM 260, 261<br />

Vitaceae<br />

Cayratia japonica AM 643<br />

Leea compactiflora AM 655<br />

Leea <strong>in</strong>dica AM 655<br />

Leea marcophylla AM 655<br />

Vitis v<strong>in</strong>ifera AM 306, 517<br />

Geraniaceae<br />

Erodium cicutarium AM + NM 260, 261<br />

Erodium cr<strong>in</strong>itum AM 438<br />

Geranium carol<strong>in</strong>ianum AM 643<br />

Geranium dissectum AM 260, 261<br />

Geranium lucidum AM + NM 260, 261<br />

Geranium molle AM + NM 260, 261<br />

Geranium nodosum AM 260, 261<br />

Geranium pratense AM 260, 261<br />

Geranium robertianum AM 262, 472<br />

AM + NM 260, 261<br />

Geranium sangu<strong>in</strong>eum NM 260, 261<br />

Geranium sessiliflorum AM 207<br />

Geranium sylvaticum AM 194, 260, 261<br />

Pelargonium hortorum AM 435<br />

Combretaceae<br />

Term<strong>in</strong>alia catappa AM 326<br />

Term<strong>in</strong>alia superba AM 445<br />

Onagraceae<br />

Camissonia californica AM 543<br />

Chamerion angustifolium AM + NM 260, 261<br />

Circaea alp<strong>in</strong>a AM 260, 261<br />

Circaea lutetiana AM 260, 261


332<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Epilobium als<strong>in</strong>ifolium AM + NM 260, 261<br />

Epilobium anagallidifolium AM 260, 261<br />

Epilobium angustifolium Facultative AM 585<br />

Epilobium brunnescens NM 342<br />

ssp. brunnescens<br />

Epilobium ciliatum AM 260, 261<br />

Epilobium coloratum AM 140<br />

Epilobium hirsutum Facultative AM 62<br />

AM 260, 261<br />

Epilobium lanceolatum AM 260, 261<br />

Epilobium montanum AM + NM 260, 261<br />

Epilobium obscurum AM 260, 261<br />

Epilobium palustre AM 260, 261<br />

Epilobium parviflorum AM 260, 261<br />

Epilobium pendunculare AM 342<br />

Epilobium roseum AM 260, 261<br />

Epilobium tetragonum AM 260, 261<br />

Ludwigia palustris AM 140<br />

Ludwigia prostrata AM 422<br />

Oenothera biennis AM 260, 261<br />

Oenothera erythrosepala AM 260, 261<br />

Lythraceae<br />

Cuphea carthagenensis AM 326<br />

Lafoensia pacari AM 651<br />

Lythrum alatum AM 599<br />

Lythrum hyssopifolia NM 260, 261<br />

Lythrum maritimum AM 326<br />

Lythrum salicaria AM 140, 462, 558,<br />

629<br />

AM + NM 260, 261<br />

Myrtaceae<br />

Acca sellowiana AM 31<br />

Acmena resa AM 222<br />

Angophora hispida ECM 67<br />

Baeckea ramosissima ECM 67<br />

Campomanesia<br />

AM 651<br />

xanthocarpa<br />

Eucalyptus bosistoana AM 5<br />

Eucalyptus camaldulensis AM + ECM 179<br />

Eucalyptus citriodora AM 343<br />

AM + ECM 179<br />

Eucalyptus cloeziana AM + ECM 179<br />

Eucalyptus delegatensis AM 5<br />

Eucalyptus dives AM 5<br />

Eucalyptus dumosa Weak AM 5<br />

Eucalyptus dunnii AM + ECM 442<br />

Eucalyptus globoidea ECM 133<br />

Eucalyptus globulus AM 5<br />

ECM 359<br />

Eucalyptus globulus ECM 12<br />

ssp. bicostata<br />

Eucalyptus gomphocephala AM 5<br />

Eucalyptus gr<strong>and</strong>is AM + ECM 179<br />

ECM 96<br />

Eucalyptus haemostoma ECM 67<br />

Eucalyptus largiflorens AM 5<br />

Eucalyptus macarthurii AM 5<br />

Eucalyptus marg<strong>in</strong>ata ECM 365<br />

Eucalyptus microcorys ECM 120<br />

Eucalyptus racemosa ECM 67<br />

Eucalyptus regnans ECM 341<br />

Eucalyptus sieberi ECM 133<br />

Eucalyptus stricta ECM 67<br />

Eucalyptus torelliana ECM 120<br />

Eucalyptus urophylla AM 5<br />

AM + ECM 179<br />

Eucalyptus vim<strong>in</strong>alis AM 5<br />

AM + ECM 66<br />

Eucalyptus viridis AM 5<br />

Eugenia uniflora AM 651<br />

Gomidesia spectabilis AM 31<br />

Kunzea capitata ECM 67<br />

Leptospermum flavescens ECM 67<br />

Leptospermum lanigerum ECM 67<br />

Luma apiculata AM 207<br />

Melaleuca qu<strong>in</strong>quenervia AM + ECM 316<br />

Metrosideros polymorpha AM 326<br />

Myrtus communis AM 368, 382, 472<br />

Pl<strong>in</strong>ia rivularis Weak AM 651<br />

Psidium cattleianum AM 326<br />

Psidium guajava AM 31, 198, 337<br />

Rhodomyrtus tomentosa AM 326<br />

Syzygium firmum AM 215<br />

Syzygium gu<strong>in</strong>eense AM 637, 638<br />

Syzygium jambolanum AM 548<br />

Syzygium latilimbum AM 422<br />

Syzygium makul AM 215<br />

Syzygium operculatum AM 215<br />

Syzygium rubicundum AM 215<br />

Tristaniopsis whiteana NM 568<br />

Melastomataceae<br />

Clidemia hirta AM 326<br />

Graffenrieda emarg<strong>in</strong>ata AM + ECM 266<br />

Le<strong>and</strong>ra dasytricha AM 31<br />

Melastoma aff<strong>in</strong>e NM 422<br />

Melastoma melabathricum AM 568<br />

Krameriaceae<br />

Krameria paucifolia AM 112<br />

Zygophyllaceae<br />

Balanites aegyptiaca AM 47<br />

Fagonia cretica AM 567<br />

Larrea tridentata AM 112, 137<br />

Morkillia mexicana Weak AM 103<br />

Tribulus cistoides NM 326<br />

Tribulus terrester AM 343


333<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Visca<strong>in</strong>oa geniculata AM 112<br />

Zygophyllum dumosum AM 268<br />

Zygophyllum howittii NM 438<br />

Parnassiaceae<br />

Parnassia palustris AM + NM 260, 261<br />

Celastraceae<br />

Euonymus europaeus AM 260, 261<br />

Maytenus boaria AM 207<br />

Maytenus chubutensis AM 207<br />

Maytenus magellanica AM 207<br />

Maytenus phyllantoides AM 112<br />

Humiriaceae<br />

Sacoglottis gabonensis AM 445<br />

P<strong>and</strong>aceae<br />

P<strong>and</strong>a oleosa AM 445<br />

Rhizophoraceae<br />

Combretocapus rotundatus NM 568<br />

Poga oleosa AM 445<br />

L<strong>in</strong>aceae<br />

L<strong>in</strong>um bienne AM 472<br />

L<strong>in</strong>um catharticum AM 456<br />

AM + NM 260, 261<br />

L<strong>in</strong>um perenne<br />

NM 260, 261<br />

ssp. anglicum<br />

L<strong>in</strong>um strictum AM 472<br />

L<strong>in</strong>um trigynum AM 472<br />

L<strong>in</strong>um usitatissimum AM 171, 180<br />

AM + NM 260, 261<br />

Erythroxylaceae<br />

Erythroxylon compactum NM 103<br />

Euphorbiaceae<br />

Acalypha acmophylla AM 343<br />

Act<strong>in</strong>ostemon concolor AM 651<br />

Adelia virgata AM 112<br />

Alchornea cordifolia AM 445<br />

Alchornea tiliaefolia AM 422, 655<br />

Aleurites moluccana AM 326<br />

Amperea xiphoclada ECM 67<br />

Baccaurea ramiflora AM 422, 655<br />

Breynia fruticosa AM 422<br />

Celaenodendron<br />

AM 20<br />

mexicanum<br />

Chamaesyce atrococca AM 326<br />

Chamaesyce celastroides AM 326<br />

Chamaesyce degeneri AM 326<br />

Chamaesyce hypericifolia AM 326<br />

Cleidion bracteosum AM 422<br />

Cleidion brevipetiolatum AM 655<br />

Cleistanthus sumatranus AM 422<br />

NM 655<br />

Croton ciliatogl<strong>and</strong>uliferus<br />

Weak AM 103<br />

Croton floribundus AM 651<br />

Croton kongensis AM 422<br />

Croton machrostachyus AM 637, 638<br />

Croton punctatus AM 143<br />

Croton urucurana AM 651<br />

Ditaxis lanceolata AM 112<br />

Drypetes gossweileri AM 445<br />

Drypetes hoaensis NM 655<br />

Epipr<strong>in</strong>us silhetianus NM 655<br />

Euphorbia amygdaloides AM 260, 261<br />

Euphorbia cyparissias AM 260, 261<br />

Euphorbia dulcis AM 260, 261<br />

Euphorbia esula AM 260, 261<br />

Euphorbia gatbergensis AM 417<br />

Euphorbia helioscopia AM + NM 260, 261<br />

Euphorbia heterophylla AM 343<br />

Euphorbia hirta AM 216, 343<br />

Facultative AM 422<br />

Euphorbia lathyrus AM 260, 261<br />

Euphorbia paralias AM 260, 261<br />

Euphorbia parliramulosa AM 417<br />

Euphorbia peplis AM 368<br />

Euphorbia peplus AM 472<br />

AM + NM 260, 261<br />

Euphorbia royleana AM 343<br />

Euphorbia tannensis AM 438<br />

Euphorbia thymifolia AM 343<br />

Glochidion assamicum NM 655<br />

Hevea brasiliensis AM 288, 526, 527<br />

Hieronyma alchorneoides AM 31<br />

Jatropha c<strong>in</strong>erea AM 112<br />

Jatropha cuneata AM 112<br />

Macaranga denticulata AM 422, 648<br />

Macaranga <strong>in</strong>dica AM 655<br />

Macaranga peltata AM 315<br />

Manihot esculanta AM 252<br />

Mercurialis annua AM 260, 261<br />

Mercurialis perennis AM + NM 260, 261<br />

Pedilanthus cymbiferus NM 103<br />

AM 112<br />

Pedilanthus macrocarpus AM 112<br />

Phyllanthus asteranthus AM 422<br />

Phyllanthus lacunarius AM 438<br />

Phyllanthus niruri AM 577<br />

Phyllanthus ur<strong>in</strong>aria AM 343<br />

Ric<strong>in</strong>odendron heudelotii AM 445<br />

Ric<strong>in</strong>us communis AM 318<br />

Sauropus <strong>and</strong>rogynus AM 253<br />

Sebastiania<br />

AM 651<br />

commersoniana<br />

Uapaca acum<strong>in</strong>ata AM + ECM 445<br />

Uapaca gu<strong>in</strong>eense ECM 52, 445<br />

Uapaca heudelotti AM 52


334<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Uapaca staudtii ECM+AM 413<br />

ECM 445<br />

Uapaca vanhouttei ECM 445<br />

Violaceae<br />

Viola arvensis AM + NM 260, 261<br />

Viola calam<strong>in</strong>aria AM 588<br />

Viola can<strong>in</strong>a AM 269<br />

AM + NM 260, 261<br />

Viola hirta AM 260, 261<br />

Viola kitaibeliana AM + NM 260, 261<br />

Viola lutea AM 260, 261<br />

Viola maculata AM 207<br />

Viola odorata AM 260, 261<br />

Viola palustris AM + NM 260, 261<br />

Viola reichenbachiana AM + NM 260, 261<br />

Viola riv<strong>in</strong>iana AM 260, 261<br />

Viola rupestris AM 260, 261<br />

Viola tricolor AM 194, 456<br />

AM + NM 260, 261<br />

Viola wailenalenae AM 326<br />

Viola × wittrockiana AM 322<br />

Salicaceae<br />

Casearia sylvestris AM 31, 651<br />

Populus alba ECM+AM 368<br />

ECM+NM 260, 261<br />

Populus balsamifera ECM 470<br />

Populus balsamifera ECM 271<br />

ssp. trichocarpa<br />

Populus × canadensis AM + ECM 260, 261<br />

Populus canescens ECM 260, 261<br />

Populus deltoides AM 140<br />

Populus euroamericana AM + ECM 317<br />

Populus nigra AM + ECM 260, 261<br />

Populus nigra ‘Italica’ AM + ECM 260, 261<br />

Populus serot<strong>in</strong>a AM + ECM 260, 261<br />

Populus tremula AM + ECM 260, 261<br />

Populus tremula × ECM 59<br />

tremuloides<br />

Populus tremuloides ECM 145, 338<br />

ECM+AM 430<br />

Populus trichocarpa ECM 59, 260, 261<br />

Salix alba ECM 260, 261<br />

Salix alba vitell<strong>in</strong>a ECM 260, 261<br />

Salix arbuscula ECM 260, 261<br />

Salix arctica ECM 594<br />

Salix aurita ECM+NM 260, 261<br />

Salix babylonica AM + ECM 316, 260, 261<br />

Salix caprea AM + ECM 260, 261<br />

Salix c<strong>in</strong>erea AM + ECM 260, 261<br />

Salix daphnoides ECM 260, 261<br />

Salix fragilis ECM 260, 261<br />

Salix gracilistyla AM 511<br />

Salix herbacea ECM+EEM 260, 261<br />

Salix lapponum ECM 260, 261<br />

Salix myrs<strong>in</strong>ites ECM 260, 261<br />

Salix nigra AM 140<br />

Salix nigricans ECM+NM 260, 261<br />

Salix phylicifolia ECM 260, 261<br />

Salix polaris ECM 594<br />

Salix purpurea AM + ECM 260, 261<br />

Salix re<strong>in</strong>ii ECM 587<br />

Salix repens AM 605<br />

AM + ECM 260, 261<br />

Salix reticulata ECM 594, 260, 261<br />

Salix tri<strong>and</strong>ra ECM 260, 261<br />

Salix vim<strong>in</strong>alis AM 60<br />

AM + ECM 260, 261<br />

Xylosma ciliatifolium AM 651<br />

Xylosma pseudosalzmannii AM 651<br />

Turneraceae<br />

Turnera ulmifolia AM 143<br />

Clusiaceae<br />

Calophyllum sclerophyllum AM 568<br />

Calophyllum soulattri AM 568<br />

Clusia m<strong>in</strong>or AM 474<br />

Clusia rotundata AM 474<br />

Cratoxylum arborescens AM 568<br />

Garc<strong>in</strong>ia cowa NM 655<br />

Garc<strong>in</strong>ia kola AM 445<br />

Garc<strong>in</strong>ia lucida AM 445<br />

Garc<strong>in</strong>ia xanthochymus Facultative AM 422<br />

Hypericaceae<br />

Hypericum calyc<strong>in</strong>um NM 260, 261<br />

Hypericum hirsutum NM 260, 261<br />

Hypericum humifusum NM 260, 261<br />

Hypericum maculatum AM 194, 260, 261<br />

Hypericum montanum NM 260, 261<br />

Hypericum perforatum AM 409, 260, 261<br />

Hypericum pulchrum AM 260, 261<br />

Hypericum tetrapterum AM + NM 260, 261<br />

Elat<strong>in</strong>aceae<br />

Elat<strong>in</strong>e hex<strong>and</strong>ra AM 62<br />

Ochnaceae<br />

Lophira alata AM 445<br />

Chrysobalanaceae<br />

Licania platypus AM 321<br />

Oxalidaceae<br />

Oxalis acetosella AM 598<br />

AM + NM 260, 261<br />

Oxalis corniculata AM 294, 643, 260,<br />

261<br />

Oxalis corymbosa AM 643<br />

Oxalis exilis AM 260, 261<br />

Oxalis europaea AM 260, 261<br />

Oxalis stricta AM 260, 261<br />

Oxalis valdiviensis AM 207


335<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Cunoniaceae<br />

Ceratopetalum apetalum AM 387<br />

ECM 389<br />

Elaeocarpaceae<br />

Aristotelia chilensis AM 207<br />

Elaeocarpus austroyunnanensis<br />

AM 422<br />

Sloanea guianensis AM 31<br />

Polygalaceae<br />

Polygala nicaeensis AM 368<br />

Polygala amarella AM + NM 260, 261<br />

Polygala calcarea AM 260, 261<br />

Polygala serpyllifolia AM 260, 261<br />

Polygala vulgaris AM 194<br />

AM + ECM 260, 261<br />

Salomonia sp.<br />

Mycoheterotrophy 658<br />

via AM<br />

Fabaceae<br />

Acacia albida AM 174<br />

Acacia ampliceps AM 477<br />

Acacia arabica AM 317<br />

Acacia auriculiformis AM 52, 229<br />

Acacia bonariensis AM + ECM 211<br />

Acacia caven AM 211<br />

Acacia cochliacantha Weak AM 103<br />

Acacia constricta Weak AM 103<br />

Acacia eriopoda AM 477<br />

Acacia farnesiana AM 343, 600<br />

Weak AM 103<br />

Acacia holosericea ECM 186<br />

Acacia koa AM 326, 406<br />

Acacia leptocarpa AM 52<br />

Acacia l<strong>in</strong>ifolia AM 68<br />

ECM+AM 67<br />

Acacia mangium ECM 186, 187<br />

AM 52, 257, 520<br />

Acacia nilotica AM 473, 538<br />

Acacia obtusifolia ECM+AM 67<br />

Acacia pennatula AM 18<br />

Acacia polyphylla AM 651<br />

Acacia suaveolens ECM+AM 67<br />

Acacia tortilis AM 567<br />

Acacia ulicifolia ECM+AM 67<br />

Adenanthera pavon<strong>in</strong>a AM 52<br />

Aeschynomene <strong>in</strong>dica AM 546<br />

Afzelia africana NM 47<br />

ECM 45, 52<br />

Afzelia bipidensis ECM+AM 413, 445<br />

Afzelia pachyloba AM + ECM 445<br />

Afzelia quanzensis ECM 418<br />

Albizia corniculata AM 655<br />

Albizia falcataria AM 14<br />

Albizia ferrug<strong>in</strong>ea AM 52, 256<br />

Albizia gummifera AM 637, 638<br />

Albizia hassleri AM 651<br />

Albizia kalkora AM 343<br />

Albizia lebbeck AM 52, 216, 477,<br />

538, 548<br />

Albizia schimperiana AM 637, 638<br />

Alysicarpus regosus AM 336<br />

Alysicarpus vag<strong>in</strong>alis AM 343<br />

Amorpha crenulata AM 202<br />

Amphimas ferrug<strong>in</strong>eus AM 445<br />

Amphimas pterocarpoides AM 52, 445<br />

Anadenanthera colubr<strong>in</strong>a AM 452, 651<br />

Anadenanthera falcata AM 548<br />

Anadenanthera<br />

AM 651<br />

macrocarpa<br />

Anadenanthera peregr<strong>in</strong>a AM 528, 593<br />

Anthonotha fragrans ECM 52<br />

ECM+AM 413, 445<br />

Anthonotha macrophylla ECM 52, 413, 445<br />

Anthyllis cytisoides AM 170, 234, 583<br />

Anthyllis tetraphylla AM 472<br />

Anthyllis vulneraria AM 456<br />

AM + NM 260, 261<br />

Aphanocalyx<br />

ECM 413<br />

cynometroides<br />

Arachis hypogaea AM 111<br />

Astragalus alp<strong>in</strong>us NM 594<br />

Astragalus applegatei AM 55<br />

Astragalus glycyphyllos NM 260, 261<br />

Atylosia scarabaeoides AM 343<br />

Baphia nitida AM 52<br />

Bauh<strong>in</strong>ia forficata AM 211, 651<br />

Berl<strong>in</strong>ia bracteosa ECM 445<br />

Berl<strong>in</strong>ia confusa ECM 52, 445<br />

Bossiaea obcordata AM 67<br />

Brachystegia<br />

ECM 445<br />

cynometroides<br />

Brachystegia eurycoma ECM 445<br />

Brachystegia leonensis ECM 52<br />

Brachystegia zenkeri ECM 445<br />

Bussea occidentalis AM 52<br />

Caesalp<strong>in</strong>ia eriostachys AM 20<br />

Caesalp<strong>in</strong>ia ferrea AM 548<br />

Caesalp<strong>in</strong>ia gilliesii AM 211<br />

Caesalp<strong>in</strong>ia pannosa AM 112<br />

Caesalp<strong>in</strong>ia peltophoroides AM 548<br />

Cajanus cajan AM 172, 624<br />

Calli<strong>and</strong>ra eriophylla Weak AM 103<br />

Calli<strong>and</strong>ra parvifolia Weak AM + ECM 211<br />

Calli<strong>and</strong>ra selloi AM 211<br />

Calli<strong>and</strong>ra tweedii AM + ECM 211<br />

Calopogonium caeruleum AM 289<br />

Calopogonium mucunoides AM 439


336<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Canavalia rosea AM 144, 336<br />

Cassia gr<strong>and</strong>is AM 548<br />

Cassia siamea AM 52, 230, 251<br />

Cassia spectabilis AM 258<br />

Castanospermum australe AM 4<br />

Cathormion polyanthum AM 211<br />

Centrolobium tomentosum AM 372, 651<br />

Ceratonia siliqua AM 147<br />

Cercidium praecox AM 112<br />

Chamaecrista<br />

AM 143<br />

chamaecristoides<br />

Cicer ariet<strong>in</strong>um AM 124, 125<br />

Colophospermum mopane AM 477<br />

Copaifera langsdorffii AM 548, 651<br />

Cordyla p<strong>in</strong>nata AM 47<br />

Coronilla emerus AM 368<br />

ssp. emeroides<br />

Coronilla scorpioides AM 472<br />

Coronilla varia AM 159<br />

NM 260, 261<br />

Crotalaria burhia AM 567<br />

Crotalaria <strong>in</strong>cana AM 143<br />

Crotalaria medicag<strong>in</strong>ea AM 343, 567<br />

Cullen discolor AM 438<br />

Cullen pallida AM 438<br />

Cylicodiscus gabunensis AM 445<br />

Cynometra alex<strong>and</strong>ri AM 591<br />

Cynometra leonensis AM 52<br />

Cynometra sanagaensis AM 445<br />

Cytisus scoparius AM 260, 261<br />

Dalbergia obtusifolia AM 655<br />

Dalbergia sissoo AM 317, 473<br />

Daniella ogea AM 445<br />

Daviesia corymbosa AM 67<br />

Desmanthus ill<strong>in</strong>oensis AM 541<br />

Desmodium heterophyllum AM 355<br />

Desmodium microphyllum AM 343<br />

Desmodium oxyphyllum AM 643<br />

Desmodium paniculatum AM 541<br />

Detarium macrocarpum AM 445<br />

Dialium gu<strong>in</strong>eense AM 47, 52<br />

Dicorynia guianensis AM 71, 161<br />

Didelotia africana ECM + Weak AM 413<br />

ECM 445<br />

Didelotia letouzeyi ECM 413, 445<br />

Dillwy<strong>in</strong>ia parvifolia ECM+AM 67<br />

var. tricopoda<br />

Dillwynia retorta ECM 67<br />

AM 589<br />

Diphysa rob<strong>in</strong>oides AM 143<br />

Dipteryx panamensis AM 321<br />

Distemonanthus<br />

AM 445<br />

benthamianus<br />

Dorycnium hirsutum NM 368<br />

Enterolobium<br />

AM 211, 651<br />

contortisiliquum<br />

Enterolobium cyclocarpum AM 143, 256<br />

Eperua falcata AM 161<br />

Erythr<strong>in</strong>a berteroana AM 142<br />

Erythr<strong>in</strong>a crista-galli AM 211<br />

Erythr<strong>in</strong>a poeppigiana AM 148<br />

Erythrophleum ivorense AM 52, 445<br />

Eysenhardtia polystachya Weak AM 103<br />

Faidherbia albida AM 46<br />

Genista hirsute AM 339<br />

Genista t<strong>in</strong>ctoria AM 260, 261<br />

Ge<strong>of</strong>froea decorticians AM 211<br />

Gilbertiodendron ECM 445<br />

brachystegioides<br />

Gilbertiodendron dewevrei ECM+AM 591<br />

ECM 445<br />

Gilbertiodendron preussi ECM 52<br />

Gleditsia amorphoides Weak AM + ECM 211<br />

Gliricidia sepium AM 52, 199, 258<br />

Glyceria maxima NM 62<br />

Glyc<strong>in</strong>e max AM 37<br />

Gompholobium<br />

AM 67<br />

gr<strong>and</strong>iflorum<br />

Gossweilerodendron AM 445<br />

balsamiferum<br />

Guibourtia tessmannii AM 445<br />

Havardia albicans AM 18<br />

Hedysarum confertum AM 496<br />

Hedysarum coronarium AM 351<br />

Hedysarum sp<strong>in</strong>osissimum AM 496<br />

Hippocrepis comosa AM 260, 261<br />

Hippocrepis unisiliquosa AM 472<br />

Holocalyx balansae Weak AM 651<br />

Hymenaea courbaril NM 548<br />

Indig<strong>of</strong>era brevidens Weak AM 438<br />

Indig<strong>of</strong>era cordifolia AM 567<br />

Indig<strong>of</strong>era l<strong>in</strong>ifolia AM 567<br />

Inga leiocalyc<strong>in</strong>a AM 627<br />

Inga marg<strong>in</strong>ata AM 31<br />

Inga sessilis AM 651<br />

Inga striata AM 651<br />

Inga urguuensis AM 211<br />

Intsia palembanica AM + ECM 14<br />

Julbernardia seretii ECM+AM 591<br />

ECM 445<br />

Koompassia malacensis NM 568<br />

Kummerowia striata AM 213<br />

Lablab purpureusus AM 640<br />

Laburnum anagyroides AM 260, 261


337<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Lathyrus montanus AM 260, 261<br />

Lathyrus japonicus AM 260, 261<br />

Lathyrus niger AM + NM 260, 261<br />

Lathyus odoratus AM 260, 261<br />

Lathyrus pratensis AM 194<br />

AM + NM 260, 261<br />

Lens cul<strong>in</strong>aris AM 319<br />

Leucaena leucocephala AM 18, 52, 254,<br />

326<br />

Lonchocarpus campestris AM 651<br />

Lonchocarpus<br />

Weak AM 651<br />

muehlbergianus<br />

Lonchocarpus nitidus AM + ECM 211<br />

Lotus corniculatus AM 140, 159, 194,<br />

307, 456<br />

AM + NM 260, 261<br />

Lotus glaber AM 508<br />

Lotus tenuis AM 396<br />

Lotus ulig<strong>in</strong>osus AM 260, 261<br />

Lup<strong>in</strong>us arcticus NM 594<br />

Lysiloma c<strong>and</strong>ida AM 112<br />

Machaerium m<strong>in</strong>utiflorum AM 651<br />

Machaerium stipitatum Weak AM 651<br />

Macrotyloma uniflorum AM 453<br />

Medicago littoralis AM 368<br />

Medicago lupul<strong>in</strong>a AM 260, 261<br />

Medicago mar<strong>in</strong>a AM 368<br />

Medicago polymorpha AM 294, 260, 261<br />

Medicago sativa AM 38, 159, 351,<br />

260, 261<br />

Melilotus alba AM 260, 261<br />

Melilotus <strong>of</strong>fic<strong>in</strong>alis AM 159, 260, 261<br />

Microberl<strong>in</strong>ia bisulcata ECM 413<br />

Mimosa adenantheroides Weak AM 103<br />

Mimosa bimucronata AM 452<br />

Mimosa biuncifera Weak AM 103<br />

AM 82<br />

Mimosa calcicola Weak AM 103<br />

Mimosa lacerata Weak AM 103<br />

Mimosa luisana AM 103<br />

Mimosa polyantha Weak AM 103<br />

Mimosa pudic AM 326<br />

Mimosa purpusii Weak AM 103<br />

Mimosa scabrella AM 31, 651<br />

Mimosa texana Weak AM 103<br />

Monopetalanthus le-testui ECM 445<br />

Monopetalanthus ECM 445<br />

microphyllus<br />

Mora excelsa AM 592<br />

Olneya tesota AM 112<br />

Onobrychis viciifolia AM 260, 261<br />

Onobrychis sativa AM 260, 261<br />

Ononis repens AM 260, 261<br />

Ononis sp<strong>in</strong>osa AM 260, 261<br />

Ormosia arborea NM 548<br />

AM 651<br />

Oxystigma buchholzii AM 445<br />

Oxystigma mannii AM 445<br />

Oxytropis scammaniana AM 594<br />

Pachyelasma tessmannii AM 445<br />

Paraberl<strong>in</strong>ia bifoliolata ECM 445<br />

Parapiptadenia rigida AM 211, 452, 651<br />

Parkia bicolor AM 52<br />

Parkia biglobosa AM 47, 247<br />

Parkia speciosa AM 14<br />

Park<strong>in</strong>sonia aculeata AM 211<br />

Peltophorum dubium AM 211<br />

NM 548, 651<br />

Pentaclethra macrophyll AM 52, 445<br />

Phaseolus lunatus AM 20<br />

Phaseolus mungo AM 478<br />

Phaseolus radiatus AM 478<br />

Phaseolus vulgaris AM 37<br />

Piptadeniastrum africanum AM 52, 445<br />

Plagiosiphon longitubus AM 445<br />

Plagiosiphon multijugus AM 445<br />

Platycyamus regnellii AM 548<br />

Poecilanthe parviflora AM 211, 651<br />

Prioria copaifera AM 592<br />

Prosopis articulata AM 112<br />

Prosopis c<strong>in</strong>eraria AM 379<br />

Prosopis gl<strong>and</strong>ulose AM 137<br />

Prosopis juliflora AM 76, 175, 567<br />

Prosopis laevigata AM 495<br />

Psoralea bitum<strong>in</strong>osa AM 472<br />

Pterocarpus angolensis AM 419<br />

Pterocarpus mildbraedii AM 445<br />

Pterocarpus soyauxii AM 445<br />

Pterogyne nitens Weak AM 651<br />

Pueraria phaseoloides AM 150<br />

Pultenaea elliptica ECM + AM 67<br />

Retama sphaerocarpa AM 16, 17, 497<br />

Rob<strong>in</strong>ia pseudoacacia ECM 330<br />

AM + ECM 582, 260, 261<br />

ECM + EEM 86<br />

Samanea saman AM 52<br />

Schizolobium parahyba AM 548<br />

Schrankia quadrivalvis AM 143<br />

Scorodophloeus zenkeri AM 445<br />

Scorpiurus muricatus AM 472<br />

Senna corymbosa AM 211<br />

Senna macranthera AM 548, 651<br />

Senna multijuga AM 548<br />

Senna siamea AM 441<br />

Senna spectabilis AM 548<br />

Sesbania aegyptiaca AM 231


338<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Sesbania gr<strong>and</strong>iflora AM 231<br />

Sesbania punicea AM 211<br />

Sesbania tomentosa AM 326, 227<br />

Sophora chrysophylla AM 326, 406<br />

Spartium junceum AM 368<br />

Strophostyles helvola AM 596<br />

Strophostyles umbellata AM 532<br />

Stryphnodendron AM 36<br />

microstachyum<br />

Stylosanthes guvanensis AM 545<br />

Stylosanthes<br />

AM 545<br />

scarbaeoides<strong>and</strong><br />

Swa<strong>in</strong>sona phacoides AM 438<br />

Tamar<strong>in</strong>dus <strong>in</strong>dica AM 47, 247, 343<br />

Tephrosia purpurea AM 216, 343<br />

Tephrosia sphaerospora AM 438<br />

Tetraberl<strong>in</strong>ia bifoliolata ECM + Weak AM 413<br />

ECM 445<br />

Tetraberl<strong>in</strong>ia moreliana ECM 413<br />

Tipuana tipu AM 548<br />

Toubaouate<br />

ECM 445<br />

brevipaniculata<br />

Trifolium arvense AM 307<br />

Trifolium aureum AM 194<br />

Trifolium dubium AM 643, 260, 261<br />

Trifolium fragiferum NM 260, 261<br />

Trifolium glomeratum AM 260, 261<br />

Trifolium hybridum AM 307<br />

AM + NM 260, 261<br />

Trifolium medium AM 260, 261<br />

Trifolium pratense AM 140, 159, 194,<br />

204, 456<br />

AM + NM 260, 261<br />

Trifolium repens AM 140, 194, 283,<br />

643, 260, 261<br />

Trifolium spadiceum AM 194<br />

Trifolium subterraneum AM 171<br />

AM + NM 260, 261<br />

Trigonella foenumgraecum AM 220<br />

Ulex europaeus AM 368, 260, 261<br />

Ulex gallii NM 260, 261<br />

Ulex parviflorus AM 497<br />

Vicia angustifolia AM 643<br />

var. segetalis<br />

Vicia cracca AM 194, 294, 260,<br />

261<br />

Vicia faba AM 191<br />

Vicia nigricans AM 207<br />

Vicia hirsute AM 643, 260, 261<br />

Vicia sativa AM 260, 261<br />

Vicia sepium AM 194, 260, 261<br />

Vicia sylvatica AM + ECM 260, 261<br />

Vicia tetrasperma AM 307, 260, 261<br />

Vicia villosa AM 140<br />

Vigna aconitifolius AM 343<br />

Vigna luteola AM 273<br />

Vigna mar<strong>in</strong>a AM 326, 547<br />

Vigna mungo AM 319<br />

Vigna parkeri AM 440<br />

Vigna radiate AM 377<br />

Vigna unguiculata AM 37, 287<br />

Xylia xylocarpa AM 315<br />

Zornia sp. Weak AM 103<br />

Rosaceae<br />

Acaena magellanica AM 342<br />

Acaena m<strong>in</strong>or NM 560<br />

AM 342<br />

Acaena novae-zel<strong>and</strong>iae AM 260, 261<br />

Acaena ovalifolia AM 207<br />

Acaena p<strong>in</strong>natifida AM 207<br />

Adenostoma fasciculatum AM + ECM 21<br />

Agrimonia eupatoria AM 260, 261<br />

Alchemilla alp<strong>in</strong>a AM 80, 194, 260,<br />

261<br />

Alchemilla glabra AM 260, 261<br />

Alchemilla glaucescens AM 194<br />

Alchemilla glomerulans AM 503<br />

Alchemilla vulagris agg. AM + NM 260, 261<br />

Alchemilla xanthochlora AM 260, 261<br />

Aphanes arvensis AM 260, 261<br />

Cotoneaster <strong>in</strong>tegerrimus AM 260, 261<br />

Crataegus laevigata AM + ECM 260, 261<br />

Crataegus monogyna ECM 368<br />

AM + ECM 260, 261<br />

Dryas octopetala ECM 80, 594<br />

AM + ECM 260, 261<br />

Duchesnea chrysantha AM 643<br />

Filipendula ulmaria AM + NM 260, 261<br />

Fragaria chiloensis AM 207<br />

Fragaria vesca AM + NM 260, 261<br />

Fragaria xananassa AM 537<br />

Geum rivale AM 194<br />

AM + NM 260, 261<br />

Geum urbanum AM 260, 261<br />

Geum virg<strong>in</strong>ianum AM 140<br />

Hagenia abyss<strong>in</strong>ica AM 637, 638<br />

Malus communis AM 260, 261<br />

Malus domestica AM 368<br />

Malus micromalus AM 26<br />

Malus pumila<br />

AM 233<br />

var. domestica<br />

Malus sylvestris AM + ECM 260, 261<br />

Osteomeles anthyllidifolia AM 326<br />

Ovidia <strong>and</strong><strong>in</strong>a AM 207<br />

Potentilla anglica AM 260, 261


339<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Potentilla anser<strong>in</strong>e AM 307, 626, 260,<br />

261<br />

Potentilla argentea AM 260, 261<br />

Potentilla c<strong>in</strong>erea AM 456<br />

Potentilla crantzii AM 194, 260, 261<br />

Potentilla erecta AM 194, 586<br />

AM + NM 260, 261<br />

Potentilla fruticosa AM 260, 261<br />

Potentilla hookeriana AM 443<br />

Potentilla palustris AM + NM 260, 261<br />

Potentilla pulchella AM 443<br />

Potentilla reptans AM 260, 261<br />

Potentilla sterilis AM 260, 261<br />

Potentilla tabernaemontani AM 260, 261<br />

Prunus africana AM 637, 638<br />

Prunus avium AM 465<br />

AM + ECM 260, 261<br />

Prunus cerasifera AM 73<br />

Prunus cerasus ECM 260, 261<br />

Prunus domestica AM + NM 260, 261<br />

Prunus maritima AM 324<br />

Prunus padus AM + ECM 260, 261<br />

Prunus sellowii Weak AM 651<br />

Prunus sp<strong>in</strong>osa AM + NM 260, 261<br />

Pyrus communis AM 219<br />

Pyrus pyraster AM + ECM 260, 261<br />

Rosa arvensis AM 260, 261<br />

Rosa can<strong>in</strong>a AM 81, 260, 261<br />

Rosa hybrida AM 160<br />

Rosa rubig<strong>in</strong>osa AM 207<br />

Rosa rugosa AM 324<br />

Rosa sempervirens AM 368<br />

Rubus caesius AM 260, 261<br />

Rubus chamaemorus NM 260, 261<br />

Rubus fruticosus s. l. AM 260, 261<br />

Rubus idaeus AM 573, 574<br />

AM + NM 260, 261<br />

Rubus nessensis AM + ECM 260, 261<br />

Rubus rufus AM 422<br />

Rubus saxatilis AM 260, 261<br />

Rubus ulmifolius AM 368<br />

Sanguisorba m<strong>in</strong>or AM 260, 261<br />

Sanguisorba <strong>of</strong>fic<strong>in</strong>alis AM 260, 261<br />

Sibbaldia procumbens AM 594<br />

NM 260, 261<br />

Sorbus aria AM + ECM 260, 261<br />

Sorbus aucuparia AM + ECM + NM 260, 261<br />

Sorbus torm<strong>in</strong>alis ECM 260, 261<br />

Spiraea latifolia AM 140<br />

Spiraea tomentosa AM 140<br />

Rhamnaceae<br />

Colletia hystrix AM 207<br />

Colubr<strong>in</strong>a glabra AM 112<br />

Colubr<strong>in</strong>a gl<strong>and</strong>ulosa AM 651<br />

Colubr<strong>in</strong>a oppositifolia AM 227<br />

Condalia globosa AM 112<br />

Discaria articulata AM 207<br />

Discaria chacaye AM 207<br />

Frangula alnus AM + ECM + NM 260, 261<br />

Hovenia dulcis AM 548<br />

Phylica ericoides AM 24<br />

Rhamnus catharticus AM + NM 260, 261<br />

Rhamnus lycioides AM 17, 108<br />

Ventilago calyculata AM 655<br />

Zizyphus mauritiana AM 47, 343, 378,<br />

381, 655<br />

Zizyphus nummularia AM 567<br />

Zizyphus obtusifolia AM 112<br />

Ziziphus xylopyrus AM 380<br />

Elaeagnaceae<br />

Elaeagnus commutata AM 613<br />

Hippophae rhamnoides AM 405, 260, 261<br />

Hippophae tibetana AM 581<br />

Shepherdia canadensis AM 581<br />

Ulmaceae<br />

Celtis wightii AM 422<br />

Gironniera subaequalis NM 422<br />

Trema micrantha AM 548, 651<br />

Trema orientalis AM 445<br />

Ulmus glabra AM 260, 261<br />

Ulmus procera AM + ECM 260, 261<br />

Cannabaceae<br />

Humulus lupulus AM + NM 260, 261<br />

Moraceae<br />

Artocarpus altilis AM 136<br />

Brosimum alicastrum AM 18<br />

Brosimum lactescens AM 31<br />

Broussonetia papyrifera AM 343<br />

Ficus cyrtophylla NM 655<br />

Ficus guaranitica AM 651<br />

Ficus hirta AM 422<br />

Ficus hispida AM 655<br />

Ficus langkokensis AM 655<br />

Milicia excelsa AM 445<br />

Milicia regia AM 279<br />

Morus alba AM 475, 535<br />

Musanga cecropioides AM 445<br />

Sorocea bonpl<strong>and</strong>ii Weak AM 651<br />

Urticaceae<br />

Boehmeria zoll<strong>in</strong>geriana AM 422<br />

Cecropia glaziovii AM 651<br />

Cecropia pachystachya AM 651<br />

Elatostema parvum AM 422<br />

Parietaria judaica AM + NM 260, 261<br />

Pipturus albidus AM 326


340<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Touchardia latifolia NM 326<br />

Urera glabra AM 326<br />

Urtica dioica NM 611<br />

AM + NM 260, 261<br />

Urtica urens NM 260, 261<br />

Cucurbitaceae<br />

Bryonia dioica AM 260, 261<br />

Citrullus lanatus AM 310, 438<br />

Ctenolepis cerasiformis AM 567<br />

Cucumis callosus AM 567<br />

Cucumis sativus AM 499<br />

Cucurbita foetidissima AM 396<br />

Cucurbita pepo AM 340<br />

Mukia maderaspatana AM 216<br />

Begoniaceae<br />

Begonia angust<strong>in</strong>ei AM 422<br />

Begonia cathayana AM 422<br />

Hillebr<strong>and</strong>ia s<strong>and</strong>wicensis AM 326<br />

Tetramelaceae<br />

Tetrameles nudiflora AM 422<br />

Fagaceae<br />

Castanea sativa ECM 260, 261<br />

Castanopsis borneensis ECM 267<br />

Castanopsis <strong>in</strong>dica NM 422<br />

AM 655<br />

Fagus sylvatica ECM 529, 260, 261<br />

Lithocarpus densiflora ECM 375<br />

Lithocarpus leucostachyus NM 422<br />

Noth<strong>of</strong>agus dombeyi ECM 207<br />

Quercus alba ECM 444, 470<br />

Quercus cerris ECM 260, 261<br />

Quercus ilex ECM 368, 472, 260,<br />

261<br />

Quercus petraea ECM 53, 260, 261<br />

Quercus pubescens ECM 138<br />

Quercus robur ECM 53, 368, 260,<br />

261<br />

Quercus rubra ECM 214<br />

Myricaceae<br />

Comptonia peregr<strong>in</strong>a Facultative AM 284<br />

Myrica cerifera AM 468<br />

Myrica faya AM 326<br />

Myrica gale Facultative AM 146<br />

AM + NM 260, 261<br />

Myrica pensylvanica NM 324<br />

Facultative AM 284<br />

Jugl<strong>and</strong>aceae<br />

Engelhardtia roxburghiana ECM 267<br />

Juglans nigra AM 465<br />

Juglans regia AM 177<br />

AM + ECM + NM 260, 261<br />

Betulaceae<br />

Alnus acum<strong>in</strong>ata ECM 61<br />

Alnus cordata AM 361<br />

Alnus glut<strong>in</strong>osa AM 210<br />

ECM + AM 368<br />

ECM 471<br />

AM + ECM + 260, 261<br />

EEM + NM<br />

Alnus <strong>in</strong>cana AM 34<br />

AM + ECM 260, 261<br />

Alnus s<strong>in</strong>uate ECM 271<br />

Alnus tenuifolia ECM 641<br />

Betula alleghaniensis ECM 162, 516<br />

Betula lenta ECM 619<br />

Betula nana ECM 594, 260, 261<br />

Betula papyrifera ECM 303<br />

Betula pendula ECM 92, 155<br />

ECM+EEM 260, 261<br />

Betula pubescens ECM 370<br />

ECM+EEM 260, 261<br />

Betula verrucosa ECM 217<br />

Carp<strong>in</strong>us betulus ECM 529, 260, 261<br />

Corylus avellana ECM 367, 529, 260,<br />

261<br />

Casuar<strong>in</strong>aceae<br />

Allocasuar<strong>in</strong>a littoralis ECM 579<br />

Casuar<strong>in</strong>a<br />

Weak AM 485<br />

cunn<strong>in</strong>ghamiana AM 316<br />

Weak ECM 579<br />

Casuar<strong>in</strong>a equisetifolia AM 447, 326, 542,<br />

606<br />

Casuar<strong>in</strong>a equisetifolia ECM 579<br />

ssp. equisetifolia<br />

Tropaeolaceae<br />

Tropaeolum majus AM 360, 610<br />

Mor<strong>in</strong>gaceae<br />

Mor<strong>in</strong>ga concanensis AM 450<br />

Caricaceae<br />

Carica papaya AM 360, 595<br />

Bataceae<br />

Batis maritime NM 326<br />

Resedaceae<br />

Reseda lutea AM + NM 260, 261<br />

Reseda luteola AM + NM 260, 261<br />

Capparidaceae<br />

Atamisquea emarg<strong>in</strong>ata AM 112<br />

Capparis s<strong>and</strong>wichiana NM 326<br />

Brassicaceae<br />

Alliaria petiolata NM 260, 261<br />

Alyssum montanum NM 456<br />

Arabidopsis thaliana Weak AM + NM 260, 261<br />

Arabis alp<strong>in</strong>a NM 260, 261<br />

Arabis hirsuta NM 472, 260, 261


341<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Armoracia rusticana AM + NM 260, 261<br />

Barbarea vulgaris NM 260, 261<br />

Biscutella laevigata NM 456<br />

AM 446, 260, 261<br />

Blennodia pterosperma NM 438<br />

Brassica napus AM + NM 260, 261<br />

Brassica nigra NM 83, 260, 261<br />

Brassica oleracea AM + NM 260, 261<br />

Brassica rapa NM 260, 261<br />

Cakile maritima NM 368<br />

AM + NM 260, 261<br />

Capsella bursa-pastoris Facultative AM 167<br />

AM 164<br />

AM + NM 260, 261<br />

Cardam<strong>in</strong>e amara NM 260, 261<br />

Cardam<strong>in</strong>e bulbifera AM + NM 260, 261<br />

Cardam<strong>in</strong>e concatenata NM 165<br />

Cardam<strong>in</strong>e corymbosa NM 342<br />

Cardam<strong>in</strong>e flexuosa AM + NM 260, 261<br />

Cardam<strong>in</strong>e hirsuta AM + NM 260, 261<br />

Cardam<strong>in</strong>e impatiens NM 260, 261<br />

Cardam<strong>in</strong>e pratensis NM 260, 261<br />

Cardam<strong>in</strong>e trifolia NM 260, 261<br />

Cardam<strong>in</strong>opsis arenosa AM 456<br />

Cochlearia anglica AM + NM 260, 261<br />

Cochlearia danica AM 260, 261<br />

Cochlearia <strong>of</strong>fic<strong>in</strong>alis AM + NM 260, 261<br />

Diplotaxis erucoides AM + NM 260, 261<br />

Diplotaxis muralis AM + NM 260, 261<br />

Erophila verna NM 260, 261<br />

Erysimum cheiranthoides NM 260, 261<br />

Hesperis matronalis Facultative AM 167<br />

Iberis amara AM 260, 261<br />

Isatis t<strong>in</strong>ctoria NM 260, 261<br />

Lepidium bidentatum AM 326<br />

Lepidium phlebopetalum NM 438<br />

Lepidium ruderale NM 260, 261<br />

Lepidium serra NM 326<br />

Matthiola <strong>in</strong>cana Facultative AM 167<br />

Nasturtium <strong>of</strong>fic<strong>in</strong>ale NM 260, 261<br />

Pr<strong>in</strong>glea antiscorbutica NM 560<br />

Raphanus raphanistrum NM 260, 261<br />

Raphanus sativus AM + NM 260, 261<br />

Rorippa amphibia NM 62<br />

Rorippa isl<strong>and</strong>ica AM 140<br />

Rorippa palustris NM 260, 261<br />

S<strong>in</strong>apis alba NM 260, 261<br />

Sisymbrium loeselii NM 260, 261<br />

Sisymbrium <strong>of</strong>fic<strong>in</strong>ale AM + NM 260, 261<br />

Sisymbrium orientale NM 260, 261<br />

Thlaspi arvense NM 260, 261<br />

Thlaspi caerulescens AM 488<br />

Thlaspi montanum AM 488<br />

Thlaspi praecox AM 488, 614<br />

Thymelaeaceae<br />

Daphne laureola AM 260, 261<br />

Daphne gnidium AM 368<br />

Daphne mezereum AM + NM 260, 261<br />

Gonystylus bancanus AM 568<br />

Pimelea l<strong>in</strong>ifolia AM 67<br />

Wikstroemia furcata AM 326<br />

Bixaceae<br />

Cochlospermum vitifolium AM 20<br />

Cistaceae<br />

Cistus creticus ECM 368<br />

Cistus ladanifer ECM 339<br />

Cistus <strong>in</strong>canus ECM 368<br />

Cistus monspeliensis ECM 368<br />

ECM + AM 472<br />

Fumana thymifolia AM 472<br />

Helianthemum almeriense EEM + ECM 249<br />

Helianthemum apenn<strong>in</strong>um AM + ECM + EEM 260, 261<br />

Helianthemum canum AM + ECM + EEM 260, 261<br />

Helianthemum guttatum ECM + EEM 209<br />

Helianthemum<br />

ECM 80<br />

nummularium<br />

AM + ECM + EEM 260, 261<br />

Helianthemum ovatum ECM 330<br />

Tuberaria guttata ECM 260, 261<br />

Dipterocarpaceae<br />

Hopea mengarawan NM 568<br />

Shorea balangeran AM 568<br />

Shorea leprosula ECM 14<br />

Shorea teysmanniana AM 568<br />

Shorea ulig<strong>in</strong>osa AM 568<br />

Malvaceae<br />

Abelmoschus esculentus AM 69<br />

Abutilon californicum AM 112<br />

Abutilon <strong>in</strong>dicum AM 343<br />

Abutilon otocarpum AM 438<br />

Abutilon theophrasti AM 553<br />

Althaea <strong>of</strong>fic<strong>in</strong>alis AM 260, 261<br />

Bastardiopsis densiflora AM 651<br />

Gossypium hirsutum AM 7, 649<br />

Gossypium tomentosum AM 326<br />

Kokia kauaiensis AM 326<br />

Malva sylvestris AM 260, 261


342<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Thespesia populnea AM 326<br />

Sida ammophila NM + Weak AM 438<br />

Sida cordifolia AM 567<br />

Sida fallax AM 326<br />

Sida szechuensis AM 343<br />

Malvaceae (Bombacoideae)<br />

Adansonia digitata AM 47<br />

Bombax malabaricum AM 343<br />

Ceiba pent<strong>and</strong>ra AM 18<br />

Ceiba speciosa AM 548<br />

Chorisia speciosa AM 651<br />

Ochroma pyramidale AM 321<br />

Pseudobombax<br />

AM 651<br />

gr<strong>and</strong>iflorum<br />

Malvaceae (Tilioideae)<br />

Corchorus tridens AM 567<br />

Grewia biloba AM 343<br />

Heliocarpus americanus AM 651<br />

Heliocarpus<br />

AM 244, 245<br />

appendiculatus<br />

Heliocarpus pallidus AM 20<br />

Luehea c<strong>and</strong>icans AM 651<br />

Luehea divaricata AM 651<br />

Luehea gr<strong>and</strong>iflora AM 548<br />

Luehea seemannii AM 321<br />

Tilia cordata ECM 529<br />

AM + ECM + NM 260, 261<br />

Tilia platyphyllos ECM 549, 260, 261<br />

Tilia × vulgaris ECM 260, 261<br />

Malvaceae (Sterculioideae)<br />

Eribroma oblonga AM 445<br />

Guazuma ulmifolia AM 18, 32, 651<br />

Pterigota macrocarpa AM 445<br />

Pterospermum<br />

AM 422<br />

menglunense<br />

Pterospermum yunnanensis AM 655<br />

Theobroma cacao AM 131, 321<br />

Waltheria <strong>in</strong>dica AM 143, 326<br />

Rutaceae<br />

Acronychia pedunculata AM 655<br />

Agathosma ovata AM 24<br />

Boronia thujona AM 67<br />

Citrus aurantifolia AM 400<br />

Citrus aurantium AM 429<br />

Citrus jambhiri AM 176<br />

Eriostemon australasius AM 67<br />

Fagara heitzii AM 445<br />

Fl<strong>in</strong>dersia brayleana AM 222<br />

Melicope barbigera AM 326<br />

Paramignya retisp<strong>in</strong>a AM 655<br />

Zanthoxylum rhetsa AM 315<br />

Meliaceae<br />

Azadirachta excelsa AM 282<br />

Azadirachta <strong>in</strong>dica AM 255, 427, 477<br />

Cabralea canjerana AM 31<br />

Cedrella fissilis AM 548, 593, 651<br />

Chisocheton siamensis Facultative AM 422<br />

Ekebergia capensis AM 637, 638<br />

Ent<strong>and</strong>rophragma AM 445<br />

angolense<br />

Ent<strong>and</strong>rophragma AM 445<br />

c<strong>and</strong>ollei<br />

Ent<strong>and</strong>rophragma AM 445<br />

cyl<strong>in</strong>dricum<br />

Ent<strong>and</strong>rophragma utile AM 445<br />

Guarea cedrata AM 445<br />

Guarea kunthiana Weak AM 651<br />

Khaya ivorensis AM 445<br />

Lansium domesticum AM 422<br />

Lovoa trichilioides AM 445<br />

Melia azedarach AM 422<br />

Melia toos<strong>and</strong>en NM 422<br />

Swietenia macrophylla AM 433<br />

Trichilia casaretti Weak AM 651<br />

Trichilia claussenii Weak AM 651<br />

Trichilia elegans Weak AM 651<br />

Simaroubaceae<br />

Castella pen<strong>in</strong>sularis AM 112<br />

Irv<strong>in</strong>gia gabonensis AM 445<br />

Anacardiaceae<br />

Anacardium excelsum AM 321<br />

Anacardium occidentale AM 27, 47<br />

Antrocaryon kla<strong>in</strong>eanum AM 445<br />

Astronium graveolens AM 651<br />

Campnosperma<br />

AM 568<br />

auriculatum<br />

Cyrtocarpa edulis AM 112<br />

Mangifera sp. AM 486<br />

Pistacia atlantica AM 197<br />

Pistacia lentiscus AM 368, 472<br />

Pistacia palest<strong>in</strong>a AM 197<br />

Pistacia tereb<strong>in</strong>thus AM 104<br />

Pistacia vera AM 197<br />

Sch<strong>in</strong>us patagonicus AM 207<br />

Sch<strong>in</strong>us tereb<strong>in</strong>thifolius AM 548, 651<br />

Sclerocarya birrea AM 47<br />

Trychoscypha acum<strong>in</strong>ata AM 445<br />

Burseraceae<br />

Bursera fagaroides NM 103<br />

AM 112<br />

Bursera h<strong>in</strong>dsiana Weak AM 112<br />

Bursera microphylla Weak AM 112<br />

Canarium schwe<strong>in</strong>furthii AM 445<br />

Sap<strong>in</strong>daceae<br />

Acer campestre AM + ECM + NM 260, 261


343<br />

Table 1 (cont<strong>in</strong>ued)<br />

Exam<strong>in</strong>ed species a<br />

Mycorrhizal<br />

status b,c<br />

References<br />

Acer platanoides AM 607<br />

AM + ECM + NM 260, 261<br />

Acer pseudoplatanus AM 465, 622<br />

AM + ECM + NM 260, 261<br />

Acer rubrum AM 140<br />

Acer saccharum AM 141, 162, 470<br />

Aesculus hippocastanum AM 260, 261<br />

Allophylus schwe<strong>in</strong>furthii AM 445<br />

Aphania senegalensis AM 47<br />

Blighia welwitschii AM 445<br />

Cardiospermum cor<strong>in</strong>dum AM 112<br />

De<strong>in</strong>bollia pycnophylla AM 445<br />

Dodonaea viscosa AM 326, 343, 479<br />

Eriocoelum macrocarpum AM 445<br />

Harpullia cupanioides AM 655<br />

Lepisanthes senegalensis Facultative AM 422<br />

Litchi ch<strong>in</strong>ensis AM 326<br />

Matayba guianensis AM 31<br />

Pometia tomentosa AM 422<br />

NM 655<br />

Sap<strong>in</strong>dus saponaria AM 548<br />

Some unplaced taxa<br />

Bruniaceae<br />

Staavia radiata AM 24<br />

Escalloniaceae<br />

Escallonia rubra AM 207<br />

a The families <strong>in</strong> column 1 are divided <strong>in</strong>to four groups: bryophytes,<br />

pteridophytes, gymnosperms <strong>and</strong> angiosperms. For each group, the<br />

order <strong>of</strong> families is consistent with the phylogeny used <strong>in</strong> Fig. 1<br />

b The mycorrhizal types shown <strong>in</strong> column 2 are consistent to the<br />

current widely used system <strong>of</strong> Smith <strong>and</strong> Read (1997): AM<br />

arbuscular mycorrhiza, ECM ectomycorrhiza, EEM ectendomycorrhiza,<br />

ORM orchid mycorrhiza, ERM ericoid mycorrhiza,<br />

MTM monotropoid mycorrhiza, ABM arbutoid mycorrhiza,<br />

as well as NM nonmycorrhiza, <strong>and</strong> mycoheterotrophy<br />

c For the bryophytes, fungal associations were used <strong>in</strong>stead <strong>of</strong><br />

mycorrhiza; A, B, <strong>and</strong> G <strong>in</strong>dicate ascomycetous, basidiomycetous,<br />

<strong>and</strong> glomeromycetous fungal associations, respectively<br />

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mosses (Fig. 1; but see Boullard 1988 for mycorrhizoids <strong>in</strong><br />

Takakia), tends to suggest that these plant–fungus <strong>in</strong>teractions<br />

began when l<strong>and</strong> <strong>plants</strong> orig<strong>in</strong>ated. At present, there is<br />

no doubt that bryophytes preceded vascular <strong>plants</strong> dur<strong>in</strong>g<br />

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Table 1 (cont<strong>in</strong>ued)<br />

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658. Leake JR (1994) New Phytol 127:171–216<br />

659. Woltz P, Stockey RA, Gondran M, Cherrier JF, Bernard J<br />

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Furthermore, liverworts are clearly favored as the earliest<br />

divergent l<strong>in</strong>eage <strong>of</strong> extant l<strong>and</strong> <strong>plants</strong> accord<strong>in</strong>g to emerg<strong>in</strong>g<br />

molecular evidence (Qiu et al. 1998; Dombrovska <strong>and</strong> Qiu<br />

2004; Groth-Malonek et al. 2005; Qiu et al. unpublished),<br />

despite some l<strong>in</strong>ger<strong>in</strong>g controversy on relationships among<br />

three bryophyte l<strong>in</strong>eages: liverworts, mosses, <strong>and</strong> hornworts<br />

(see Qiu <strong>and</strong> Lee 2000; Renzaglia et al. 2000). Hence, the<br />

widespread occurrence <strong>of</strong> fungal association <strong>in</strong> liverworts<br />

deserves some attention here.<br />

Mycorrhizas, or more precisely mycorrhizoids <strong>and</strong><br />

mycothalli, are found <strong>in</strong> many <strong>of</strong> the liverworts that have<br />

been <strong>in</strong>vestigated (Pocock <strong>and</strong> Duckett 1985; Boullard<br />

1988; Duckett et al. 1991). Several aspects <strong>of</strong> these<br />

symbioses revealed by recent studies may help clarify their<br />

<strong>evolution</strong>ary relationship to <strong>mycorrhizas</strong> <strong>in</strong> vascular <strong>plants</strong>.<br />

First, <strong>in</strong> cases where detailed ultrastructural analysis has<br />

been done, structures similar to those <strong>in</strong> the endo<strong>mycorrhizas</strong><br />

<strong>of</strong> vascular <strong>plants</strong>, i.e. arbuscules, have been<br />

observed <strong>in</strong> some liverworts (Read et al. 2000; Carafa et<br />

al. 2003; Russell <strong>and</strong> Bulman 2005). Second, cross<strong>in</strong>oculation<br />

experiments have conv<strong>in</strong>c<strong>in</strong>gly demonstrated<br />

that the same fungi can <strong>in</strong>fect both liverworts <strong>and</strong><br />

angiosperms <strong>and</strong> produce similar structures for either<br />

glomeromycetous or ascomycetous <strong>mycorrhizas</strong> (Read et<br />

al. 2000). Third, although isotopic trac<strong>in</strong>g <strong>of</strong> nutrient,<br />

water, <strong>and</strong> carbon exchange has not been done for most<br />

liverwort–fungus symbioses, the carbon flow from Betula<br />

through the ectomycorrhizal fungus Tulasnella to the<br />

mycoheterotrophic liverwort Cryptothallus has been confirmed<br />

by a 14 C feed<strong>in</strong>g experiment (Bidartondo et al.<br />

2003). F<strong>in</strong>ally, the <strong>evolution</strong>ary pattern <strong>of</strong> plant–fungus<br />

symbiosis observed <strong>in</strong> angiosperms by Trappe (1987) <strong>and</strong><br />

<strong>in</strong> vascular <strong>plants</strong> (this study), i.e., glomeromycetous<br />

<strong>mycorrhizas</strong> be<strong>in</strong>g the common type <strong>and</strong> occurr<strong>in</strong>g <strong>in</strong><br />

early-diverg<strong>in</strong>g plant l<strong>in</strong>eages <strong>and</strong> ascomycetous <strong>and</strong><br />

basidiomycetous <strong>mycorrhizas</strong> be<strong>in</strong>g the rare type <strong>and</strong><br />

found <strong>in</strong> late-evolv<strong>in</strong>g plant l<strong>in</strong>eages, is also seen <strong>in</strong><br />

liverworts (Fig. 1). These four l<strong>in</strong>es <strong>of</strong> evidence <strong>in</strong>dicate<br />

that even though the plant structures <strong>in</strong>volved <strong>in</strong> symbiosis<br />

are probably structurally <strong>and</strong> functionally analogous<br />

between liverworts <strong>and</strong> vascular <strong>plants</strong>, the nature <strong>of</strong> the<br />

biological <strong>in</strong>teraction is almost certa<strong>in</strong> to be <strong>evolution</strong>arily<br />

homologous. Besides further <strong>in</strong>vestigations <strong>of</strong> the functional<br />

aspects <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> liverworts <strong>and</strong> other<br />

bryophytes as suggested by Read et al. (2000), one l<strong>in</strong>e <strong>of</strong><br />

evidence that will provide conclusive support for <strong>evolution</strong>ary<br />

homology between the mycorrhizal symbioses <strong>in</strong><br />

bryophytes <strong>and</strong> vascular <strong>plants</strong> could come from studies <strong>of</strong><br />

plant genes that are <strong>in</strong>volved <strong>in</strong> the processes, some <strong>of</strong>


Table 2 Mycorrhizal <strong>in</strong>vestigation <strong>of</strong> four major groups <strong>of</strong> l<strong>and</strong> <strong>plants</strong> at both family <strong>and</strong> species levels<br />

Group Total number <strong>of</strong><br />

families/species<br />

surveyed<br />

No. (%) <strong>of</strong> mycorrhizal<br />

families (obligate <strong>and</strong><br />

facultative)<br />

No. (%) <strong>of</strong><br />

facultatively<br />

mycorrhizal species<br />

No. (%) <strong>of</strong><br />

obligately<br />

mycorrhizal<br />

species<br />

No. (%) <strong>of</strong><br />

nonmycorrhizal<br />

families<br />

No. (%) <strong>of</strong><br />

nonmycorrhizal<br />

species<br />

Bryophytes 28/143 20 (71%) 60 (42%) 6 (4%) 8 (29%) 77 (54%)<br />

Pteriophytes 28/426 26 (93%) 185 (43%) 39 (9%) 2 (7%) 202 (47%)<br />

Gymnosperms 12/84 12 (100%) 83 (99%) 1 (1%) 0 (0%) 0 (0%)<br />

Angiosperms 195/2,964 184 (94%) 2,141 (72%) 396 (13%) 11 (6%) 427 (14%)<br />

Sum 263/3,617 242 (92%) 2,469 (68%) 442 (12%) 21 (8%) 706 (20%)<br />

353<br />

which have been identified <strong>in</strong> recent studies (Stracke et al.<br />

2002; Liu et al. 2003; Ane et al. 2004; Demchenko et al.<br />

2004; Levy et al. 2004). If the same genes are found to<br />

control development <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> all groups regardless<br />

<strong>of</strong> their expression <strong>in</strong> the gametophytes <strong>of</strong> bryophytes<br />

or the sporophytes <strong>of</strong> vascular <strong>plants</strong>, <strong>and</strong> if the gene<br />

phylogenies are congruent to the plant phylogeny, the f<strong>in</strong>al<br />

doubt about homology <strong>of</strong> the two types <strong>of</strong> symbioses will<br />

be dispelled.<br />

If the mycorrhizal symbiosis <strong>in</strong> liverworts, other bryophytes,<br />

such as the moss Takakia (see Boullard 1988), <strong>and</strong><br />

hornworts proves to be homologous to that <strong>in</strong> vascular<br />

<strong>plants</strong>, it becomes obvious that mycorrhiza was <strong>in</strong>deed an<br />

important means <strong>of</strong> water <strong>and</strong> nutrient uptake adopted by the<br />

earliest l<strong>and</strong> <strong>plants</strong> (Pirozynski <strong>and</strong> Malloch 1975). Fossil<br />

evidence is <strong>in</strong> agreement with such a scenario. Both<br />

glomeromycetous fungi (Redecker et al. 2000) <strong>and</strong>liverworts<br />

(Wellman et al. 2003) evolved by the Ordovician,<br />

when <strong>plants</strong> colonized the l<strong>and</strong> (Kenrick <strong>and</strong> Crane 1997).<br />

Fossil <strong>mycorrhizas</strong> formed between nonseptate fungi <strong>and</strong> the<br />

protracheophyte Aglaophyton major have been uncovered<br />

from the Rhynie chert, confirm<strong>in</strong>g that this type <strong>of</strong> plant–<br />

fungus <strong>in</strong>teraction existed at least 400 million years ago<br />

(Remy et al. 1994;Kerpetal.2004; Taylor et al. 2005). It is<br />

possible that <strong>evolution</strong> <strong>of</strong> mycorrhiza might even have<br />

predated the orig<strong>in</strong> <strong>of</strong> l<strong>and</strong> <strong>plants</strong>, if fungal association <strong>in</strong> the<br />

ext<strong>in</strong>ct charophyte Palaeonitella (Taylor et al. 1992) is<br />

mycorrhizal. We conclude that although more work is<br />

needed to solidify the relationship between mycorrhizal<br />

symbioses <strong>in</strong> bryophytes <strong>and</strong> vascular <strong>plants</strong>, <strong>in</strong>clud<strong>in</strong>g<br />

morphological, physiological, <strong>and</strong> molecular characterization<br />

<strong>of</strong> the plant–fungus <strong>in</strong>teractions <strong>in</strong> both bryophytes <strong>and</strong><br />

early vascular <strong>plants</strong> (see Read et al. 2000), all available<br />

evidence seems to po<strong>in</strong>t to an orig<strong>in</strong> <strong>of</strong> <strong>mycorrhizas</strong> at the<br />

beg<strong>in</strong>n<strong>in</strong>g <strong>of</strong> l<strong>and</strong> plant <strong>evolution</strong>.<br />

Arbuscular mycorrhiza is the ancestral type<br />

<strong>of</strong> mycorrhiza<br />

When the different types <strong>of</strong> <strong>mycorrhizas</strong> are mapped onto<br />

the l<strong>and</strong> plant phylogeny, it becomes clear that arbuscular<br />

mycorrhiza (AM), the endomycorrhiza formed by glomeromycetous<br />

fungi <strong>and</strong> <strong>plants</strong>, is the ancestral type, as it<br />

occurs <strong>in</strong> a vast majority <strong>of</strong> <strong>plants</strong> <strong>and</strong> <strong>in</strong> all early-diverg<strong>in</strong>g<br />

l<strong>in</strong>eages <strong>of</strong> major clades <strong>of</strong> l<strong>and</strong> <strong>plants</strong> (Fig. 1). Even <strong>in</strong><br />

bryophytes where the plant structures <strong>in</strong>volved <strong>in</strong> symbiosis<br />

are rhizoids <strong>and</strong> thalli <strong>of</strong> the gametophyte, glomeromycetous<br />

fungi-mediated symbiosis results <strong>in</strong> formation<br />

<strong>of</strong> AM-like structures <strong>and</strong> is found <strong>in</strong> most early-diverg<strong>in</strong>g<br />

l<strong>in</strong>eages <strong>of</strong> liverworts <strong>and</strong> <strong>in</strong> hornworts (Ligrone <strong>and</strong> Lopes<br />

1989; Read et al. 2000; Russell <strong>and</strong> Bulman 2005). These<br />

two aspects <strong>of</strong> AM symbiosis suggest that the genetic<br />

mechanism underly<strong>in</strong>g <strong>in</strong>teraction between the <strong>plants</strong> <strong>and</strong><br />

glomeromycetous fungi might have been established <strong>in</strong> the<br />

common ancestor <strong>of</strong> all l<strong>and</strong> <strong>plants</strong>. Future molecular<br />

studies should be able to test this hypothesis to determ<strong>in</strong>e if<br />

the same genes are <strong>in</strong>volved <strong>in</strong> <strong>plants</strong>–glomeromycetous<br />

fungi symbioses throughout l<strong>and</strong> <strong>plants</strong>.<br />

Trappe (1987) reported that AM is the ancestral type <strong>of</strong><br />

mycorrhiza <strong>in</strong> angiosperms. Our survey, which broadens<br />

the scope to <strong>in</strong>clude all l<strong>and</strong> <strong>plants</strong>, extends this conclusion<br />

to all l<strong>and</strong> <strong>plants</strong>. This result is not likely to change even if<br />

relationships among three bryophyte l<strong>in</strong>eages <strong>and</strong> vascular<br />

<strong>plants</strong> are altered (see Qiu <strong>and</strong> Lee 2000) because all <strong>of</strong><br />

their early-diverg<strong>in</strong>g l<strong>in</strong>eages possess AM when they are<br />

mycorrhizal. Furthermore, fossil evidence clearly <strong>in</strong>dicates<br />

that AM is the most ancient type <strong>of</strong> mycorrhiza. The<br />

Devonian protracheophyte Aglaophyton major provides<br />

the best fossil record for existence <strong>of</strong> AM-like symbiosis as<br />

early as 400 million years ago; the arbuscules are visible <strong>in</strong><br />

the protosteles <strong>of</strong> this early Devonian plant (Remy et al.<br />

1994; Taylor et al. 2005). Fossil roots <strong>of</strong> younger age from<br />

the Triassic show that this type <strong>of</strong> symbiosis has been<br />

present cont<strong>in</strong>uously <strong>in</strong> early l<strong>and</strong> plant <strong>evolution</strong><br />

(Stubblefield et al. 1987). On the other h<strong>and</strong>, the oldest<br />

ectomycorrhizal fossils have so far been found only <strong>in</strong> the<br />

middle Eocene (50 million years ago) (LePage et al.<br />

1997). The fossil record <strong>of</strong> glomeromycetous fungi, found<br />

<strong>in</strong> the Ordovician (Redecker et al. 2000), also clearly<br />

predates that <strong>of</strong> ascomycetous fungi unearthed from the<br />

Lower Devonian (Taylor et al. 1999). Given all these l<strong>in</strong>es<br />

<strong>of</strong> evidence, it seems safe to conclude that AM represents<br />

the ancestral type <strong>of</strong> mycorrhiza <strong>in</strong> l<strong>and</strong> <strong>plants</strong>.<br />

Many <strong>in</strong>dependent conversions <strong>of</strong> arbuscular<br />

mycorrhiza to other types <strong>of</strong> <strong>mycorrhizas</strong><br />

If the ancestral state <strong>of</strong> AM <strong>in</strong> l<strong>and</strong> <strong>plants</strong> is accepted, <strong>and</strong><br />

further, if it can be agreed upon that the glomeromycetous<br />

fungi–plant <strong>in</strong>teraction is underp<strong>in</strong>ned by a genetic mech-


354<br />

anism that has been stably <strong>in</strong>herited s<strong>in</strong>ce its establishment <strong>in</strong><br />

the common ancestor <strong>of</strong> all l<strong>and</strong> <strong>plants</strong>, the phylogenetic<br />

<strong>distribution</strong> <strong>of</strong> AM <strong>and</strong> other types <strong>of</strong> mycorrhiza shown <strong>in</strong><br />

Fig. 1 leads to the conclusion that there have been many<br />

<strong>in</strong>dependent conversions <strong>of</strong> AM to these other types <strong>of</strong><br />

<strong>mycorrhizas</strong>. Brundrett (2002) previously proposed these<br />

<strong>evolution</strong>ary changes. In this review, we f<strong>in</strong>d overwhelm<strong>in</strong>g<br />

evidence <strong>in</strong> support <strong>of</strong> this hypothesis. Many plant l<strong>in</strong>eages,<br />

rang<strong>in</strong>g from pteridophytes through gymnosperms to angiosperms,<br />

conta<strong>in</strong> some species that can form both AM <strong>and</strong><br />

other types <strong>of</strong> <strong>mycorrhizas</strong>, e.g., Dryopteridaceae, P<strong>in</strong>aceae,<br />

Gnetaceae, Araucariaceae, Cupressaceae, Orchidaceae, Cyperaceae,<br />

Poaceae, Ranunculaceae, Polygonaceae, Caryophyllaceae,<br />

Ericaceae, Rubiaceae, Oleaceae, Aquifoliaceae,<br />

Campanulaceae, Goodeniaceae, Asteraceae, Caprifoliaceae,<br />

Grossulariaceae, Myrtaceae, Melastomataceae, Euphorbiaceae,<br />

Salicaceae, Polygalaceae, Fabaceae, Rosaceae,<br />

Rhamnaceae, Jugl<strong>and</strong>aceae, Betulaceae, Casuar<strong>in</strong>aceae,<br />

Cistaceae, Malvaceae, <strong>and</strong> Sap<strong>in</strong>daceae (Table 1; Fig. 1).<br />

These species might be <strong>in</strong> a transitional state from AM to<br />

other types <strong>of</strong> <strong>mycorrhizas</strong>. These other types <strong>of</strong> <strong>mycorrhizas</strong><br />

have probably evolved as a consequence <strong>of</strong><br />

emergence <strong>of</strong> new l<strong>in</strong>eages <strong>in</strong> fungi on one side (e.g.,<br />

certa<strong>in</strong> groups <strong>of</strong> Ascomycetes <strong>and</strong> Basidiomycetes) <strong>and</strong> <strong>in</strong><br />

<strong>plants</strong> on the other side (e.g., P<strong>in</strong>aceae, Orchidaceae,<br />

Ericaceae, Fagales, <strong>and</strong> Malvales), <strong>and</strong> the associations<br />

formed by these new l<strong>in</strong>eages that were able to colonize<br />

habitats that were previously not very successfully<br />

occupied by AM <strong>plants</strong> (Malloch et al. 1980). Because<br />

these other types <strong>of</strong> <strong>mycorrhizas</strong> have been classified us<strong>in</strong>g<br />

both morphological <strong>and</strong> plant partner criteria (Smith <strong>and</strong><br />

Read 1997), we follow this classification <strong>in</strong> our discussion<br />

below.<br />

Ectomycorrhiza<br />

Ectomycorrhiza (ECM) is a partnership between mostly<br />

basidiomycetous fungi <strong>and</strong> various groups <strong>of</strong> l<strong>and</strong> <strong>plants</strong>. It<br />

primarily occurs <strong>in</strong> P<strong>in</strong>aceae, Araucariaceae, Cupressaceae,<br />

Gnetaceae, Polygonaceae, Nyctag<strong>in</strong>aceae, Myrtaceae,<br />

Salicaceae, Fabaceae, Fagales, <strong>and</strong> Malvales. In addition,<br />

many other families <strong>of</strong> vascular <strong>plants</strong> conta<strong>in</strong> a small<br />

percentage <strong>of</strong> species that form this type <strong>of</strong> mycorrhiza.<br />

Most leafy liverworts also have ascomycetous <strong>and</strong> basidiomycetous<br />

fungal associations (Table 1; Fig. 1). Although<br />

ECM is much rarer than AM <strong>in</strong> l<strong>and</strong> <strong>plants</strong>, among all types<br />

<strong>of</strong> <strong>mycorrhizas</strong> formed by ascomycetous <strong>and</strong> basidiomycetous<br />

fungi, it is the most common one. When viewed <strong>in</strong> a<br />

plant phylogenetic perspective, the <strong>distribution</strong> <strong>of</strong> ECM<br />

clearly suggests many <strong>in</strong>dependent orig<strong>in</strong>s <strong>of</strong> this type <strong>of</strong><br />

mycorrhiza because its occurrence is sporadic throughout<br />

l<strong>and</strong> <strong>plants</strong> <strong>and</strong> it is mostly found <strong>in</strong> derived l<strong>in</strong>eages <strong>in</strong><br />

major plant clades. Previously, Bruns <strong>and</strong> Shefferson<br />

(2004) estimated at least 12 <strong>in</strong>dependent orig<strong>in</strong>s <strong>of</strong> ECM<br />

with<strong>in</strong> angiosperms by mapp<strong>in</strong>g ectomycorrhizal <strong>in</strong>formation<br />

provided <strong>in</strong> Smith <strong>and</strong> Read (1997) onto an angiosperm<br />

phylogeny (Soltis et al. 2000). Fitter <strong>and</strong> Moyersoen<br />

(1996) conducted a similar survey <strong>and</strong> reached a similar<br />

conclusion. Our study revealed many more events <strong>of</strong><br />

<strong>evolution</strong> <strong>of</strong> this type <strong>of</strong> mycorrhiza <strong>in</strong> l<strong>and</strong> <strong>plants</strong> (Fig. 1).<br />

Exam<strong>in</strong>ation <strong>of</strong> the <strong>evolution</strong>ary histories <strong>of</strong> both <strong>plants</strong><br />

<strong>and</strong> fungi may provide some ideas to underst<strong>and</strong> how this<br />

type <strong>of</strong> mycorrhiza evolved repeatedly. The <strong>plants</strong> that<br />

form ECM typically grow <strong>in</strong> nutrient-poor environments,<br />

e.g., temperate <strong>and</strong> timberl<strong>in</strong>e forests <strong>of</strong> both Southern <strong>and</strong><br />

Northern Hemispheres (Malloch et al. 1980), the spruce–<br />

hemlock–redwood forest <strong>of</strong> the coastal fog belt <strong>in</strong> the<br />

Pacific Northwestern USA, the wet eucalyptus forest <strong>in</strong><br />

Australia, <strong>and</strong> the wet dipterocarp forest <strong>of</strong> Australasia (J.<br />

Trappe, personal communication). <strong>Phylogenetic</strong>ally, these<br />

<strong>plants</strong> represent derived l<strong>in</strong>eages <strong>of</strong> some major l<strong>and</strong> plant<br />

clades that once lived <strong>in</strong> a less nutrient-deficient environment,<br />

e.g., P<strong>in</strong>aceae <strong>and</strong> Cupressaceae, as opposed to other<br />

conifers such as Cephalotaxaceae, Taxaceae, <strong>and</strong> Taxodiaceae,<br />

<strong>and</strong> Fagales <strong>and</strong> some Malvales vs other rosids.<br />

Meanwhile, the fungal species that participate <strong>in</strong> ECM<br />

symbiosis evolved repeatedly from saprotrophic homobasidiomycetes<br />

<strong>and</strong> also reverted to free-liv<strong>in</strong>g condition<br />

many times <strong>in</strong>dependently (Hibbett et al. 2000), <strong>and</strong> they<br />

also represent derived l<strong>in</strong>eages <strong>of</strong> fungi as a whole (Lutzoni<br />

et al. 2004). Thus, <strong>evolution</strong> <strong>of</strong> ECM could be viewed as an<br />

adaptation by those major plant clades to the change <strong>of</strong><br />

environment when the climate on earth became more<br />

seasonal <strong>and</strong> arid (Hickey <strong>and</strong> Doyle 1977; Malloch et al.<br />

1980), which immobilized nutrients, or simply as an<br />

adaptation to the environments that were limited <strong>in</strong> nutrient<br />

availability. From these considerations, it may be argued<br />

that the plasticity exhibited by ECM <strong>evolution</strong> reflects the<br />

opportunistic nature <strong>of</strong> a collective response by both plant<br />

<strong>and</strong> fungal partners to environmental challenges. This<br />

seems to be a short-term <strong>evolution</strong>ary strategy <strong>in</strong> comparison<br />

to AM, which clearly represents a major <strong>evolution</strong>ary<br />

<strong>in</strong>novation to solve a permanent water-<strong>and</strong>-nutrients deficiency<br />

problem faced by <strong>plants</strong> when they first made the<br />

virtually irreversible <strong>in</strong>vasion onto the l<strong>and</strong> <strong>in</strong> the<br />

Ordovician.<br />

Fig. 1 A phylogenetic tree <strong>of</strong> 263 l<strong>and</strong> plant families mapped with"<br />

mycorrhizal <strong>in</strong>formation. a Non-angiosperms (<strong>in</strong>clud<strong>in</strong>g bryophytes,<br />

pteridophytes, <strong>and</strong> gymnosperms), b angiosperms except core<br />

eudicots, c core eudicots except rosids, <strong>and</strong> d rosids. For each<br />

family, the number <strong>in</strong> the column Total shows the total number <strong>of</strong><br />

exam<strong>in</strong>ed species; the M% column shows the percentage <strong>of</strong><br />

obligately mycorrhizal species. The FM% column shows the<br />

percentage <strong>of</strong> facultatively mycorrhizal species, <strong>and</strong> the NM%<br />

column shows the percentage <strong>of</strong> nonmycorrhizal species. Thicker<br />

term<strong>in</strong>al branches were used to <strong>in</strong>dicate 21 nonmycorrhizal<br />

families. For each <strong>of</strong> the 242 mycorrhizal families, the percentages<br />

<strong>of</strong> different types <strong>of</strong> mycorrhizae among all mycorrhizal species are<br />

shown <strong>in</strong> the M type column. The mycorrhizal types are consistent to<br />

the current widely used system <strong>of</strong> Smith <strong>and</strong> Read (1997): AM<br />

arbuscular mycorrhiza, ECM ectomycorrhiza, EEM ectendomycorrhiza,<br />

ORM orchid mycorrhiza, ERM ericoid mycorrhiza, MTM<br />

monotropoid mycorrhiza, ABM arbutoid mycorrhiza, as well as<br />

mycoheterotrophy. For the bryophytes, fungal associations were<br />

used <strong>in</strong>stead <strong>of</strong> mycorrhiza: A, B, <strong>and</strong> G <strong>in</strong>dicate ascomycetous,<br />

basidiomycetous, <strong>and</strong> glomeromycetous fungal associations, respectively.<br />

1 Families <strong>in</strong> which ectomycorrhizal species have been<br />

reported. 2 Families <strong>in</strong> which mycoheterotrophic species have been<br />

reported


a<br />

angiosperms<br />

Total<br />

M% FM% NM%<br />

Taxaceae<br />

1<br />

Cupressaceae<br />

Taxodiaceae<br />

2<br />

Podocarpaceae<br />

1<br />

Araucariaceae<br />

1<br />

Gnetaceae<br />

2<br />

11<br />

3<br />

6<br />

5<br />

3<br />

100<br />

100<br />

100<br />

100<br />

100<br />

100<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

AM only<br />

82% AM,18% AM+ECM<br />

AM only<br />

83% AM, 17% mycoheterotrophy?<br />

60% AM, 20% ECM, 20% AM+EEM<br />

67% ECM, 33% AM+ECM<br />

Welwitschiaceae<br />

Ephedraceae<br />

P<strong>in</strong>aceae<br />

1<br />

G<strong>in</strong>kgoaceae<br />

1<br />

2<br />

43<br />

1<br />

100<br />

100<br />

98<br />

100<br />

0<br />

0<br />

2<br />

0<br />

0<br />

0<br />

0<br />

0<br />

AM only<br />

AM only<br />

86% ECM, 7% AM+ECM, 5% ECM+EEM, 2% AM+ECM+EEM<br />

AM only<br />

Zamiaceae<br />

Cycadaceae<br />

Davalliaceae<br />

Grammitidaceae<br />

Polypodiaceae<br />

Nephrolepidaceae<br />

1<br />

Dryopteridaceae<br />

Blechnaceae<br />

Thelypteridaceae<br />

Aspleniaceae<br />

Dennstaedtiaceae<br />

Adiantaceae<br />

5<br />

2<br />

4<br />

8<br />

37<br />

3<br />

40<br />

11<br />

33<br />

99<br />

20<br />

25<br />

100<br />

100<br />

75<br />

38<br />

8<br />

33<br />

53<br />

64<br />

36<br />

32<br />

60<br />

48<br />

0<br />

0<br />

0<br />

0<br />

3<br />

0<br />

8<br />

9<br />

6<br />

12<br />

5<br />

12<br />

0<br />

0<br />

25<br />

63<br />

89<br />

67<br />

40<br />

27<br />

58<br />

56<br />

35<br />

40<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

96 %AM, 4% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

Vittariaceae<br />

Pteridaceae<br />

Dicksoniaceae<br />

Cyatheaceae<br />

Plagiogyriaceae<br />

3<br />

22<br />

4<br />

6<br />

1<br />

33<br />

45<br />

75<br />

33<br />

100<br />

0<br />

9<br />

0<br />

0<br />

0<br />

67<br />

45<br />

25<br />

67<br />

0<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

Azollaceae<br />

Marsileaceae<br />

Schizaeaceae<br />

Gleicheniaceae<br />

Hymenophyllaceae<br />

Osmundaceae<br />

Ophioglossaceae<br />

Psilotaceae<br />

Marattiaceae<br />

Equisetaceae<br />

Selag<strong>in</strong>ellaceae<br />

Isoetaceae<br />

Lycopodiaceae<br />

Anthocerotaceae<br />

Gymnomitriaceae<br />

Jungermanniaceae<br />

Calypogeiaceae<br />

1<br />

1<br />

4<br />

10<br />

11<br />

3<br />

11<br />

3<br />

17<br />

12<br />

17<br />

3<br />

17<br />

2<br />

7<br />

21<br />

8<br />

0<br />

0<br />

75<br />

40<br />

36<br />

67<br />

91<br />

67<br />

88<br />

25<br />

76<br />

0<br />

35<br />

100<br />

0<br />

48<br />

100<br />

0<br />

100<br />

25<br />

0<br />

0<br />

33<br />

9<br />

0<br />

0<br />

42<br />

6<br />

0<br />

24<br />

0<br />

14<br />

0<br />

0<br />

100<br />

0<br />

0<br />

60<br />

64<br />

0<br />

0<br />

33<br />

12<br />

33<br />

18<br />

100<br />

41<br />

0<br />

86<br />

52<br />

0<br />

AM only<br />

AM only<br />

AM only<br />

50% AM, 50% endo-M (also AM?)<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

fungal association (G), AM-like<br />

fungal association<br />

fungal association (A, B)<br />

fungal association (A, B)<br />

Cephaloziaceae<br />

Cephaloziellaceae<br />

Scapaniaceae<br />

Lepidoziaceae<br />

Geocalycaceae<br />

Arnelliaceae<br />

Plagiochilaceae<br />

Herbertaceae<br />

Pseudolepicoleaceae<br />

Lejeuneaceae<br />

Jubulaceae<br />

Porellaceae<br />

Radulaceae<br />

Codoniaceae<br />

Pelliaceae<br />

2<br />

Aneuraceae<br />

Metzgeriaceae<br />

Ricciaceae<br />

Conocephalaceae<br />

Aytoniaceae<br />

Marchantiaceae<br />

Lunulariaceae<br />

Blasiaceae<br />

Haplomitriaceae<br />

Characeae<br />

14<br />

6<br />

8<br />

9<br />

10<br />

1<br />

5<br />

1<br />

1<br />

11<br />

6<br />

5<br />

3<br />

2<br />

3<br />

5<br />

6<br />

1<br />

1<br />

1<br />

2<br />

1<br />

1<br />

2<br />

71<br />

67<br />

13<br />

30<br />

100<br />

20<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

100<br />

100<br />

40<br />

0<br />

0<br />

100<br />

100<br />

100<br />

100<br />

0<br />

100<br />

14<br />

0<br />

13<br />

0<br />

10<br />

0<br />

0<br />

0<br />

100<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

14<br />

33<br />

75<br />

33<br />

60<br />

0<br />

80<br />

100<br />

0<br />

100<br />

100<br />

100<br />

100<br />

0<br />

0<br />

60<br />

100<br />

100<br />

0<br />

0<br />

0<br />

0<br />

100<br />

0<br />

fungal association (A)<br />

fungal association (A)<br />

fungal association<br />

fungal association (A)<br />

fungal association<br />

fungal association (B)<br />

fungal association<br />

fungal association<br />

fungal association (G)<br />

fungal association (G), AM-like<br />

ORM-like (mycoheterotrophy via ECM)<br />

fungal association (G), AM-like<br />

fungal association (G), AM-like<br />

fungal association (G), AM-like<br />

fungal association (G)<br />

fungal association (G), AM-like<br />

bryophytes pteridophytes gymnosperms<br />

67<br />

M type<br />

355


356<br />

Fig. 1 (cont<strong>in</strong>ued)<br />

b<br />

core eudicots<br />

Gunneraceae<br />

Buxaceae<br />

Proteaceae<br />

1<br />

Ranunculaceae<br />

Berberidaceae<br />

Menispermaceae<br />

Papaveraceae<br />

Piperaceae<br />

Aristolochiaceae<br />

Lauraceae<br />

Annonaceae<br />

Magnoliaceae<br />

Myristicaceae<br />

Costaceae<br />

Z<strong>in</strong>giberaceae<br />

Cannaceae<br />

Heliconiaceae<br />

Musaceae<br />

Commel<strong>in</strong>aceae<br />

Poaceae 1<br />

Restionaceae<br />

1<br />

Cyperaceae<br />

Juncaceae<br />

Bromeliaceae<br />

Typhaceae<br />

Sparganiaceae<br />

Arecaceae<br />

Ruscaceae<br />

Asparagaceae<br />

Agavaceae<br />

Hyac<strong>in</strong>theaceae<br />

0<br />

Themidaceae<br />

Amaryllidaceae<br />

Alliaceae<br />

0<br />

20<br />

8<br />

Asphodelaceae<br />

0<br />

Hemerocallidaceae<br />

0<br />

Iridaceae<br />

Hypoxidaceae<br />

13<br />

0<br />

Asteliaceae<br />

0<br />

1 2<br />

Orchidaceae<br />

2<br />

Liliaceae<br />

Smilacaceae<br />

Melanthiaceae<br />

20<br />

0<br />

33<br />

Colchicaceae<br />

0<br />

Alstroemeriaceae<br />

0<br />

Corsiaceae<br />

2<br />

0<br />

Cyclanthaceae<br />

0<br />

P<strong>and</strong>anaceae<br />

0<br />

AM only<br />

Triuridaceae<br />

2<br />

Dioscoreaceae<br />

2<br />

Burmanniaceae<br />

2<br />

2<br />

50<br />

100<br />

0<br />

0<br />

0<br />

50<br />

0<br />

mycoheterotrophy via AM<br />

AM only<br />

mycoheterotrophy via AM<br />

Nartheciaceae<br />

1 0 100 0 AM only<br />

2<br />

Petrosaviaceae 2 100 0 0 mycoheterotrophy<br />

AM only<br />

AM only<br />

Potamogetonaceae<br />

Juncag<strong>in</strong>aceae<br />

Limnocharitaceae<br />

Alismataceae<br />

Butomaceae<br />

Hydrocharitaceae<br />

Araceae<br />

T<strong>of</strong>ieldiaceae<br />

Acoraceae<br />

Nymphaeaceae<br />

monocots magnoliids basal eudicots<br />

Total<br />

1<br />

1<br />

6<br />

39<br />

5<br />

1<br />

6<br />

1<br />

13<br />

6<br />

3<br />

5<br />

2<br />

5<br />

1<br />

1<br />

1<br />

3<br />

267<br />

2<br />

253<br />

27<br />

4<br />

3<br />

5<br />

9<br />

6<br />

2<br />

9<br />

5<br />

1<br />

5<br />

12<br />

3<br />

1<br />

8<br />

1<br />

1<br />

83<br />

5<br />

4<br />

3<br />

1<br />

1<br />

1<br />

1<br />

3<br />

2<br />

7<br />

2<br />

1<br />

7<br />

1<br />

4<br />

18<br />

1<br />

1<br />

5<br />

100<br />

100<br />

67<br />

54<br />

80<br />

100<br />

83<br />

0<br />

100<br />

83<br />

67<br />

100<br />

100<br />

100<br />

0<br />

100<br />

100<br />

67<br />

71<br />

100<br />

35<br />

37<br />

75<br />

33<br />

40<br />

89<br />

17<br />

100<br />

100<br />

100<br />

100<br />

80<br />

92<br />

100<br />

100<br />

75<br />

100<br />

100<br />

98<br />

80<br />

100<br />

67<br />

100<br />

100<br />

100<br />

0<br />

33<br />

100<br />

non-angiosperm l<strong>and</strong> <strong>plants</strong><br />

M% FM% NM%<br />

0<br />

0<br />

0<br />

57<br />

0<br />

25<br />

78<br />

100<br />

100<br />

20<br />

0<br />

0<br />

0<br />

33<br />

0<br />

0<br />

0<br />

100<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

33<br />

20<br />

0<br />

19<br />

37<br />

0<br />

67<br />

20<br />

0<br />

83<br />

0<br />

0<br />

14<br />

50<br />

0<br />

29<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

33<br />

13<br />

20<br />

0<br />

4 25 25 50<br />

17<br />

0<br />

0<br />

17<br />

33<br />

0<br />

0<br />

0<br />

100<br />

0<br />

0<br />

0<br />

9<br />

0<br />

46<br />

26<br />

25<br />

0<br />

40<br />

11<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

13<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

100<br />

67<br />

0<br />

M type<br />

AM only<br />

AM only<br />

AM only<br />

97% AM, 3% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

99.6% AM, 0.4% AM+ECM<br />

AM only<br />

99.3% AM, 0.7% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

82% ORM, 4% AM, 8% ORM+ECM, 6% mycoheterotrophy via ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

mycoheterotrophy via AM<br />

86<br />

50<br />

100<br />

14 AM only<br />

100<br />

75 AM only<br />

22 AM only<br />

0 AM only<br />

0 AM only<br />

80 AM only


357<br />

Fig. 1 (cont<strong>in</strong>ued)<br />

c<br />

rosids<br />

Valerianaceae<br />

Dipsacaceae<br />

1<br />

Caprifoliaceae<br />

Adoxaceae<br />

1<br />

Asteraceae<br />

1<br />

Goodeniaceae<br />

Menyanthaceae<br />

Campanulaceae<br />

1<br />

1<br />

Apiaceae<br />

Pittosporaceae<br />

Araliaceae<br />

1<br />

Aquifoliaceae<br />

Solanaceae<br />

Convolvulaceae<br />

Lentibulariaceae<br />

Scrophulariaceae<br />

Acanthaceae<br />

Lamiaceae<br />

Verbenaceae<br />

Bignoniaceae<br />

Plantag<strong>in</strong>aceae<br />

Pedaliaceae<br />

Gesneriaceae<br />

1<br />

Oleaceae<br />

Apocynaceae<br />

Loganiaceae<br />

2<br />

Gentianaceae<br />

1<br />

Rubiaceae<br />

Borag<strong>in</strong>aceae<br />

Icac<strong>in</strong>aceae<br />

1 2<br />

Ericaceae<br />

Clethraceae<br />

Act<strong>in</strong>idiaceae<br />

Sapotaceae<br />

Lecythidaceae<br />

Diapensiaceae<br />

Styracaceae<br />

Myrs<strong>in</strong>aceae<br />

Primulaceae<br />

Theophrastaceae<br />

Ebenaceae<br />

Theaceae<br />

Fouquieriaceae<br />

Polemoniaceae<br />

Tetrameristaceae<br />

Balsam<strong>in</strong>aceae<br />

Cornaceae<br />

Loasaceae<br />

Santalaceae<br />

Loranthaceae<br />

Olacaceae<br />

Portulacaceae<br />

Cactaceae<br />

Nyctag<strong>in</strong>aceae<br />

1<br />

Phytolaccaceae<br />

Aizoaceae<br />

Amaranthaceae<br />

1<br />

Caryophyllaceae<br />

Polygonaceae<br />

1<br />

Plumbag<strong>in</strong>aceae<br />

Tamaricaceae<br />

Frankeniaceae<br />

Droseraceae<br />

Dilleniaceae<br />

caryophyllids asterids<br />

Total<br />

25<br />

83<br />

69<br />

0<br />

84<br />

25<br />

17<br />

31<br />

0<br />

13<br />

50<br />

0<br />

33<br />

100<br />

3<br />

2<br />

100 0 0<br />

0 0 100<br />

14 5<br />

24 11<br />

0 0<br />

0 33<br />

0 0<br />

10 5<br />

0 8<br />

0 100<br />

26 34<br />

0 0<br />

16 6<br />

0 0<br />

0 11<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 17<br />

0 0<br />

19 6<br />

9 5<br />

22 19<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

44 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0 0<br />

0<br />

60<br />

0<br />

0<br />

100 0<br />

0 100<br />

0 75<br />

4<br />

6<br />

13<br />

1<br />

233<br />

10<br />

21<br />

46<br />

1<br />

9<br />

3<br />

20<br />

12<br />

2<br />

58<br />

6<br />

69<br />

15<br />

9<br />

10<br />

1<br />

2<br />

13<br />

35<br />

2<br />

16<br />

55<br />

36<br />

1<br />

78<br />

1<br />

1<br />

8<br />

3<br />

1<br />

1<br />

5<br />

18<br />

1<br />

1<br />

1<br />

1<br />

1<br />

1<br />

5<br />

1<br />

2<br />

4<br />

1<br />

3<br />

8<br />

31<br />

8<br />

1<br />

4<br />

42<br />

54<br />

38<br />

3<br />

2<br />

2<br />

3<br />

1<br />

M% FM% NM%<br />

81<br />

65<br />

100<br />

67<br />

100<br />

85<br />

92<br />

0<br />

40<br />

100<br />

78<br />

100<br />

89<br />

100<br />

100<br />

100<br />

100<br />

83<br />

100<br />

75<br />

85<br />

58<br />

100<br />

100<br />

100<br />

100<br />

100<br />

100<br />

100<br />

100<br />

100<br />

56<br />

100<br />

100<br />

100<br />

100<br />

100<br />

100<br />

40<br />

0<br />

0<br />

25<br />

0<br />

100<br />

13<br />

90<br />

38<br />

100<br />

25<br />

36<br />

15<br />

29<br />

33<br />

100<br />

50<br />

0<br />

100<br />

0<br />

0<br />

13<br />

0<br />

13<br />

0<br />

50<br />

19<br />

26<br />

24<br />

67<br />

0<br />

0<br />

67<br />

0<br />

M type<br />

AM only<br />

AM only<br />

92% AM, 8% AM+ECM<br />

97% AM, 3% AM+ECM<br />

70% AM, 30% AM+ECM<br />

95% AM, 5% AM+ECM<br />

98% AM, 2% ECM<br />

AM only<br />

AM only<br />

67% AM, 33% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

92% AM, 8% AM+ECM<br />

AM only<br />

AM only<br />

53% AM, 47% mycoheterotrophy via AM<br />

98% AM, 2% AM+ECM<br />

AM only<br />

AM only<br />

74% ERM, 8% AM+ERM, 5% EEM, 4% MTM, 9% others*<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

ERM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

100<br />

0<br />

75<br />

10<br />

50<br />

0 AM only<br />

25 AM only<br />

45 AM only<br />

59<br />

47<br />

0<br />

0<br />

50 AM only<br />

AM only<br />

AM only<br />

AM only<br />

50% AM, 50% ECM<br />

95% AM, 5% AM+ECM<br />

80% AM, 10% ECM, 10% AM+ECM<br />

AM only<br />

AM only<br />

33 AM only<br />

0 AM only<br />

* Ericaceae: MTM is mycoheterotrophic. 9% others <strong>in</strong>clude 1.3% AM, 1.3% endoM, 1.3% ABM, 1.3% ABM+ECM,<br />

1.3% ABM+ERM, 1.3% Mono M+ERM, 1.3% ERM+ABM+ECM+EEM


358<br />

Fig. 1 (cont<strong>in</strong>ued)<br />

d<br />

Total<br />

M% FM% NM%<br />

M type<br />

1<br />

Sap<strong>in</strong>daceae<br />

Burseraceae<br />

Anacardiaceae<br />

Simaroubaceae<br />

Meliaceae<br />

Rutaceae<br />

1<br />

Malvaceae<br />

Dipterocarpaceae<br />

Cistaceae<br />

1<br />

Bixaceae<br />

Thymelaeaceae<br />

Brassicaceae<br />

Capparidaceae<br />

Resedaceae<br />

Bataceae<br />

Caricaceae<br />

Mor<strong>in</strong>gaceae<br />

Tropaeolaceae<br />

Casuar<strong>in</strong>aceae<br />

1<br />

Betulaceae<br />

1<br />

Jugl<strong>and</strong>aceae<br />

1<br />

Myricaceae<br />

Fagaceae<br />

1<br />

Tetramelaceae<br />

Begoniaceae<br />

Cucurbitaceae<br />

Urticaceae<br />

Moraceae<br />

Cannabaceae<br />

Ulmaceae<br />

1<br />

Elaeagnaceae<br />

1<br />

Rhamnaceae<br />

Rosaceae<br />

1<br />

Fabaceae<br />

1<br />

1 2<br />

Polygalaceae<br />

Elaeocarpaceae<br />

Cunoniaceae<br />

1<br />

Oxalidaceae<br />

Chrysobalanaceae<br />

Ochnaceae<br />

Elat<strong>in</strong>aceae<br />

Hypericaceae<br />

Clusiaceae<br />

Turneraceae<br />

1<br />

Salicaceae<br />

Violaceae<br />

Euphorbiaceae<br />

1<br />

Erythroxylaceae<br />

L<strong>in</strong>aceae<br />

Rhizophoraceae<br />

P<strong>and</strong>aceae<br />

Humiriaceae<br />

Celastraceae<br />

Parnassiaceae<br />

Zygophyllaceae<br />

Krameriaceae<br />

Melastomataceae<br />

Myrtaceae<br />

1<br />

Lythraceae<br />

Onagraceae<br />

Combretaceae<br />

Geraniaceae<br />

Vitaceae<br />

Saxifragaceae<br />

1<br />

Grossulariaceae<br />

Haloragaceae<br />

Crassulaceae<br />

Hamamelidaceae<br />

1<br />

rosids<br />

1<br />

19<br />

4<br />

16<br />

2<br />

21<br />

12<br />

74<br />

75<br />

100<br />

100<br />

90<br />

100<br />

80<br />

100<br />

100<br />

83<br />

15<br />

50<br />

0<br />

0<br />

100<br />

100<br />

100<br />

100<br />

93<br />

67<br />

40<br />

86<br />

100<br />

100<br />

100<br />

60<br />

93<br />

0<br />

83<br />

100<br />

88<br />

84<br />

94<br />

87<br />

100<br />

100<br />

86<br />

100<br />

100<br />

100<br />

38<br />

78<br />

100<br />

93<br />

60<br />

87<br />

0<br />

50<br />

50<br />

100<br />

100<br />

100<br />

0<br />

78<br />

100<br />

80<br />

98<br />

67<br />

74<br />

100<br />

62<br />

100<br />

11<br />

80<br />

26<br />

25<br />

0<br />

0<br />

5<br />

0<br />

0<br />

0<br />

0<br />

0<br />

5<br />

0<br />

42 95 5 0<br />

5<br />

12<br />

1<br />

6<br />

55<br />

2<br />

2<br />

1<br />

1<br />

1<br />

1<br />

4<br />

15<br />

3<br />

5<br />

14<br />

1<br />

3<br />

8<br />

10<br />

14<br />

1<br />

6<br />

4<br />

17<br />

80<br />

315<br />

6<br />

3<br />

1<br />

7<br />

1<br />

1<br />

1<br />

8<br />

9<br />

1<br />

41<br />

15<br />

69<br />

1<br />

6<br />

2<br />

1<br />

1<br />

5<br />

1<br />

9<br />

1<br />

5<br />

52<br />

6<br />

23<br />

2<br />

13<br />

5<br />

9<br />

5<br />

2<br />

16<br />

1<br />

50<br />

31<br />

100<br />

0<br />

0<br />

0<br />

17<br />

33<br />

0<br />

100<br />

0<br />

0<br />

0<br />

0<br />

0<br />

7<br />

33<br />

60<br />

7<br />

0<br />

0<br />

0<br />

20<br />

0<br />

100<br />

0<br />

0<br />

12<br />

15<br />

3<br />

13<br />

0<br />

0<br />

14<br />

0<br />

0<br />

0<br />

13<br />

11<br />

0<br />

7<br />

40<br />

9<br />

0<br />

33<br />

0<br />

0<br />

0<br />

0<br />

100<br />

0<br />

0<br />

0<br />

0<br />

17<br />

22<br />

0<br />

31<br />

0<br />

44<br />

20<br />

0<br />

19<br />

0<br />

20<br />

0<br />

0<br />

0<br />

53<br />

50<br />

0<br />

100<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

7<br />

0<br />

0<br />

0<br />

20<br />

7<br />

0<br />

17<br />

0<br />

0<br />

1<br />

3<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

0<br />

50<br />

11<br />

0<br />

0<br />

0<br />

4<br />

100<br />

17<br />

50<br />

0<br />

0<br />

0<br />

0<br />

22<br />

0<br />

20<br />

2<br />

17<br />

4<br />

0<br />

84% AM, 16% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

93% AM, 5% ECM, 2% AM+ECM<br />

75% AM, 25% ECM<br />

8% AM, 42% ECM, 8% AM+ECM, 17% ECM+EEM, 25% AM+ECM+EEM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

25% AM, 50% ECM, 25% AM+ECM<br />

7% AM, 67% ECM, 7% AM+ECM, 13% ECM+EEM, 7% AM+ECM+EEM<br />

33% AM, 33% ECM, 33% AM+ECM<br />

AM only<br />

8% AM, 92% ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

80% AM, 20% AM+ECM<br />

AM only<br />

94% AM, 6% AM+ECM<br />

84% AM, 3% ECM, 13% AM+ECM<br />

86% AM, 7% ECM, 7% AM+ECM, 0.3% AM+ECM+EEM<br />

67% AM, 17% AM+ECM, 17% mycoheterotrophy via AM<br />

AM only<br />

AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

15% AM, 49% ECM, 34% AM+ECM, 2% ECM+EEM<br />

AM only<br />

92% AM, 5% ECM, 3% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

AM only<br />

75% AM, 25% AM+ECM<br />

53% AM, 29% ECM, 17% AM+ECM<br />

AM only<br />

AM only<br />

AM only<br />

8 AM only<br />

0 AM only<br />

44 AM only<br />

0 80% AM, 20% AM+ECM<br />

50 AM only<br />

88% AM, 12% endo-M (also AM?)<br />

50<br />

0 AM only


359<br />

The very different <strong>evolution</strong>ary pattern <strong>of</strong> ECM from<br />

that <strong>of</strong> AM might suggest a different underly<strong>in</strong>g genetic<br />

mechanism. Also, the structure is quite different between<br />

the two types <strong>of</strong> <strong>mycorrhizas</strong>. In ECM, the fungal hyphae<br />

do not penetrate the cell wall, <strong>and</strong> <strong>in</strong>stead form a Hartig net<br />

(an <strong>in</strong>tercellular meshwork <strong>in</strong> the root epidermis <strong>and</strong><br />

cortex) <strong>and</strong> a sheath around the root derived from this net.<br />

On the other h<strong>and</strong>, the fungal hyphae <strong>in</strong> AM penetrate the<br />

cell wall <strong>and</strong> <strong>of</strong>ten form arbuscules. At present, little is<br />

known about the molecular genetic basis <strong>of</strong> ECM development.<br />

All plant genes <strong>in</strong>volved <strong>in</strong> mycorrhizal symbiosis<br />

identified so far control AM development (Stracke et al.<br />

2002; Liu et al. 2003; Ane et al. 2004; Demchenko et al.<br />

2004; Levy et al. 2004). One <strong>of</strong> these genes has a homolog<br />

<strong>in</strong> the moss Physcomitrella patens <strong>and</strong> several other early<br />

l<strong>and</strong> <strong>plants</strong> (Wang <strong>and</strong> Qiu, unpublished data). Hence, it<br />

can be <strong>in</strong>ferred that there might be a general genetic<br />

program <strong>in</strong> <strong>plants</strong> that mediates plant–fungus <strong>in</strong>teraction, a<br />

small portion <strong>of</strong> which might even be <strong>in</strong>volved <strong>in</strong> plant–<br />

fungal pathogen <strong>in</strong>teraction as well (Harrison 1999). This<br />

program was most likely established at the beg<strong>in</strong>n<strong>in</strong>g <strong>of</strong><br />

l<strong>and</strong> plant <strong>evolution</strong>, if not earlier, <strong>and</strong> mostly targets<br />

glomeromycetous fungi. It has been <strong>in</strong>herited <strong>in</strong> l<strong>and</strong> <strong>plants</strong><br />

s<strong>in</strong>ce its <strong>in</strong>ception <strong>and</strong> is responsible for the prevalence <strong>of</strong><br />

AM seen today. When ECM evolved <strong>in</strong> a particular plant<br />

l<strong>in</strong>eage, the homobasidiomycetous fungi might have<br />

adopted much <strong>of</strong> this general genetic program, but also<br />

modified some aspects <strong>of</strong> it to suit a slightly different<br />

plant–fungus partnership. One <strong>in</strong>trigu<strong>in</strong>g question is how<br />

different plant l<strong>in</strong>eages, particularly those as diverse as<br />

ferns, gymnosperms, <strong>and</strong> angiosperms, adapted the general<br />

genetic program for ECM development, as the structures <strong>of</strong><br />

<strong>mycorrhizas</strong> are apparently very similar between these<br />

diverse l<strong>in</strong>eages. Perhaps different genes are <strong>in</strong>volved <strong>in</strong><br />

each case, thus, the host specificity developed with<br />

different fungal symbionts <strong>in</strong> each case <strong>of</strong> ECM (as<br />

opposed to AM). Indeed, difference <strong>in</strong> gene expression was<br />

observed to be related to host specificity (Le Quere et al.<br />

2004). Future work will likely reveal more details to help<br />

us underst<strong>and</strong> how many <strong>in</strong>dependent conversions <strong>of</strong> ECM<br />

from AM had occurred.<br />

The ericaceous <strong>mycorrhizas</strong> <strong>and</strong> their close<br />

relationship to ectomycorrhiza<br />

There are six types <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong> Ericaceae. With the<br />

exception <strong>of</strong> AM, five <strong>of</strong> them are partnerships between<br />

ascomycetous or basidiomycetous fungi <strong>and</strong> <strong>plants</strong>: ECM,<br />

ectendomycorrhiza (EEM), arbutoid mycorrhiza (ABM),<br />

monotropoid mycorrhiza (MTM), <strong>and</strong> ericoid mycorrhiza<br />

(ERM). Among these five types, ECM occurs <strong>in</strong> many<br />

plant l<strong>in</strong>eages outside <strong>of</strong> Ericaceae (see above), <strong>and</strong> EEM is<br />

found <strong>in</strong> P<strong>in</strong>aceae, Araucariaceae, Ericaceae, Salicaceae,<br />

Fabaceae, Betulaceae, <strong>and</strong> Cistaceae (Fig. 1). ABM, MTM,<br />

<strong>and</strong> ERM can be deemed to be genu<strong>in</strong>ely ericaceous<br />

<strong>mycorrhizas</strong>, as they occur almost exclusively <strong>in</strong> this<br />

family. The only exception is ERM, which has also been<br />

found <strong>in</strong> Diapensiaceae, a close relative <strong>of</strong> Ericaceae. The<br />

ericaceous <strong>mycorrhizas</strong> share many characteristics with<br />

ECM, but exhibit a high degree <strong>of</strong> <strong>in</strong>tracellular penetration<br />

(Smith <strong>and</strong> Read 1997). Brundrett (2002) suggested that<br />

ABM, MTM, <strong>and</strong> ERM were derived from ECM. Our<br />

mapp<strong>in</strong>g <strong>of</strong> ECM <strong>and</strong> these other types <strong>of</strong> <strong>mycorrhizas</strong><br />

onto the l<strong>and</strong> plant phylogeny <strong>and</strong> exam<strong>in</strong>ation <strong>of</strong> their<br />

<strong>distribution</strong> with<strong>in</strong> Ericaceae supports this <strong>in</strong>terpretation.<br />

Further, we add that EEM probably represents a transitional<br />

stage between ECM <strong>and</strong> the three types <strong>of</strong> ericaceous<br />

<strong>mycorrhizas</strong>, ABM, MTM, <strong>and</strong> ERM, as ECM <strong>and</strong> EEM<br />

are found only <strong>in</strong> the basal l<strong>in</strong>eages <strong>of</strong> Ericaceae,<br />

Monotropoideae, <strong>and</strong> Arbutoideae (Kron et al. 2002).<br />

Previous studies have identified the fungal symbionts <strong>of</strong><br />

the ericaceous <strong>mycorrhizas</strong>. One <strong>in</strong>terest<strong>in</strong>g phenomenon<br />

is that the fungal stra<strong>in</strong>s isolated from these three types <strong>of</strong><br />

<strong>mycorrhizas</strong> can also form ECM with other plant species<br />

(reviewed by Smith <strong>and</strong> Read 1997). This observation<br />

strongly suggests a close relationship between ECM <strong>and</strong><br />

the ericaceous <strong>mycorrhizas</strong>. An <strong>in</strong>terest<strong>in</strong>g question that<br />

arises is why the same fungi cannot penetrate <strong>in</strong>to root cells<br />

<strong>of</strong> ectomycorrhizal hosts yet are able to do so with<br />

ericaceous <strong>plants</strong>. One answer could be that host <strong>plants</strong><br />

play an important role <strong>in</strong> controll<strong>in</strong>g development <strong>of</strong><br />

different types <strong>of</strong> <strong>mycorrhizas</strong>.<br />

Orchid mycorrhiza<br />

Orchid mycorrhiza (ORM) is generally thought to be<br />

restricted to the Orchidaceae, which <strong>in</strong>volve mostly<br />

basidiomycetous fungi (Leake 1994). Occurrence <strong>of</strong> this<br />

type <strong>of</strong> mycorrhiza <strong>in</strong> other <strong>plants</strong> such as the subterranean<br />

nonphotosynthetic liverwort Cryptothallus mirabilis<br />

(Ligrone et al. 1993; Bidartondo et al. 2003) <strong>and</strong>the<br />

monocot Thismia sp. (Brundrett 2002 see http://www.<br />

ffp.csiro.au/research/mycorrhiza/) probably represents<br />

functional <strong>and</strong> structural convergence, as the fungal<br />

partners are <strong>of</strong> different types than those <strong>of</strong> the true ORM<br />

<strong>in</strong> Orchidaceae (Leake 1994). In this perspective, ORM,<br />

like the ericaceous <strong>mycorrhizas</strong> discussed above, can be<br />

considered to occur exclusively <strong>in</strong> one plant family,<br />

Orchidaceae, <strong>and</strong> probably represents a highly specialized<br />

type <strong>of</strong> ectomycorrhiza. One fact support<strong>in</strong>g this<br />

idea is that some species <strong>of</strong> lower Epidendroideae, an<br />

early-diverg<strong>in</strong>g l<strong>in</strong>eage with<strong>in</strong> Orchidaceae (Cameron et<br />

al. 1999), still have ECM (Bidartondo et al. 2004;<br />

Selosse et al. 2004).<br />

Did <strong>evolution</strong> <strong>of</strong> ectomycorrhiza <strong>and</strong> its derived types<br />

<strong>of</strong> <strong>mycorrhizas</strong> spur diversification <strong>of</strong> plant l<strong>in</strong>eages<br />

that harbor these symbiotic systems?<br />

If AM was <strong>in</strong>strumental <strong>in</strong> the orig<strong>in</strong> <strong>and</strong> subsequent<br />

diversification <strong>of</strong> l<strong>and</strong> <strong>plants</strong> <strong>in</strong> a newly exploited niche,<br />

did <strong>evolution</strong> <strong>of</strong> ECM <strong>and</strong> its derived types <strong>of</strong> <strong>mycorrhizas</strong>,<br />

which <strong>in</strong>volve Ascomycetes <strong>and</strong> Basidiomycetes, contribute<br />

to diversification <strong>of</strong> plant l<strong>in</strong>eages that forged these<br />

new partnerships? Our review provides a rather positive


360<br />

answer to this question. In plant families where ECM <strong>and</strong><br />

its derivatives are the ma<strong>in</strong> types <strong>of</strong> <strong>mycorrhizas</strong> or account<br />

for a significant percentage (>20%), e.g., P<strong>in</strong>aceae, Orchidaceae,<br />

Nyctag<strong>in</strong>aceae, Polygonaceae, Ericaceae, Aquifoliaceae,<br />

Salicaceae, Fagaceae, Betulaceae, Cistaceae,<br />

Dipterocarpaceae, Myrtaceae, <strong>and</strong> Melastomataceae<br />

(Mabberley 1987), the species number is <strong>of</strong>ten high to<br />

very high <strong>in</strong> comparison to their close relatives that have<br />

AM (Fig. 1). In the case <strong>of</strong> woody <strong>plants</strong>, the members <strong>of</strong><br />

these families are <strong>of</strong>ten dom<strong>in</strong>ant species <strong>in</strong> their<br />

communities (Malloch et al. 1980). Although there are<br />

many factors that may affect speciation rate, we believe<br />

that the correlation between high occurrence rate <strong>of</strong> ECM<br />

<strong>and</strong> its derived types <strong>of</strong> <strong>mycorrhizas</strong> <strong>and</strong> the species<br />

richness <strong>of</strong> plant clades that harbor these symbiotic<br />

systems are not co<strong>in</strong>cidental. This observation becomes<br />

particularly strik<strong>in</strong>g when compared to mycoheterotrophy,<br />

another type <strong>of</strong> plant–fungus symbiosis, which will<br />

be discussed below. Because ascomycetous <strong>and</strong> basidiomycetous<br />

mycorrhizal fungi have a much higher host<br />

specificity than glomeromycetous fungi (Horton <strong>and</strong><br />

Bruns 1998; Newton <strong>and</strong> Haigh 1998; Bidartondo <strong>and</strong><br />

Bruns 2002), diversification <strong>of</strong> the plant hosts had likely<br />

<strong>in</strong> turn driven the speciation rate <strong>of</strong> the fungal symbionts.<br />

This co<strong>evolution</strong>ary arms race probably expla<strong>in</strong>s the large<br />

number <strong>of</strong> Basidiomycetes that are ectomycorrhizal today<br />

(Mol<strong>in</strong>a et al. 1992). In comparison, AM has obviously<br />

contributed very little to the diversification <strong>of</strong> glomeromycetous<br />

fungi, <strong>and</strong> the relatively low host specificity <strong>of</strong><br />

these fungi may be to blame.<br />

Mycoheterotrophy<br />

Mycoheterotrophy represents a shift <strong>of</strong> balanced mutualistic<br />

symbiosis between <strong>plants</strong> <strong>and</strong> fungi toward an<br />

exploitative use <strong>of</strong> mycorrhizal fungi by <strong>plants</strong> that are<br />

no longer fully photosynthetic (Leake 1994). It is clearly a<br />

derived condition <strong>in</strong> mycorrhizal <strong>evolution</strong>. In our survey,<br />

we found that mycoheterotrophy had evolved many times<br />

<strong>in</strong>dependently <strong>in</strong> l<strong>and</strong> <strong>plants</strong>, <strong>in</strong> the follow<strong>in</strong>g families:<br />

Aneuraceae, Podocarpaceae, Petrosaviaceae, Burmanniaceae,<br />

Triuridiaceae, Corsiaceae, Orchidaceae, Ericaceae<br />

(Monotropoideae), Gentianaceae, <strong>and</strong> Polygalaceae (Fig. 1).<br />

The mycoheterotrophy <strong>in</strong> the moss genus Buxbaumia needs<br />

more thorough <strong>in</strong>vestigation (Leake 1994). In addition,<br />

gametophytes <strong>of</strong> Lycopodium, Psilotum, <strong>and</strong> Botrychium are<br />

also mycoheterotrophic (reviewed by Brundrett 2002). However,<br />

it has been suggested that mycoheterotrophy <strong>in</strong> these<br />

latter cases <strong>and</strong> most species <strong>of</strong> Orchidaceae may be different<br />

from that <strong>in</strong> other plant groups mentioned above (Bidartondo<br />

2005) because these <strong>plants</strong> only engage <strong>in</strong> mycoheterotrophy<br />

for a part <strong>of</strong> their life cycles dur<strong>in</strong>g establishment, <strong>and</strong> they are<br />

photosynthetic for the rest <strong>of</strong> their life cycles <strong>and</strong> enter<br />

mutualistic symbiosis with mycorrhizal fungi.<br />

The <strong>in</strong>dependent <strong>evolution</strong> <strong>of</strong> mycoheterotrophy <strong>in</strong><br />

many unrelated l<strong>in</strong>eages <strong>of</strong> l<strong>and</strong> <strong>plants</strong> is further underscored<br />

by the fact that it evolved repeatedly from AM <strong>and</strong><br />

ECM <strong>and</strong> ECM-derived types <strong>of</strong> <strong>mycorrhizas</strong> (Fig. 1).<br />

Hence, <strong>evolution</strong> <strong>of</strong> mycoheterotrophy re<strong>in</strong>forces the<br />

<strong>evolution</strong>ary parallelism commonly seen <strong>in</strong> mycorrhizal<br />

<strong>evolution</strong>, which has dom<strong>in</strong>ated <strong>evolution</strong> <strong>of</strong> ECM as<br />

discussed above <strong>and</strong> loss <strong>of</strong> mycorrhiza to be discussed<br />

below. Although one may th<strong>in</strong>k that an exploitative<br />

relationship such as mycoheterotrophy can be <strong>evolution</strong>arily<br />

unstable, which seems to be supported by the general<br />

paucity <strong>of</strong> species <strong>in</strong> most clades <strong>of</strong> mycoheterotrophic<br />

<strong>plants</strong> (Leake 1994), this unique type <strong>of</strong> <strong>in</strong>teraction among<br />

more than two species <strong>of</strong> very different modes <strong>of</strong> nutrition<br />

uptake (autotrophy <strong>and</strong> heterotrophy) might have played a<br />

special role to facilitate some major transitions dur<strong>in</strong>g l<strong>and</strong><br />

plant <strong>evolution</strong>. In the case <strong>of</strong> lycophytes <strong>and</strong> ferns,<br />

mycoheterotrophy probably helped to ease the transition<br />

from a gametophyte generation-dom<strong>in</strong>ant life cycle <strong>in</strong><br />

bryophytes to a sporophyte generation-dom<strong>in</strong>ant life cycle<br />

<strong>in</strong> vascular <strong>plants</strong>. For most Orchidaceae, mycoheterotrophy<br />

has perhaps alleviated the problem <strong>of</strong> extremely small<br />

size <strong>of</strong> the seeds, which can be advantageous for dispersal<br />

but at the same time, limits nutrition packag<strong>in</strong>g for the next<br />

generation, <strong>and</strong> thus has probably contributed significantly<br />

to the success <strong>of</strong> the family. These two examples once<br />

aga<strong>in</strong> highlight the important roles played by fungi not only<br />

<strong>in</strong> the orig<strong>in</strong>, but also <strong>in</strong> many subsequent radiations <strong>of</strong> l<strong>and</strong><br />

plant <strong>evolution</strong>.<br />

Many <strong>in</strong>dependent losses <strong>of</strong> mycorrhiza <strong>in</strong> l<strong>and</strong> <strong>plants</strong><br />

Many families <strong>of</strong> l<strong>and</strong> <strong>plants</strong> have not been found to form<br />

<strong>mycorrhizas</strong> with fungi <strong>in</strong> their natural habitats. In<br />

liverworts, no fungal association has been observed <strong>in</strong><br />

Blasiaceae, Ricciaceae, Metzgeriaceae, Radulaceae, Porellaceae,<br />

Jubuliaceae, Lejeuneaceae, or Herbertaceae. In<br />

pteridophytes, species <strong>in</strong> Isoetaceae <strong>and</strong> Azollaceae are<br />

nonmycorrhizal. Similarly <strong>in</strong> angiosperms, species <strong>in</strong><br />

Nymphaeaceae, Butomaceae, Limnocharitaceae, Cyclanthaceae,<br />

Cannaceae, Loranthaceae, Loasaceae, Lentibulariaceae,<br />

Menyanthaceae, Adoxaceae, Eryothroxylaceae, <strong>and</strong><br />

Bataceae are nonmycorrhizal. In addition, nonmycorrhizal<br />

species occur together with mycorrhizal species <strong>in</strong> many<br />

families, <strong>and</strong> approximately half <strong>of</strong> the ten or more species<br />

exam<strong>in</strong>ed <strong>in</strong> the follow<strong>in</strong>g families are nonmycorrhizal:<br />

Geocalycaceae, Jungermanniaceae, Lycopodiaceae, Hymenophyllaceae,<br />

Gleicheniaceae, Pteridaceae, Adiantaceae,<br />

Aspleniaceae, Thelypteridaceae, Dryopteridaceae, Polypodiaceae,<br />

Cyperaceae, Polygonaceae, Amaranthaceae, Caryophyllaceae,<br />

Crassulaceae, <strong>and</strong> Brassicaceae (Table 1,<br />

Fig. 1). The fact that these families are deeply embedded<br />

among mycorrhizal families <strong>and</strong> are not closely related to<br />

each other provides conv<strong>in</strong>c<strong>in</strong>g evidence that these <strong>plants</strong><br />

lost their ability to form mycorrhiza <strong>in</strong>dependently.<br />

There are two <strong>in</strong>terest<strong>in</strong>g features for phylogenetic<br />

<strong>distribution</strong> <strong>of</strong> nonmycorrhizal <strong>plants</strong>. One is that leafy<br />

liverworts <strong>and</strong> pteridophytes <strong>in</strong> general tend to have a high<br />

concentration <strong>of</strong> nonmycorrhizal species. Of course,<br />

mosses, as an entire clade, lack mycorrhiza as well (Read<br />

et al. 2000) except Takakia (Boullard 1988). Gymnosperms,<br />

on the other h<strong>and</strong>, are all mycorrhizal <strong>and</strong> almost


361<br />

all obligately mycorrhizal. Angiosperms generally are also<br />

mycorrhizal, <strong>and</strong> have only a few groups that have a high<br />

percentage <strong>of</strong> nonmycorrhizal species, alismatids (<strong>in</strong>clud<strong>in</strong>g<br />

Araceae accord<strong>in</strong>g to Stevens’ (2004) new classification<br />

system, see Fig. 1b), Cyperaceae, caryophyllids, <strong>and</strong><br />

Brassicaceae. This feature may be related to the fact that<br />

early l<strong>and</strong> <strong>plants</strong> had not fully adapted to the symbiotic<br />

system with the fungi. Indeed, these <strong>plants</strong> generally have<br />

the Paris-type AM, which lacks well-developed systems <strong>of</strong><br />

<strong>in</strong>tercellular hyphae <strong>and</strong> do not always form arbuscules<br />

(Read et al. 2000). It will be <strong>in</strong>terest<strong>in</strong>g to see if future<br />

studies can demonstrate that a simpler genetic system is<br />

beh<strong>in</strong>d this rather unstable symbiotic relationship <strong>in</strong> basal<br />

l<strong>and</strong> <strong>plants</strong>. The other feature is that almost all nonmycorrhizal<br />

<strong>plants</strong> are derived from ancestors that engaged <strong>in</strong><br />

AM symbiosis. In the several families where ECM <strong>and</strong><br />

ECM-derived <strong>mycorrhizas</strong> dom<strong>in</strong>ate or account for a large<br />

percentage, e.g., P<strong>in</strong>aceae, Orchidaceae, Ericaceae,<br />

Myrtaceae, Salicaceae, Fagales, <strong>and</strong> Cistaceae, very few<br />

species are nonmycorrhizal. This feature is perhaps related<br />

to the highly specialized nature <strong>of</strong> the ECM symbiosis.<br />

As to the mechanisms responsible for mycorrhizal loss,<br />

Trappe (1987) noticed several characters that tend to be<br />

shared by nonmycorrhizal species, <strong>and</strong> his observations<br />

still hold true here. First, many nonmycorrhizal vascular<br />

<strong>plants</strong> grow <strong>in</strong> aquatic or wetl<strong>and</strong> habitat. In these<br />

environments, both nutrients <strong>and</strong> water supplies are not<br />

as limited as <strong>in</strong> the typical terrestrial environment. Hence,<br />

the <strong>plants</strong> can develop <strong>in</strong>dependence from the fungal<br />

symbionts <strong>and</strong> reduce the carbon cost that would normally<br />

be provided to the fungal partners <strong>in</strong> exchange for nutrients<br />

<strong>and</strong> water. The loss <strong>of</strong> mycorrhiza <strong>in</strong> alismatids <strong>and</strong> other<br />

aquatic <strong>plants</strong> likely occurred through this mechanism.<br />

Second, species that grow <strong>in</strong> nutrient-rich environments<br />

tend to be nonmycorrhizal. The ruderals <strong>in</strong> caryophyllids,<br />

Brassicaceae, <strong>and</strong> Crassulaceae, <strong>and</strong> the spr<strong>in</strong>g ephemerals<br />

<strong>in</strong> Ranunculaceae, Papaveraceae, <strong>and</strong> Saxifragaceae belong<br />

to this category. Third, the <strong>plants</strong> that have a long,<br />

f<strong>in</strong>e, <strong>and</strong> highly branched root system with well-developed<br />

root hairs also have a high tendency to become<br />

nonmycorrhizal. Cyperaceae <strong>and</strong> the ruderals perhaps<br />

developed <strong>in</strong>dependence from fungal symbionts through<br />

this route. It has been suggested that root hairs <strong>and</strong><br />

mycorrhizal fungi were two alternative mechanisms for<br />

plant nutrient uptake (Baylis 1970; Koide 1991). If a plant<br />

can absorb sufficient nutrients through its own root hairs,<br />

any genetic changes prevent<strong>in</strong>g the formation <strong>of</strong> mycorrhiza<br />

with fungi would be favorably selected. Besides these<br />

three observations made by Trappe (1987), we also noticed<br />

that many liverworts that lack fungal association are leaf<br />

<strong>and</strong> bark epiphytes, e.g., Radulaceae, Jubulaceae, Porellaceae,<br />

<strong>and</strong> Lejeuneaceae. A possible explanation could be<br />

that fungal development is thwarted by defense mechanisms<br />

<strong>of</strong> the plant on which these epiphytes live.<br />

Areas <strong>of</strong> further study<br />

This study <strong>and</strong> those by Trappe (1987) <strong>and</strong> Harley <strong>and</strong><br />

Harley (1987) represent the three most extensive surveys <strong>of</strong><br />

mycorrhizal occurrence <strong>in</strong> l<strong>and</strong> <strong>plants</strong>, but the total number<br />

<strong>of</strong> species <strong>in</strong>cluded <strong>in</strong> the three studies is only slightly over<br />

10,000 (assum<strong>in</strong>g that there is little overlap among the<br />

three surveys), which is about 3% <strong>of</strong> all listed l<strong>and</strong> plant<br />

species that live on our planet. As can be seen from Table 1<br />

<strong>and</strong> Fig. 1, for most plant families we have knowledge <strong>of</strong><br />

the mycorrhizal status for only one or a few species. Hence,<br />

the first area that deserves more attention <strong>in</strong> the future is the<br />

<strong>in</strong>vestigation <strong>of</strong> mycorrhizal status <strong>of</strong> more species. From<br />

this study <strong>and</strong> those by Trappe (1987) <strong>and</strong> Harley <strong>and</strong><br />

Harley (1987), as well as several reviews published earlier<br />

on this topic (Pirozynski <strong>and</strong> Malloch 1975; Malloch et al.<br />

1980; Selosse <strong>and</strong> Le Tacon 1998; Read et al. 2000;<br />

Brundrett 2002), it is clear that <strong>mycorrhizas</strong> were <strong>in</strong>strumental<br />

<strong>in</strong> the orig<strong>in</strong> <strong>and</strong> subsequent diversification <strong>of</strong> l<strong>and</strong><br />

<strong>plants</strong> <strong>and</strong> are cont<strong>in</strong>u<strong>in</strong>g to play a vital role <strong>in</strong> ma<strong>in</strong>ta<strong>in</strong><strong>in</strong>g<br />

floristic diversity <strong>and</strong> ecosystem function on earth. Thus,<br />

mycorrhizal symbiosis should be viewed as an <strong>in</strong>tegral part<br />

<strong>of</strong> any floristic, ecological, or <strong>evolution</strong>ary studies <strong>in</strong> the<br />

future.<br />

Besides the general <strong>in</strong>crease <strong>of</strong> mycorrhizal research, a<br />

few specific areas should be pursued. First, more basal l<strong>and</strong><br />

<strong>plants</strong> should be <strong>in</strong>vestigated, as they occupy an especially<br />

important position <strong>in</strong> our underst<strong>and</strong><strong>in</strong>g <strong>of</strong> the orig<strong>in</strong> <strong>of</strong><br />

mycorrhizal symbiosis <strong>in</strong> l<strong>and</strong> <strong>plants</strong>. Despite several<br />

studies on basal l<strong>and</strong> <strong>plants</strong> (Pocock <strong>and</strong> Duckett 1985;<br />

Duckett et al. 1991; Read et al. 2000), our knowledge on<br />

phylogenetically critically positioned taxa such as Treubiaceae,<br />

many simple thalloid liverworts, mosses, <strong>and</strong> some<br />

hornworts, rema<strong>in</strong>s fragmentary. In this regard, mosses<br />

deserve special attention, as they represent the only major<br />

clade <strong>of</strong> l<strong>and</strong> <strong>plants</strong> that is nonmycorrhizal (Read et al.<br />

2000), a situation which by itself is very puzzl<strong>in</strong>g. Several<br />

basal moss l<strong>in</strong>eages such as Andreaeaceae, Tetraphidaceae,<br />

Polytrichaceae, Buxbaumiaceae, <strong>and</strong> Diphysciaceae all<br />

grow on nutrient-poor, s<strong>and</strong>y soil or rocks. It will be<br />

<strong>in</strong>terest<strong>in</strong>g to know how they manage to grow on these<br />

poor substrates if they are truly nonmycorrhizal. Takakia,a<br />

sister group to all other mosses, is reported to be<br />

mycorrhizal (Boullard 1988) <strong>and</strong> grows on th<strong>in</strong> soil <strong>and</strong><br />

rocks (Gao 2000). Second, several early-diverg<strong>in</strong>g l<strong>in</strong>eages<br />

<strong>of</strong> angiosperms, Amborella, Austrobaileyales, Chloranthaceae,<br />

<strong>and</strong> magnoliids should be <strong>in</strong>vestigated; the <strong>in</strong>formation<br />

on their mycorrhizal status is currently lack<strong>in</strong>g. Even<br />

when Trappe’s (1987) survey is <strong>in</strong>cluded, our knowledge<br />

<strong>of</strong> these <strong>plants</strong> is still quite poor. A focused study on these<br />

<strong>plants</strong> will fill an important gap <strong>in</strong> our underst<strong>and</strong><strong>in</strong>g <strong>of</strong><br />

mycorrhizal <strong>evolution</strong> <strong>in</strong> early angiosperms. F<strong>in</strong>ally, as we<br />

learn more from studies <strong>of</strong> model organisms such as<br />

legumes (Stracke et al. 2002; Liu et al. 2003; Ane et al.<br />

2004; Demchenko et al. 2004; Levy et al. 2004), characterization<br />

<strong>of</strong> molecular aspects <strong>of</strong> <strong>mycorrhizas</strong> <strong>in</strong><br />

nonmodel organisms will significantly exp<strong>and</strong> the dimension<br />

<strong>and</strong> depth <strong>of</strong> our knowledge <strong>of</strong> this important<br />

symbiotic system. In summary, the mycorrhizal research


362<br />

conducted over the last several decades has brought this<br />

long neglected field <strong>in</strong>to ma<strong>in</strong>stream biology, <strong>and</strong> future<br />

research will undoubtedly further enhance our underst<strong>and</strong><strong>in</strong>g<br />

<strong>of</strong> this important biological <strong>in</strong>teraction <strong>and</strong> its<br />

impact on the <strong>evolution</strong> <strong>of</strong> both <strong>plants</strong> <strong>and</strong> fungi, as<br />

well as the establishment <strong>and</strong> function<strong>in</strong>g <strong>of</strong> the terrestrial<br />

ecosystem.<br />

Acknowledgements We would like to thank Rong-rong Xu for<br />

help<strong>in</strong>g with figure preparation, Mal<strong>in</strong>i Jane Sridharan for critically<br />

read<strong>in</strong>g the manuscript, <strong>and</strong> Jim Trappe <strong>and</strong> two reviewers for their<br />

<strong>in</strong>sightful comments. This work was supported by an Early Career<br />

Award (DEB 0332298) <strong>and</strong> ATOL grants (DEB 0431239, DEB<br />

0531689) from NSF to Y-L Qiu.<br />

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