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Monaldi Archives for Chest Disease 2018; volume 88:966
Best practice in psychological activities in cardiovascular prevention
and rehabilitation: Position Paper
Marinella Sommaruga1, Elisabetta Angelino2, Paola Della Porta3, Mara Abatello4,
Giacomo Baiardo5, Gianluigi Balestroni6, Ornella Bettinardi7, Edward Callus8,
Chiara Ciracì9, Ombretta Omodeo10, Claudia Rizza11, Paolo Michielin12,
Marco Ambrosetti13, Raffaele Griffo14, Roberto F.E. Pedretti15, Antonia Pierobon16
1 Psychology
Unit, Istituti Clinici Scientifici Maugeri IRCCS, Milan
Unit, Istituti Clinici Scientifici Maugeri IRCCS, Turin
3 Psychologist at FERB Onlus Rehabilitation Center of Cernusco sul Naviglio, Milan
4 Unit of Cardiology, University Health Agency, Trieste
5 Cardiovascular Institute of Camogli, Genova
6 Psychology Unit, Istituti Clinici Scientifici Maugeri IRCCS, Veruno
7 Department of Mental Health and Addictive Behavior, Local Health Authority, Piacenza
8 Clinical Psychology Service, Polyclinic San Donato IRCCS, San Donato Milanese, Milan
9 Cardiovascular Prevention and Rehabilitation Unit, Don Carlo Gnocchi Foundation, Parma
10 Psychology Unit, Istituti Clinici Scientifici Maugeri IRCCS, Pavia
11 Gruppo Multimedica Spa-IRCCS, Milan
12 Department of Psychology, University of Padua
13 Cardiovascular Rehabilitation Unit, Le Terrazze Clinic, Cunardo
14 Research and Educational Centre GICR-IACPR, Genoa
15 Department of Cardiology, Istituti Clinici Scientifici Maugeri IRCCS, Pavia
16 Psychology Unit, Istituti Clinici Scientifici Maugeri IRCCS, Montescano, Italy
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2 Psychology
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Abstract
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Recent guidelines on cardiovascular disease prevention suggest
multimodal behavioral interventions for psychosocial risk factors and
referral for psychotherapy in the case of clinically significant symptoms
of depression and anxiety overall. Accordingly, psychologists of the
Italian Association for Cardiovascular Prevention, Rehabilitation and
Epidemiology (GICR-IACPR) have reviewed the key components of psychological activities in cardiovascular prevention and rehabilitation
(CPR). The aim of this study was to elaborate a position paper on the
Corresponding author: Marinella Sommaruga, Psychology Unit, Istituti
Clinici Scientifici Maugeri IRCCS, Via Camaldoli 64, 20138 Milan, Italy.
E-mail: marinella.sommaruga@icsmaugeri.it
Key words: Best practice; psychology; psychotherapy; cardiovascular
rehabilitation; cardiac diseases; prevention.
Received for publication: 16 May 2018
Accepted for publication: 10 June 2018
©Copyright M. Sommaruga et al., 2018
Tipografia PI-ME Editrice, Italy
Monaldi Archives for Chest Disease 2018; 88:966
doi: 10.4081/monaldi.2018.966
This article is distributed under the terms of the Creative Commons
Attribution Noncommercial License (by-nc 4.0) which permits any
noncommercial use, distribution, and reproduction in any medium,
provided the original author(s) and source are credited.
best practice in routine psychological activities in CPR based on efficacy, effectiveness and sustainability.
The steps followed were: i) a review of the latest international guidelines and position papers; ii) analysis of the evidence-based literature; iii)
a qualitative analysis of the psychological services operating in some reference Italian cardiac rehabilitation facilities; iv) classification of the psychological activities in CPR as low or high intensity based on the NICE
Guidelines on psychological interventions on anxiety and depression.
We confirm the existence of an association between depression, anxiety, social factors, stress, personality and illness onset/outcome and
coronary heart disease. Evidence for an association between depression,
social factors and disease outcome emerges particularly for chronic heart
failure. Some positive psychological variables (e.g., optimism) are associated to illness outcome. Evidence is reported on the impact of psychological activities on ‘new’ conditions which are now indicated for cardiac
rehabilitation: pulmonary hypertension, grown-up congenital heart, endstage heart failure, implantable cardioverter-defribrillator and mechanical ventricular assist devices, frail and oldest-old patients, and end-oflife care. We also report evidence related to caregivers. The Panel divided
evidence-based psychological interventions into: i) low intensity (counseling, psycho-education, self-care, self-management, telemedicine, selfhelp); or ii) high intensity (individual, couples and/or family and group
psychotherapy, such as stress management). The results show that psychotherapy is consisting of cognitive-behavioral therapy (mainly), interpersonal therapy, and short term psycho-dinamic therapy.
The current data further refine the working tools available for psychological activities in CPR, giving clear directions about the choice of interventions, which should be evidence-based and have at least a minimum standard. This document provides a comprehensive update on new
knowledge and new paths for psychologists working in the CPR settings.
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The criteria used to elaborate this position paper on best practice
were based on:
• consultation of the latest international guidelines and consensus
statements produced by the major scientific societies;
• identification of a reference bibliography based on evidence of effectiveness through a search of the most well-known databases
(Cochrane Library, Medline, PsychINFO [2005-2017];
• qualitative analysis of the psychological services offered in some
reference cardiac rehabilitation facilities.
We did not examine in this document the psychological approach
and treatments for addictions and sexuality, for which the reader
should refer to the relative guidelines.
In presenting the evidence for the association between psychological
variables and disease manifestation/outcome and/or for the association
between psychological variables and clinical condition, the strength of evidence is graded as strong, moderate, or mild. “Onset” of a disease is defined as its occurrence, while the term ‘outcome’ refers to its clinical
trend (new events, mortality). For each pathology, after a brief discussion,
we provide a synthesis of the evidence of the associations between psychological variables and disease and of the psychological interventions.
The evidence-based interventions are divided into two levels according to the NICE model [10] (Table 1).
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The aim of this position paper is to serve as a tool for consultation in
order to promote best practice (based on effectiveness, efficiency and
sustainability) in the daily clinical activity of psychologists working in
the Cardiovascular Prevention and Rehabilitation (CPR) setting. Since
the publication in 2003 of the “Guidelines for psychology activities in
cardiologic rehabilitation and prevention” [1] there has been a constant growth both in the number of psychological interventions performed in the real-world of CPR [2] and in the publication of articles,
meta-analyses and systematic reviews [3-8] on the association between heart disease, psychological variables and psychological interventions. Therefore, the need has emerged to update the knowledge
not only as regards the traditional indications for CPR interventions coronary heart disease (CHD), chronic heart failure (CHF) and cardiac
surgery - but also concerning psychological activities in other scenarios
of cardiovascular disease (CVD) where the indication for rehabilitation
treatment has emerged more recently, such as pulmonary hypertension, grown-up congenital heart (GUCH), end-stage heart failure, use
of implantable cardioverter-defribrillator and mechanical ventricular
assist devices, frail and older/oldest patients, and end-of-life care. This
document also includes an analysis of family/caregivers and their specific need for psychological interventions: in fact, numerous reports in
the literature [9] now show the positive effects of good family and social support on CVD outcome in terms of better adherence and reduced
readmissions, particularly in elderly patients who are increasingly referred to CPR programs and for whom the importance of a neuropsychological evaluation is also stressed.
A special feature of this paper is the introduction of a low/high intensity grade for classifying the psychological interventions, in line
with the NICE guidelines on psychological interventions for anxiety
and depression disorders [10]. In the nineties, in fact, the “stepped
care” model was introduced [11] which envisaged the planning of
clinical psychology and psychotherapy interventions at different
levels of intensity and complexity (low or high) according to the results of the initial assessments carried out [12]. In 2007, the British
government approved the “Improving Access to Psychological Therapies” (IAPT) Program [13] to facilitate the access of people with
common emotional disorders to evidence-based psychological treatments (Care Services Improvement Partnership, 2007). This program
is characterized by three steps, the first of which is related to psy-
chological evaluation and eventual monitoring over time; the second
consists of low-intensity interventions suitable for patients with less
severe disorders and/or of recent onset, such as education, counseling, relaxation techniques, and self-help groups; the third provides
for more severe patients with high-intensity interventions, mainly
psychotherapeutic treatments. The extensive and now widespread application of the IAPT model has confirmed its appropriateness, effectiveness and efficiency [14-16].
The low/high intensity classification allows the psychologist to identify and select, based on scientific evidence, interventions that can be
adapted to different patients, different organizational regimes (hospitalization, day hospital, outpatient) and to the time available (full-time,
part-time, or consultant psychologist). The IAPT treatment pathway is
self-correcting in the sense that, if a patient with sub-threshold symptoms deteriorates over time or does not gain benefit from low-intensity
treatments, he/she will go on to high-intensity treatments.
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Table 1. Evidence based interventions divided into two levels according to the NICE model.
Low intensity = interventions of low complexity performed by the psychologist and/or in collaboration
with the multidisciplinary team:
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Individual and/or group counseling (from single interview to motivational interview)
Psycho-educational sessions regarding psychosocial risk factors, smoking, diet, etc.
Multidisciplinary sessions regarding information and management (self-care, self-management, self-help)
Self-help groups
Use of self-help manuals
Distance information and treatment programs, using the Internet
Relaxation training
Problem solving training
High intensity = interventions of high complexity performed by the psychologist and/or in collaboration
with the multidisciplinary team:
• Psychotherapy interventions: individual, group (stress management) or family (at least 1/week)
• Multidisciplinary interventions (evidence of the need to implement a structured psychotherapeutic intervention
(cognitive-beavioral therapy, motivational, mindfulness, etc.)
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increase in risk in both primary and secondary prevention [36].
Depression is especially deleterious to cardiovascular prognosis
post-AMI [17] and there does not appear to be a significant difference in prognosis between persons with pre-existing depression
and those developing depression post-AMI [37].
Also the syndrome known as “vital exhaustion” increases the risk
of new events [38,39].
Coronary heart disease
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Anxiety and panic
In recent years the role of anxiety as a CHD risk factor has been
clarified. Several meta-analyzes have identified an increased risk
associated with anxiety symptoms both in population and in patient cohorts [40,41].
Recent studies have shown that the risk of CHD events is high
among patients with generalized anxiety disorder [42,43].
Among the anxiety disorders, evidence implicates generalised anxiety
disorder with poorer CHD prognosis in a recent metaanalysis [44).
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Stress
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It is widely documented that acute stress (mourning, natural disasters, terrorist attacks, football matches) can act as triggers of
acute coronary syndrome [45,46]. More complex is the analysis of
chronic stress related to specific situations:
Psychosocial characteristics of work. The association between work stress and cardiovascular events has been further
documented over the course of time. Numerous studies [47-50]
have demonstrated that high demands combined with low
work control produce stress, and in a recent meta-analysis a
1.23-fold increase was reported in incidence of CHD in association with job strain [48], compared with a 1.63-fold increase
in mortality associated with unemployment [51].
Separation and divorce. Separation and divorce are another
common stressor that increase the risk of mortality; some epidemiological studies also suggest an association between marital tension and coronary events [4].
Negative childhood experiences. Regarding negative childhood experiences, a large longitudinal study [52] showed that
women with severe childhood abuse had an approximately
1.5-fold greater risk of early onset of cardiac events.
Stress associated with disease. Diseases in themselves
constitute a stress factor, often leading to depression, anxiety,
social isolation and loss of self-esteem. In particular, the perception of stress can also be an important determinant of
health [53,54].
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A large body of empirical research shows that psychosocial risk factors, such as low socio-economic status, social isolation, stress, type-D
personality, depression and anxiety increase the risk of incident CHD
and also contribute to poorer health-related quality of life and prognosis in patients with established CHD. Psychosocial risk factors may
also act as barriers to lifestyle changes and treatment adherence [4-6].
Based on epidemiological data, Rozanski recently divided the behavioral risk factors for CHD into five broad categories:
a. Physical health behaviors, including physical inactivity, poor diet
and obesity, smoking, poor or inadequate sleep, inadequate rest
and relaxation
b. Negative emotions and mental mindsets including depressive
symptoms, anxiety, pessimism, anger and hostility
c. Chronic stress, including situational stressors (work stress, marital stress, social stressors, caregiver strain, childhood and adult
abuse, medical illness), and perceived stress
d. Social isolation and poor social support
e. Lack of sense of purpose.
Whilst psychosocial risk factors such as anxiety and depression can affect the cardiovascular system through biological and behavioral pathways,
conversely CHD and its treatments can induce anxious and depressive reactions in the patient and caregiver. Depression disorder prevalence is between 15 and 20% in CHD and estimates of clinically-relevant depressive
symptoms are much higher [17,18]. A recent meta-analysis indicated a
16% rate of prevalence of anxiety disorders [19]. Recently, Pedersen et al.
[20] have provided a general overview of the prevalence of selected psychosocial risk factors, their impact on patient-reported and clinical outcomes, and biological and behavioral mechanisms that may explain the association between psychosocial factors and health outcomes.
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Social factors
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Physical inactivity, unhealthy diet, smoking [6]
Sleep disorders [21,22]
Inadequate rest and relaxation [4]
Consumption of 3 or more alcohol beverages per day [6]. Data
are contrasting, however, regarding the moderate consumption of alcohol: positive association [23]; negative association
[24,25]
Use of cocaine (associated with increased cardiovascular risk,
e.g. tachycardia, arrhythmias, hypertension and vasospasm of
the coronary arteries) [26].
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• Behavioral risk factors
Low socio-economic status, measured by educational and professional level, income, and perceived working position
[27-32]. In particular, individuals after acute myocardial infarction (AMI) with low income and low education are at risk
of premature mortality [33].
Lack of social support [31,34]. Epidemiological studies have
shown that a reduced social network, poor social support
and/or its perception increase the risk of cardiac events [4].
The significant role of the various social factors has been confirmed by a recent meta-analysis of 148 studies [35]. Conversely, a good social integration was associated with an almost 2-fold increase in survival.
Clinical depression and depressive symptoms
Both major depression and depressive symptoms increase the risk
of developing CHD and its worsening once the disease is manifest:
a review of 54 studies in fact documented an approximately 2-fold
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Post-traumatic stress disorder (PTSD)
Studies have reported the prevalence of post-AMI stress disorder
and PTSD to be as high as 30% [55], although a meta-analysis of
24 observational cross-sectional studies estimated the prevalence
to be 12% [56]. In any case, the rate of PTSD is much higher in cardiac patients than in the general population (10-12% in men and
5-6% in women) [57].
These patients may be prone to develop re-experiencing (e.g., recalling the cardiac event or defibrillator shocks, dreams of cardiac
arrest, flashbacks of the medical intervention and surgical procedure), avoidance (e.g., avoiding reminders of the cardiac event
such as the location of the event, the hospital, medication, situations in which heart rate increases such as exercise or sexual activity), and arousal symptoms (e.g., preoccupation with heart rate
or chest pain, insomnia) [58].
MODERATE EVIDENCE
• Personality factors
Anger and hostility. Over the years it has been confirmed
that there is no association between type A personality and
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The role played by positive emotions (positive affect) in the development of CHD is increasingly the subject of scientific research,
although it is still not completely clear [67]. Empirical evidence
suggests that there is an association between positive affective
states and health outcomes, including cardiovascular risk reduction and an increased resistance to infection [68]. Positive affectivity according to Steptoe [68] may be part of a broader profile of
psycho-social resilience that reduces the risk of adverse outcomes
of physical health.
Positive psychosocial factors also promote physiological effects,
such as improvements in immune, endothelial, and autonomic
functions [69,70]. Optimism is associated with a higher experience of positive emotions, enhanced social functioning, and better
recovery from myocardial infarction and cardiac procedures. Recent epidemiological studies have shown that pessimism increases
the risk for cardiac events, stroke and/or all-cause mortality,
whereas optimism exerts a buffering role [71-74].
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Positive psychological variables
The position papers and psychological guidelines underline the need
for an effective management of these psychosocial risk factors, including screening of psychosocial risk factors and implementation of
different psychological interventions programs such as counseling, motivational interviews, health psycho-education and psychotherapy.
Pogosova et al. [5] suggest the need for core competencies that
should include a screen for stress and psychosocial risk factors to identify clinically relevant levels of depression, anxiety, anger/hostility, relationship stress and low social support. It may be more important to
teach patients how to change their existing stressors, or enhance their
coping mechanisms for existing stressors, rather than to change unhealthy lifestyle habits. Therefore, it is essential to identify stressors
with the patients and support them in finding ways to attenuate these
stressors. This ideally should be carried out by trained personnel in
dedicated sessions dealing with stress [5].
Rozanski [4] suggests some evidence-based techniques developed
as management strategies for promoting healthy behaviors and the enhancement of psychosocial well-being, many of which are derived from
Cognitive Behavioral Therapy (CBT): health counseling, smoking cessation, weight management, self monitoring, stress management, etc.
A large number of “multidisciplinary” studies have been conducted to
determine the effectiveness of psychosocial interventions for primary
and secondary prevention but often the effects of the psychosocial
components cannot be formally isolated from these studies.
The studies on psychological interventions for CHD patients have reported positive effects on quality of life, health behavior, and somatic
risk profile, while others reported a protective effect on morbidity and
mortality [3]. Some studies showed small-to-moderate improvements
in depression and anxiety, a small reduction in cardiac mortality risk
[81] and a reduction in all-cause mortality risk for men, but not for
women [82]. Men appear to profit more from the interventions than
women, but less studies have been performed on women than men. In
particular, the meta-analysis by Whalley et al. [81] underlined the positive effects of psychological interventions on quality of life, depressive
symptoms and anxiety, as well as an effect on cardiac mortality. Linden
et al. [82] showed that programs which were initiated at least two
months after the cardiac event showed stronger effects on the rate of
future events than those initiated immediately after.
Welton et al. [83] carried out systematic literature searches to update
an earlier Cochrane review and classified components of interventions
into 6 types: usual care, educational, behavioral, cognitive, relaxation,
and support. Most interventions were a combination of these components. There was some evidence that psychological interventions were
effective in reducing total cholesterol and standardized mean anxiety
scores, that interventions with behavioral components were effective in
reducing the odds ratio of all-cause mortality and nonfatal AMI, and that
interventions with behavioral and/or cognitive components were associated with reduced standardized mean depression scores.
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coronary disease onset/outcome. A meta-analysis [59] confirmed that anger and hostility are associated with increased
risk of cardiovascular events both in the healthy population
and in coronary patients. However, the association is less than
that observed for depression and anxiety.
Type D personality. A type D personality is present in about
one-third of patients with CHD [60] and predicts a poorer
prognosis [61-63], although some recent studies [64,65] have
shown contrasting results. Type D is also associated with worsening of functional capacity and health status [66].
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Some studies document different psychological profiles in relation to
gender and age, and there are growing data in the literature underlining the importance of psychosocial risk factors for the development
of CHD in women [75-80] (Table 2).
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In summary, in the opinion of the Panel, from the literature analysis
there emerges:
– strong evidence of an association between the following variables
and onset/outcome of the disease:
• Behavioral risk factors
• Social factors
• Depression
• Anxiety and panic
• Stress
• Post-traumatic stress disorder
– moderate evidence of an association between the following variables and onset/outcome of the disease:
• Personality factors
• Positive psychological variables
Table 2. Evidence of association between the following variables and onset/outcome of CHD in women.
• depression [Ye S et al. 2012, Low et al. 2010, Shanmugasegaram S et al. 2012, Doeringet LV 2011, Möller- Leimkühler 2008]
• anxiety disorder [Doering 2011, Low et al. 2010]
• repressed anger [Low et al. 2010]
• low social support [Möller-Leimkühler 2008]
• stress associated with family relationships or responsibility [Low et al. 2010, Georgiades A 2009]
In women, general anxiety, hostility and work-related stress are less frequently associated with CHD [Low et al. 2010]
Women report more stressful life events and other psychosocial risk factors in the year following discharge [Georgiades 2009]
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existence of moderate evidence for the efficacy of cognitivebehavioral interventions on cardiac outcomes
existence of mild evidence for the efficacy:
• of interpersonal psychotherapy on depression
• of short-term psychoanalytic therapy on quality of life and cardiac outcomes
• of mindfulness interventions on anxiety, depression, stress,
cardiac outcomes
Cardiac surgery
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Takagi et al. [108] performed a systematic review and meta-analysis
to determine whether perioperative depression and anxiety were associated with increased postoperative mortality in patients undergoing
cardiac surgery. Neurocognitive and psychiatric complications are
common following cardiac surgery and impact on the patient’s quality
of life, recovery, participation in rehabilitation and long-term mortality.
Postoperative cognitive decline, depressive disorders, post-traumatic
stress disorder and neurocognitive impairment related to silent brain
infarcts have all been linked to the perioperative period of cardiac surgery, and can have potentially serious consequences. The accurate assessment of these conditions, particularly in determining the etiology,
and impact on patients is difficult due to the poorly recognised nature
of these complications as well as similarities in presentation to postoperative delirium [109].
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Pogosova et al. [5] affirmed that stress management should be offered to patients (on an individual basis or in small groups) and that
significant others should be included in the programs.
In a systematic review, Dickens et al. [84] sought to identify the
characteristics of psychological interventions that improve depression
and depressive symptoms among people with CHD. The results show
that psychological interventions improved depression, although the effect was small. Problem solving, general education, skills training,
CBT and relaxation had small effects on CHD patients, who were recruited irrespective of their depression status. Among high-quality
trials of depressed CHD patients, only CBT showed significant, though
small, effects. The systematic review of Van Dixoorn [85] on the effectiveness of relaxation therapy showed positive effects on cardiologic variables, anxiety and depression, and work reintegration A recent review of psychotherapy interventions for patients with ischemic
heart disease [86] showed positive effects on conditions of psychological distress, on the management of traditional risk factors and
with respect to some cardiovascular prognostic indices. Data from the
literature on the effectiveness of the above-mentioned psychological
interventions and evidence-based psychotherapy are mainly based on
CBT interventions; however, one can also find evidence of efficacy of
interventions based on other theoretical models, though these require
further confirmatory studies. Most of the studies with CBT involve individual and/or group interventions carried out in the context of research, mainly in outpatient settings - the average duration is about
one year with weekly sessions in the early stages followed by monthly
sessions in the second part.
Table 3 reports the major studies on CBT interventions carried out in
CHD patients [87-105].
In the literature there are few reports of psychotherapeutic interventions with a non-cognitive-behavioral orientation. A randomized
clinical trial conducted in 2013 by Roncella et al. [106] shows the efficacy of a psychoanalysis intervention (group and individual) on cardiac
symptoms, quality of life, and psychological/medical outcomes at 1-year
follow-up. Lesperance [107] shows the effectiveness of interpersonal
psychotherapy on reducing depression in a sample of patients with
CHD. However, further studies are required due to the low number of
studies and short follow-up duration (1 year).
The updated Cochrane Review [7] found that for people with CHD
there was no evidence that psychological treatments had an effect on
total mortality, risk of revascularisation procedures, or on the rate of
non-fatal AMI, although the rate of cardiac mortality was reduced and
there was a reduction in psychological symptoms (depression, anxiety,
or stress); however, the GRADE assessments suggest considerable uncertainty surrounding these effects. There is also considerable uncertainty about who would benefit most from treatment (i.e., people with
or without psychological disorders at baseline) and what the specific
components of successful interventions are. For depression, psychological interventions combined with adjunct pharmacology (where
deemed appropriate) for an underlying psychological disorder appeared
to be more effective than interventions alone without adjunct pharmacology. For anxiety, interventions recruiting participants with an underlying psychological disorder appeared more effective than those delivered to unselected populations.
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In the Panel’s opinion, from the literature analysis, it can be stated
that there is:
– existence of strong evidence for the efficacy of cognitive-behavioral interventions on the following variables:
• depression
• anxiety
• stress
Post-traumatic stress disorder (PTSD)
In a narrative review, Singh [110] affirmed that PTSD has a strong
association with CABG and can be a source of considerable morbidity and mortality, although the studies on which these statements are based are not recent. In primis, the study of Stoll et al.
[111] compared patients undergoing cardiac surgery with healthy
persons and those undergoing other types of surgery and noted a
higher incidence of PTSD in cardiac surgery patients. The authors
observed that patients after CABG with comorbid PTSD had a lower
compliance with respect to use of medication, which carries the
risk of an unfavorable course of the somatic disease. Also, the risk
for rehospitalization after AMI is higher in patients with comorbid
PTSD symptoms than in patients without.
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The literature search by Takagi et al. [108] included data on
236,595 patients undergoing cardiac surgery - coronary artery
by-pass grafting (CABG), CABG with concomitant valve replacement, valve surgery - and showed that perioperative depression
and anxiety may be associated with increased postoperative
mortality. Depression and/or anxiety before an invasive intervention may negatively influence coping and recovery after the
intervention.
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Post-surgery neuropsychological disorders
A systematic review of 2014 [112] stated that persistent cognitive
impairment attributable to cardiovascular surgery in patients aged
over 65 years is infrequent, and may reflect pre-existing cognitive
impairment. In particular, CABG interventions seem to have
modest effects in the medium and long term. Results cannot be
generalized to the oldest-old, to women or to patients with pre-existing cognitive impairments. Postoperative decline appears to be
associated with the presence of new ischemic lesions from emboli
during surgery, but the pathogenesis seems still unclear and also
hard to predict [113].
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Table 3. Major studies on CBT interventions in CHD patients.
Study
Setting
Diagnosis
Patients
RCT
ENRICHD
(Berkman et al.,
2003)
Multi-center
AMI
2481 (1397 males 61
and 1084 females;
1238 intervention
and 1243
controls)
Blumenthal et al., RCT
2005
Single-center
Patients with
stable ischemic
heart disease (IHD)
and exerciseinduced myocardial
ischemia
63
134 patients
(92 males and
42 females; 44
intervention and
42 controls 1 and
48 controls 2)
RCT
Single-center
Ischemic heart
disease
198 (only
females;
101 intervention
and controls)
61
McLaughlin et al. RCT
(2005)
Single-center
ACS
100 (74 males
and 26 females;
53 intervention
and 47 controls)
60
Michalsen et al. RCT
(2005)
Single-center
Stable or
unstable CAD
101 (78 males
and 23 females;
48 intervention
and 53 controls)
Sebregts et al.
(2005)
RCT
Single-center
Edelman et al.
(2006)
RCT
Mean age
(years)
Follow-up
(years)
Intervention
Outcomes
29 months
Group and individual
cognitive-behavioral
therapy, education,
relaxation, and type A
behavior modification
for 18 contact hours.
Improvements in depression
and social support. There was
no benefit in terms of cardiac
outcomes or mortality after
follow-up.
Less emotional distress
Weekly 1.5-hour
stress management and lower levels of depression
training for 16 weeks. compared with usual care
controls. Improved markers
of cardiovascular risk more than
usual medical care alone.
Cognitive-behavioral
stress management
program vs usual
care 1-year.
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Claesson et al.
(2005)
Design
CBT, counselling,
education for 8-week
treatment sessions
were 30 minutes
and conducted
by doctoral-level
clinicians with
telephone.
27% improvement in depression
symptoms (P=0.05), 27% in
anxiety (P=0.02), and a 38%
improvement in home limitations
(P=0.04).
CBT, relaxation,
and type A behavior
modification
for 96 contact hours.
Both groups improved in QoL,
and significantly greater
improvements for the lifestyle
group were found for physical
function and physical sum score
(P=0.046 and P=0.045). Depression,
anxiety, anger and perceived stress
were reduced similarly in both
groups. Greater benefits among
women in the lifestyle intervention
vs advice group for depression
and anger (P=0.025 and P=0.040),
but no effects for men.
A combined stress
management
and health education
program during eight
weekly 2.5-h
sessions.
Reduction of hostility and total
Type A behavior at post
intervention (P=0.01) and at
9-month. Follow-up (P=0.03).
The intervention had no overall
impact on vital exhaustion and
depression, whereas we
unexpectedly found that the
percentage of patients with
major depression was reduced
in the control group but not
in the intervention group.
Personalized health
planning (PHP):
usual care associated
with educational
couselling and
mindfulness
meditation,
relaxation training,
stress management,
motivational
techniques, and
health education
and coaching.
Baseline 10-year risk of CHD was
11.1% for subjects randomized
to Usual Care (n=77), and 9.3%
for subjects randomized to PHP
(n=77). Over 10 months of the
intervention, CHD risk decreased
to 9.8% for UC subjects and 7.8%
for intervention subjects.
A multidimensional intervention
based on integrative medicine
principles reduced risk of CHD,
possibly by increasing exercise
and improving weight loss.
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Patients with
1 or more known
cardiovascular
risk factors
53
154 (30 males
and 124 females;
77 intervention
and 77 controls)
on
204 (169 males
and 35 females;
106 intervention
and 98 controls)
N
Single-center
55
AMI or CABG
10
Both groups improved in all
psychosocial variables the rate
of improvement was significantly
greater in the intervention group
for self-rated stress behavior
(P=0.006) and vital exhaustion
(P=0.03).
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Table 3. Continued from previous page.
Study
Design
Setting
Diagnosis
Koertge et al.
(2008)
RCT
Single-center
AMI, PCI or CABG 247 (only females; 62
119 intervention
and 128 controls)
Albus et al.
(2009)
RCT
Single-center
Patients with
stable CHD
77 (67 males
and 10 females;
39 intervention
and 38 controls)
Blom et al.
(2009)
RCT
Single-center
CAD
Griffiths et al.
(2009)
Pilot study
Single-center
Diagnosed
cardiac
condition that
required cardiac
rehabilitation
247 (only females; ≥75
13 intervention
and 122 controls)
50
6 (5 males
and 1 female)
Neves et al.
(2009)
RCT
Single-center
Stable
or unstable CAD
Mean age
(years)
Follow-up
(years)
Intervention
Outcomes
For VITAL exhaustion, intention
to treat analysis showed effects
for time (P<0.001) and time x
treatment interaction (P=0.005),
reflecting that both groups
improved over time, and that
the decrease of VE was more
pronounced in the intervention
group.
Multimodal, behavioral Improvement of miocardial
perfusion.
intervention and
relaxation training
10 sessions once a
week followed by 9
subsequent sessions
once a month, which
included group
discussions,
relaxation and
exercise training,
which continued for a
period of up to 1 year.
Reduction of self-rated daily
20 (2-h group
sessions) of stress stress behavior over time
management therapy. compared to controls.
Development of awareness,
Mindfulness based
commitment, within group
Cognitive Therapy
experiences, relating to the
eight-week (two
material and acceptance as
hours per week).
Mindfulness-based central experiential themes.
Absence of a control group
Cognitive Therapy
group developed by and small sample size number
Segal, Williams and is in accordance with IPA sample
sizes. Interpretive
Teasdale (2002)
adapted for a cardiac phenomenological analysis (IPA)
of participant experiences.
population.
Perceived stress declined more
Group relaxation
therapy for 3 months in the intervention group and
it had significantly lower heart
vs usual care.
rate, blood pressure, and ratepressure product values after
the program (P <or= .0001).
Relaxation therapy was
associated with a positive effect
on psychological stress
and hemodynamic variables.
No difference in the follow-up.
20 Group cognitive- Women in usual care
behavioral therapy for had a mortality rate of 20%,
12 months. Educational whereas those in the
group sessions were psychosocial intervention
had a mortality rate of 7%.
aimed at improving
No women were lost
knowledge of the
to follow-up.
heart, healthier
lifestyle, training
skills, and improving
mastery of marital
stress, coping with
serious illness,
counteracting anxiety
and depression,
improving social
relations and social
support, and
practicing relaxation
techniques.
Group cognitivebehavioral therapy,
education, relaxation,
and type A behavior
modification for 40
contact hours.
54.2 +/- 6.9 After 1, 2, 3,
and 7 years
years
60
2
237 (only females; 62
112 intervention
and 125 controls)
7
81 (69 males
and 11 females;
41 intervention
and 40 controls)
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After 1
and 2 years
Orth-Gomér et al. RCT
(SWITCHD,
2009)
Multi-center
AMI, PCI
or CABG
on
ly
Patients
To be continued on next page
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Table 3. Continued from previous page.
Study
Setting
Diagnosis
Patients
Mean age
(years)
Blumenthal et al. RCT
(2010)
ENHANCED
Multi-center
CHD
150
≥35
Gulliksson et al. RCT
(SUPRIM, 2011)
Single-center
Stable or
unstable CAD
362 (277 males
62
and 85 females;
192 intervention
and 170 controls)
Goodwin et al.
(2012)
Single-center
Acute coronary
syndrome
16 (5 males
and 11 females;
all intervention)
Orth Gomer et al. Observational Single-center
(2012)
study
Acute coronary
syndrome
30 (19 males
and 11 females;
all intervention)
Follow-up
(years)
7.8
Intervention
Outcomes
Stress management
training (SMT)
vs traditional
exercise based
cardiac rehabilitation
for 12 weeks.
Cardiac rehabilitation enhanced
by SMT produced significant
reductions in stress and greater
improvements in medical
outcomes compared with
standard CR. Our findings
indicate that SMT may provide
incremental benefit when
combined with comprehensive CR.
Group undergoing CBT had
a lower rate of fatal and non-fatal
first recurrent cardiac events;
fewer recurrent acute
myocardial infarctions and a non
significant lowering of all-cause
mortality. In patients with CVD
an intensive 40-hour group-based
CBT program decreased the risk
of recurrent CVD and AMI.
CBT 40 contact hours
spanning 1 year 20
two-hour sessions
of group-based
stress management.
The groups consisted
of 5 to 9 same-sex
participants, 5 key
elements (education,
self-monitoring, skills
training, cognitive
restructuring, and
spiritual development)
and was focused
on stress reduction
and management.
ACT four, 90-min
group sessions
focused on developing
mindfulness and
distress tolerance
skills, and
strengthening
commitment to
health-related
behavior change.
CBT: ten sessions
of two hours of
stress management
program.
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Design
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9
m
55.5
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or CABG
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Pilot study
Murphy et al.
(2013)
RCT
Multi-center
AMI, PTCI
or CABG
275 (238 males
and 37 females;
139 intervention
and 136
controls)
59
2
Parswani et al.
(2013)
RCT
Single-center
CHD
30 (only males;
15 intervention
and 15 controls)
48.5
3 months
[page 54]
Satisfaction with the
intervention. Large
improvements in diet
and moderate increases
in physical activity from
pre- to post-treatment.
No gender differences but
discussion styles varied between
the women and men, Women were
more open and more personal.
Family issues were more frequent
than job issues, although all
women were employed outside
their homes. Men talked about
concrete and practical things,
mostly about their jobs, and not
directly about their feelings.
Daily stresses of life decreased
significantly for both men and
women, but more so for women.
Depressive thoughts were low at
baseline, and there was no change
over time. In contrast, anxiety
scores were high at baseline and
decreased significantly, but more
so for women than for men.
“Beating Heart
Compared with the C group patients,
Problems” cognitive- intervention group patients tended
behavioral therapy
toward greater reduction in 2-year
and motivational
risk of cardiac event, at both the 4- and
interviewing program 12-month follow-up. Significant benefits
vs usual care.
in dietary fat intake and functional
capacity were also evident.
Mindfulness-Based Significant reduction in symptoms
Stress Reduction
of anxiety and depression,
(MBSR) program.
perceived stress, blood pressure
and body mass index in patients
of the MBSR group after the
completion of intervention
assessment. At 3-month follow-up,
therapeutic gains were maintained
in patients of the MBSR group.
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MODERATE EVIDENCE
In a long-term study with a median follow-up of 11 years in patients
following cardiac surgery, cognitive dysfunction present at 6 months
was associated with increased long-term mortality [114], further
demonstrating that the consequences of postoperative cognitive disfunction are likely to have long-term implications that are more significant than simply that of a ‘transient postoperative state’. Cognitive functions were reported to be mildly or not significantly impaired
after transcatheter aortic valve implantation (TAVI) [115]. Postoperative delirium is associated with increased anxiety and depression at
6 to 9 months, and future investigation should seek to evaluate the
utility of screening programs for affective disorders in those individuals who develop delirium in the postoperative period [116].
•
Low socio-economic status (SES) as well as immigrant status are
independent predictors of CHF [124,125]. Social instability and
poor social support, instability and precariousness of affective/interpersonal relationships, not being married, living alone, some social and environmental factors such as immigrant status, distance
from the hospital and precarious housing conditions negatively affect the outcome [124-127].
•
•
•
ly
on
Sleep disorders
Sleep disorders and apnea influence the outcome [136,137].
al
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e
In summary, in the opinion of the Panel, from the literature analysis
there emerges:
– strong evidence of an association between the following variables
and disease onset/outcome:
• Behavioral risk factors, in particular alcohol and cocaine use
• Depression
• Anxiety
– moderate evidence of an association between the following
variables and disease onset/outcome:
• social factors
• personality factors (type D)
– moderate evidence of an association between the following variables and outcome of the disease:
• positive psychological variables
• neuropsychological disorders
• sleep disorders
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Chronic heart failure
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The European guidelines [118] underline that CHF is a common
chronic disease with poor prognosis and significant quality of life limitations. Patients are required to follow a complex regimen of self-care behaviors including medication, self-monitoring of symptoms, diet and exercise. Mental comorbidities such as depressive and anxiety disorders
are common in patients with CHF. Depressive comorbidities are present
in about 20% of patients, anxiety comorbidities in up to 40% [119].
Behavioral risk factors
Obesity, sedentary lifestyle, smoking, and cocaine and alcohol use
are independent predictors of CHF [118,120-122]. Goel et al., however, show that light to moderate alcohol intake has been associated with lower risk of heart failure [25].
Depression
A systematic review and meta-analysis suggests that depression is
an important and independent predictor of all-cause mortality
among CHF patients, while anxiety does not appear to have a
strong effect [100].
•
Neuropsychological disorders
Mild cognitive impairment (MCI) is common in HF and impacts on
patients’ engagement in self-care, yet it is frequently not detected.[135].
•
A literature concerning specific psychological interventions can not
be found.
Suarez-Bagnasco [117] suggests that the study of psychological issues in these cardiac diseases is relevant and could provide information about specific needs requiring psychological interventions as well
as be useful for the design of specialized care training and practice.
A good practice intervention is recommended.
•
Positive psychological variables
Positive psychological well-being improves the outcome in terms of
quality of life and disease management [133,134].
PSYCHOLOGICAL INTERVENTIONS
•
Personality factors
Type D personality. Data in the literature are contradictory and
inconclusive [61,128-132].
In summary, in the opinion of the Panel, from the literature analysis
there emerges:
– moderate evidence of an association between the following variables and clinical condition
• Anxiety and depression
• Post-traumatic stress disorder
• Post-interventions neuropsychological disorders
STRONG EVIDENCE
Social factors
Anxiety
The above-mentioned systematic review and meta-analysis [100]
showed that anxiety does not appear to have as strong an effect as
depression in predicting all-cause mortality among CHF patients,
but anxiety is negatively associated with self-care behavior. However, this effect disappears behind the stronger influence of depression on self-care. It is important to consider mental comorbidities in patients with CHF [123].
PSYCHOLOGICAL INTERVENTIONS
The analysis of the literature [138-141] shows that it is fundamental
to treat patients with CHF from the perspective of a chronic and progressive disease, during which they are called upon to put into action
cognitive, emotional and behavioral resources that will allow them to
live with the disease, adhere to complex therapeutic regimens and
maintain a reasonable level of quality of life. The changes of role in the
personal, family, and social/work context involve problematic emotional
states; moreover, adherence to prescriptions is often conditioned by the
complex pharmacological therapy, by the need to monitor physiological
parameters and symptoms, and by food restrictions (salt consumption,
intake of liquids, abstention from alcohol).
From the literature and from clinical experience it emerges that interventions to optimize the CHF treatment, reduce hospitalizations and
mortality, and improve quality of life and management of the disease,
carried out during the stay in hospital or at home with telemedicine
methods or face-to-face interventions, are linked to two key aspects:
i) self-management and adherence [142-147]; ii) depression and anxiety [148-150].
Self-management should be promoted right from the outset, maintained throughout the course of the illness, and sustained in the
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logical aspects of telerehabilitation [175]. These patients could receive
parallel psychological support and tele-assistance from the telemonitoring team (nurse, physician, physiotherapist). In any case, telemedicine interventions can provide benefits to heart failure patients only as
part of a shared and integrated multidisciplinary and multi-professional ‘chronic care model’ [176].
In this context, one can envisage:
– interventions aimed at self-management based on brief psychological techniques (such as motivational interviews and CBT) performed by healthcare operators, especially nurses, trained by psychologists
– psychological/psychotherapeutic interventions carried out by psychologists/psychotherapists, of a prevelently cognitive-behavioral
type
– telemedicine interventions, performed by healthcare operators, especially nurses, which should be trained by psychologists
on
ly
In the Panel’s opinion, from this analysis of the literature there
emerges moderate evidence of efficacy
• for cognitive-behavioral interventions
• for psychoeducational and disease management interventions.
e
Heart transplantation
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The specific Guidelines [177,178] affirm that the psychologist
should routinely assess all patients being considered for heart transplantation (HT), before wait-listing for transplantation. Evaluation
should include an assessment of the patient’s ability to give informed
consent and comply with instructions, including drug therapy, as well
as assessment of the support systems in place at home or in the community. This assessment focuses on the following: i) social support and
the ability of the social support network to cope with the stressors of HT
care; ii) patient understanding of the requirements, risks and benefits
of HT; iii) adherence to the medical care plan; iv) psychopathology;
v) cognitive assessment. The literature on psychological comorbidity
[177,179,180] shows a high incidence of anxiety-depressive disorders
(30%) pre-transplantation, which tends to decrease in post-transplantation. Psychological/psychiatric contraindications are first reviewed by
the psychologist and, where necessary, a psychiatrist is consulted for
further assessment and/or a second opinion.
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phases of instability, in the transition from hospital to home and in the
terminal phases [139,145,151-153]. Interventions to improve self-management do not affect the emotional structure [153]. In a recent review
[154] on the effectiveness of psychological interventions on self-care,
and on psychological and health outcomes in patients with CHF, the authors showed that nurses play an important role in patient education
and secondary prevention. Compared to other professionals, nurses
have more patient contact opportunities and are more holistic in all aspects of disease management; therefore, more nurses can be trained to
incorporate the brief psychological techniques (such as motivational
interviews and CBT) to maximize the intervention’s effectiveness. The
main limitation of the review is the moderate-to-high level of heterogeneity among the included studies, which could partially undermine
the reliability and reproducibility of the results. Due to the heterogeneity of the studies, no definitive conclusions on the optimal format
and forms of intervention could be drawn. Replication of the studies is
required in the future to isolate the active component of the interventions and identify the ideal format and dosage of interventions.
An improvement of adherence is achieved through effective communication and by defining with the patient an interactive therapeutic
plan aimed at the respect, recognition, correction and management of
these aspects:
• Psychosocial: psychological problems, neuropsychological deficits
and poor socio-family support [155,156].
• Cognitive behavioral: cognitive distortions about awareness, selfmanagement of the disease at home and self-efficacy [156-158].
• Communications: [159, 146].
In published reports, details on specific counseling or psychotherapeutic interventions (cognitive therapy and stress management) for
patients with CHF are often lumped together as part of the group of
non-pharmacological approaches (including physical activity and dietary prescriptions) or are included in the global rehabilitation treatment or as part of the multidisciplinary hospital interventions
[160-167], so it is difficult to document their specific effectiveness.
Psychological interventions can be performed to address dysfunctional aspects (cognitive, emotional or behavioral) in the management
of the disease, or to provide counseling to optimize coping strategies,
or to provide psychological support during the stabilization phase
[168].
Many reports focus on depression and the provision of emotional
support or counseling in order to understand the patient’s needs,
manage their emotional response to the disease, improve quality of life
and optimize the physical outcomes of the therapeutic interventions.
In a recent systematic review and meta-analysis [169], a CBT intervention on depression, quality of life, hospitalizations and mortality
in CHF patients was associated with a greater improvement, compared
to usual care, in depression scores both at the end of the CBT program
and 3 months later. Greater improvement in quality of life scores was
evident for the CBT group initially after CBT sessions, but there was no
difference at 3 months. Hospital admissions and mortality were similar
in the two treatment groups. CBT may be more effective than usual
care at improving depression scores and quality of life for heart
failure patients initially following CBT and for depression at 3 months.
The authors suggest larger and more robust randomized controlled
trials (RCTs) to evaluate the long-term clinical effects.
There are also specific interventions based on specific theoretical
health models [170] or therapies associated with positive psychology
[171] and with the most recent CBT therapy [172-174].
Telerehabilitation may serve as a helpful strategy for continuing at a
distance the monitoring and management of a patient, allowing faceto-face interventions, including with the patient’s family. To date, only
a small number of studies have been dedicated to studying the psycho-
[page 56]
STRONG EVIDENCE
•
Behavioral risk factors
The presence of substance-related disorders, personality disorders or
a history of medication non adherence are powerful predictors of
failure to comply with the medical regimen and, therefore, are associated with increased morbidity and mortality in HT patients [180-182].
•
Depression
Major depression pre-transplant is a negative prognostic factor especially if associated with poor social support [183,184]. It adversely affects adherence to exercise and participation in daily life
activities [185].
Its incidence was 7.9% for severe or moderate depression [186]
and 33-69% for the less severe levels [187,188]. If the depressive
symptomatology is treated pharmacologically, symptoms can be reduced and the health status improved post-transplant [189]. A recent systematic review indicated that depression increases the risk
of post-transplant mortality [190]. The presence of depression
post-transplantation is frequent [191], equal to 41%. Grandi et al.
[192] reported that demoralization in combination with depres-
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goal-oriented, and have a high need for structure, i.e. all characteristics that may help people in treatment adherence [181].
sion predicted more acute rejection episodes in the 6-year period
post-transplant than either variable considered independently.
Major depression prior to heart transplantation is a risk factor for
post-transplant malignancies and PTSD symptoms are a predictor
of post-transplant poor adherence [191].
•
Type D is a predictor of morbidity and mortality [201,202].
•
Social factors
The presence of poor social support post-transplantation is correlated to a worse quality of life [193] as is low socio-economic status,
living in an urban reality [182] and having a caregiver with anxiousdepressive symptoms [194,195]. Conversely, high education level
and a medium-high economic status are predictive of greater survival [182,196,197]. Any patient for whom social supports are judged
to be insufficient to ensure care compliance in the outpatient setting
may be regarded as having a relative contraindication to HT [178].
•
Anxiety
•
They have an incidence in the pre-transplant phase that ranges
from 15 to 59% [187], while other studies show an incidence equal
to 86% in particular in the executive functions [208]. There are no
indications for excluding from the list for HT patients with mental
retardation and specific cognitive deficits [187,208,209]. A substantial proportion of long-term survivors of HT might be cognitively
impaired. The level of impairment appears comparable to what is
defined in the literature as mild cognitive impairment [210]. The
benefit of HT in patients with severe cognitive-behavioral disabilities or dementia (e.g. self-injurious behavior, inability to understand and cooperate with medical care) has not been established;
on the contrary, it has the potential for harm and, therefore, HT
cannot be recommended for this subgroup of patients [178].
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HT is a very stressful experience for heart transplant candidates,
and recipients and patients have to cope with significant medical
and emotional challenges related to the workup they must undergo
for listing, waiting for a donor heart to become available, undergoing surgery and post-operative recovery, and adjustment to life
with a transplanted organ [180].
At 5 and 10 years after HT, the most bothersome stressors regard
work, school, and financial issues. Patients at 10 years after transplant reported less stress, similar stress intensity, and less use and
perceived effectiveness of negative coping than patients at 5 years
after transplant. In the long-term after transplant, demographic
characteristics, psychologic problems, negative coping, and clinical
factors were related to stress frequency and/or intensity [200].
HT-related stress occurs in the long-term after surgery. Types of transplant-related stress and factors related to stress confirm the importance of ongoing psychologic and clinical support after HT [200].
Neuropsychological disorders
e
Stress
ly
The state of psychophysical wellbeing, optimism and the perception of exercising active control over the disease are prognostically
favorable indicators for the outcome [206,207].
In the recent systematic review cited above, anxiety was not associated with e risk of post-transplant mortality and morbidity [190].
However, anxiety appears to be present in the pre-transplant
waiting-list phase [179,180,198]. Anxiety negatively affects the
psychophysical health status [199].
•
Positive psychological variables
on
•
Disease management
Different studies have found that HT candidates use positive coping
strategies more frequently than maladaptative coping strategies
such as denial, avoidance or disengagement [197,203]. Consistent
with the results obtained by the group of Burker [197,203], maladaptive coping styles (including disengagement dimension and
some help-seeking traits such as venting of emotions or seeking
emotional support) were associated with the presence of psychiatric
symptoms in a group of patients [179], also after a follow-up of 12
months [180]. Adherence was poor post-transplantation [204,205].
Prognostically favorable factors for adherence were high education
level and having a female caregiver or being a female [205].
MODERATE EVIDENCE
•
Personality factors
Post-traumatic stress disorder
on
•
N
Its incidence in transplanted patients is 12%. In a study [191], the
estimated frequency of psychiatric diagnoses after HT was 12% for
transplantation-related PTSD and 41% for major depression. The
presence of an episode of major depression prior to HT is a significant independent risk factor for post-transplant malignancies.
Age, post-transplant malignancies and poor adherence are significant predictors of mortality in the survival analyses. Mortality was
significantly higher in patients with HT-related PTSD comorbidity,
possibly as a result of the lower compliance in these patients or the
fact that PTSD itself is predictive for poor health status.
•
In summary, in the opinion of the Panel, from the literature analysis
there emerges:
– strong evidence of an association between the following variables
and the conditions of pre- and post-transplant:
• Behavioral risk factors
• Depression
– moderate evidence of an association between the following variables and the conditions of pre- and post-transplant:
• Social factors
• Anxiety
• Stress
• Post-traumatic stress disorder
• Personality factors
• Disease management
• Positive psychological variables
• Neuropsychological disorders
Personality factors
Neuroticism [179,180] is correlated to anxiety and depression,
thus constituting a predictive factor of psychopathology 12 months
after HT. High levels of hostility are an independent predictor of
subsequent mortality. Part of post-transplant nonadherence seems
also to be determined by personality. Personality traits refer to a dimensional taxonomy created to understand normal personality
functioning, and do not necessarily reflect psychopathology. Patients with low conscientiousness may be criticized for their carelessness, negligence, and failure to stay within the lines, while patients with high conscientiousness are disciplined, organized,
PSYCHOLOGICAL INTERVENTIONS
Psychotherapeutic interventions
A recent systematic review recommends, as good practice, psychotherapeutic interventions of a cognitive-behavioral type, stress
management strategies and relaxation techniques as a means to reduce the state of psychological distress and promote improved quality
of life. In post-transplantation, also psycho-social support interventions
carried out telematically via the Internet have shown to be effective
[211]. The use of mindfulness training (mindfulness-based stress re-
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duction, MSBR) lasting 8 weeks was effective in reducing symptoms of
anxiety, depressive symptoms and sleep disorders post-transplant
[212]. Observational studies recommend the practice of individual psychotherapeutic interventions aimed not only at the patient but also at
the caregiver and the healthcare team [213].
•
•
•
•
•
Management interventions
PSYCHOLOGICAL INTERVENTIONS
In the opinion of the Panel, from the analysis of the literature there
emerges:
– mild evidence for the efficacy of cognitive-behavioral interventions
in reducing the state of psychological distress
– mild evidence for the efficacy of psychoeducational and management interventions
ly
In summary, in the opinion of the Panel, from the literature analysis
there emerges:
– Strong evidence for the efficacy of cognitive-behavioral interventions in reducing the state of psychological distress
– Moderate evidence for the efficacy of psychoeducational and management interventions
To date, there are no RCTs on large populations able to demonstrate
the efficacy of a specific psychological intervention on patients with
LVAD. There are indications that patients who undergo, post-LVAD implantation, a course of treatment including psycho-education, re-education in physical activity and self-care, as well as psychological support
to the patient and caregiver, show greater functional improvement in
depression [234-239], in maintenance of a correct diet and in maintenance of adequate physical activity [240].
on
The patient’s adherence to treatment, psychophysical wellbeing and
quality of life are better if the healthcare team has developed adequate
interpersonal relationship skills and uses strategies of motivational
counseling [214]. Management models that include educational interventions, periodic monitoring and telematic support extended to caregivers in the months following the transplant event are predictive of good
adherence to treatment [215,216]. It is also recommended to provide interventions for the prevention of relapse in smoker patients [217].
Depression
Anxiety
Acute and chronic stress
Psycho-physiological sleep disorders
Cognitive deficits
e
Mechanical ventricular assist devices
us
Implantable cardioverter-defibrillator (ICD)
al
The acceptance of the ICD appears to be influenced by a number of
variables such as psychological morbidity, advanced age, severity of the
disease, onset of anxious or depressive symptoms, type D personality,
worry about the ICD implantation, and understanding of the benefits
and disadvantages of the ICD, which would seem to impact on the perceived quality of life [241-244].
MODERATE EVIDENCE
•
Acute and chronic stress
Depression
•
•
Anxiety
Anxiety is frequent in patients with LVAD [222-226].
•
Psycho-physiological sleep disorders
After LVAD implantation there are problems in the area of sleep
that correlate with the presence of anxiety and depression
[219,227,228].
•
Neuropsychological disorders
In patients with LVAD implantation, cognitive dysfunctions may be
present, but they are mainly found in older patients and in those
with LVAD as destination therapy [229]. In general, the LVAD implant seems to arrest the cognitive decline [230] and, in the space
of 24 months, there is an improvement in cognitive functions with
respect to patients with advanced heart failure [231-233].
In summary, in the opinion of the Panel, from the literature analysis
there emerges moderate evidence for an association between implanted LVAD and the following variables:
[page 58]
Anxiety and fear
Catastrophic thoughts underlying the manifestation of anxiety provoke in the patient the avoidance of daily, physical and sexual activities [242,247] or the presence of anticipatory anxiety in relation to random stimuli such as, for example, increased heart rate
during moderate physical activity [248]. In particular, higher levels
of anxiety emerged in young patients [249] and in women especially as regards body image [250,251]. The results of the PainFree
SST Clinical Trial [252] showed that ICD shocks have a longlasting, adverse impact on both objective, device-measured physical activity and subjective patient-reported outcomes of quality of
life and shock anxiety. Shock anxiety increased in shocked patients
and remained significantly elevated at 24 months, regardless of
whether the shock delivery was appropriate or inappropriate. Successful management of ICD patients requires attention to clinically
relevant behavioral and psychological outcomes to speed their recovery and return to activities of daily living.
Depression is particularly present in the post-implantation period
[222-226].
•
Depression
The frequency and severity of depressive symptoms would appear
to increase in relation to the severity of the underlying CHF
[245,246].
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The immediate post-operative period is associated with an increase in negative emotions (fear of the outcome of the interventions and of hospitalization) [221].
•
MODERATE EVIDENCE
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Currently there are not many studies that have investigated the
psychological aspects, and the number of patients examined is very
modest. Two systematic reviews investigated the impact of left ventricular assist device (LVAD) implantation on psychological variables [218,219], and showed an improvement in the state of psychophysical health, depression and anxiety scores in patients after
LVAD implantation. Factors contributing to changes in depression
and anxiety after the LVAD implant could be related to the improvement in acute heart failure symptoms, functional capacity, and
quality of life [220].
•
Post-traumatic stress disorder
In a narrative review, Sears [253] found that patients under the
age of 50 years, female, with psychiatric pre-morbidity, poor social
support and less than 5 discharges (appropriate or inappropriate)
were at higher risk of PTSD. Furthermore, the presence of PTSD
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In the Panel’s opinion, from the literature analysis there emerges:
strong evidence for the efficacy of psychotherapeutic interventions, prevalently cognitive-behavioral, integrated with techniques
of mindfulness and relaxation
– moderate evidence for the efficacy of psycho-educational interventions, support group interventions and psychological support interventions
appears to be associated with a greater percentage of shock experiences and mortality at 5 years after implantation compared to patients who did not develop PTSD [253].
•
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Type D personality
Patients with type D personality are more likely to develop depression or anxiety disorder pre-implant because they are more exposed to psychological distress, morbidity and mortality [254,255].
Patients with a younger age, increased depression score at baseline, and Type D personality were especially prone to experience
PTSD and anxiety symptomatology at 12 months follow-up [244].
•
Pulmonary hypertension
Positive psychological variables
In the WEBCARE study [256], optimism was found to be associated
with less distress, and possibly it helps safeguard mental health in
ICD patients. Increasing optimism might be the way forward to reduce long-term distress and impaired health status.
•
Living with a serious illness such as pulmonary hypertension can be
a continuous challenge and requires cognitive, emotional and behavioral adaptation [268,269]. The uncertainty of the disease and the resulting disability can have a profound impact on quality of life [270], in
particular on relationships with others, on cognitive abilities, emotions
and on spirituality. The experience of the disease leads to a reformulation of the self, that the person is not always aware of. Anxiety, depression, panic attacks [268, 271-273] and sleep disorders [274] are the
most common disturbances. In these patients, often of a young age,
there is also an overlap with issues related to pregnancy.
Neuropsychological disorders
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The detection of elements of psychological involvement and daily
clinical practice both make it clear that there is a pressing need for psychological treatments for these patients. The literature indicates the
effectiveness of:
• Psycho-educational interventions:
Evidence from the literature shows that there is a substantial consensus among different researchers on the importance of intervening at a first level with education on the nature, modes and
goals of action of the device [242,259]
• Individual psychotherapy, in particular CBT:
This is identified as elective treatment and as having a greater degree of efficacy in the treatment of psychopathological symptoms
related to the ICD device [260-262]
• Psychotherapy based on mindfulness:
It can increase self-monitoring capacities, metacognitive skills and
body awareness [263]
• Techniques of muscle relaxation and yoga (if associated with CBT): [264]
• Support groups and psychological support interventions:
These are effective in reducing anxiety-depressive symptoms
[265], in reinforcing coping strategies and in appropriately recognizing physical signals [266].
• Web-based behavioral intervention:
In a clinical trial of a Web-based behavioral intervention for ICD
patients, the Web-based treatment was not superior to usual care
on the long-term regarding patient reported outcomes. Future
studies are warranted to examine the applicability of blended-care
models and focus on further personalizing the program in order to
increase adherence and improve outcomes. [267].
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The analysis of the scant literature available to date permits only to
presume moderate evidence for the association between the following
variables and clinical condition:
• Depression
• Anxiety/panic
• Psychophysiological sleep disorders
PSYCHOLOGICAL INTERVENTIONS
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In summary, in the opinion of the Panel, from the literature analysis
there emerges moderate evidence of an association between ICD
wearers and the following variables:
• Depression
• Anxiety
• Post-traumatic stress disorder
• Type D personality
• Cognitive deficits
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These deficits are more present in ICD patients who have experienced appropriate shocks. Difficulties emerged in the ability to
concentrate, visual attention capacity and short-term memory independently of age and cultural level. Patients with pre-implant
cognitive deficits have a lower probability of survival [257,258].
These include the treatment of anxiety, depression, and panic attacks, where needed. Verma et al. [273] suggest a combination of pharmacotherapy and psychotherapy, in particular CBT. There exist few
studies on psychological interventions in pulmonary hypertension
[275-277]. In particular, attention is focused on the teaching of relaxation and slow breathing techniques [275,277].
ECS/ERS guidelines [278] affirm that psychosocial support should
be offered to patients with PAH (level I-C recommendation).
The Panel retains that at present there is no clear evidence of the efficacy of specific psychological interventions.
Grown-up congenital heart (GUCH)
There is no specific literature on CPR in GUCH patients. Recent reports [279,280] indicate the need for psychosocial support and for the
inclusion of adult congenital cardiac patients in traditional cardiologic
rehabilitation programs, and most studies indicate that there is no relation between diagnosis, physical function or presence of residual
symptoms and worse psychological functioning [281-283].
MODERATE EVIDENCE
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Social factors
Loneliness and absence of social support [281,284], and perceived
economic difficulty [284] are associated to a larger extent with
symptoms of anxiety and depression than the health condition itself.
•
Depression and anxiety
Most studies indicate the absence of a relationship between diagnosis, physical function or presence of residual symptoms and anxiety/depression [281,284-287]; nevertheless GUCH patients wearing
an ICD show higher levels of anxiety [288] and in some studies
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Disease management and positive psychological variables
There are no significant differences in terms of psychological functioning between normal healthy subjects and patients with GUCH on the contrary, in some cases with GUCH there is a better functioning [282,285,293]. Possible explanations could be related to a
greater sense of coherence in GUCH patients [294] or to the fact
that negation and high achievement motivation could influence
patients in self-report questionnaires to present an image of themselves that is socially more desirable [293].
•
Gender
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Women show greater emotional and behavioral problems than men
in regard to the presence of a surgical scar and in relation to problems associated with pregnancy [295].
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The conceptualization and the severity of the disease are difficult
to understand on account of the multifactorial nature of the disease [290]. Patients generally present a good awareness of treatment and of the need for follow-up. There are, however, difficulties
of understanding related to: the anatomy of the heart defect, factors contributing to the onset of endocarditis, the impact of
smoking and alcohol, the inheritance of a heart condition [291].
Furthermore, the perceived state of health [281,292] and the imposition of limits more than the disease condition itself are related
to depressive symptoms, to the psychological well-being pre-intervention and to emotional and behavioral problems.
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Knowledge, representation, and awareness of the disease
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nitive deficits or significant functional limitations. In the real world, on
the other hand, more than 50% of people over 75 years are affected by
a combination of three or more chronic diseases in heterogeneous patterns, the cumulative effect of which is different for each one. It is
therefore essential that the approach to the elderly patient maintain always a high degree of flexibility with respect to the Guideline recommendations available [299].
In particular, in inpatients aged over 75 years undergoing cardiac rehabilitation, the rate of prevalence of frailty varies from 10 to 60% depending on the weight of the cardiovascular disease [300], and a recent update of the AHA/ACC has stressed that frailty is a crucial factor
both in prognosis and in planning of the rehabilitative intervention, in
that, if present, it calls for a utterly specific approach with patient-centered and carefully calibrated interventions, so as to maximize the benefits and minimize the risk of adverse events [301].
Hence, the core element indispensable for a correct approach to the
cardiac patient over 75 years is the distinction between an elderly cardiac patient and a ‘frail’ elderly cardiac patient. There are several interpretative models of frailty but the most convincing for clinical practice is that developed by Fried [302] from which stems a working definition of frailty as an organic syndrome that reflects a condition of reduced physiological reserve and of high vulnerability to stressors
[303]. The stressors can be determined by the disease condition, acute
or chronic, or they can be iatrogenic, i.e. secondary to the different interventions, not only surgical and/or pharmacological but also interventions on lifestyle and on the environment [304]. A recent metaanalysis highlights how frail cardiac patients, when exposed to such
stressors, are at risk of marked and often disproportionate adverse
events, complications, functional decline, disability and death [305].
Frailty, closely related to comorbidity and disability, is characterized in
its physical component by three or more of the following elements: muscle
weakness, weight loss, slowed gait, fatigue and low levels of physical activity [302], but it can also be conditioned by problems of the psychic
sphere (e.g., cognitive deficits or depressive symptoms) which can be associated to specific alterations of many physiological and biological variables, such as markers of inflammation, coagulation and metabolism.
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using psychiatric interviews previously undetected disorders of
anxiety and depression emerged [285,287]. Furthermore, in heart
disease patients with a high level of anxiety - but only in these patients - a greater vulnerability has been found for an exaggerated
perception of cardiac symptoms [289].
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In summary, in the opinion of the Panel, from the literature analysis
there emerges moderate evidence for an association between the following variables and GUCH:
• Social factors
• Depression
• Anxiety
• Knowledge, representation, awareness of the disease
PSYCHOLOGICAL INTERVENTIONS
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Older/oldest patients (≥75 years)
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Cognitive deficits
Cognitive impairment, even without reaching the diagnostic criteria of dementia, is high among patients with heart disease aged
over 75 years, and the results from a prospective study based on the
AHA Life’s Simple 7 and incident cognitive impairment [308] show
an association with cardiovascular disease and more generally
with an incorrect lifestyle. However, the cause-effect relationship
between cardiovascular disease and cognitive impairment is very
complex in the over-75 age-group, especially if the patient is frail,
and therefore a highly cautious approach, as personalized as possible, is necessary for the assessment and intervention.
The Panel believes that at present there is no clear evidence of the
efficacy of specific psychological interventions.
The extreme variability of the aging process makes the applicability
of EBM in patients over 75 years of age complex. Moreover, in the clinical trials conducted so far, the number of patients in this age-group is
always very modest and, moreover, their clinical features are poorly
representative of the elderly people in the real world. In fact, they are
patients with a single pathology and who do not show significant cog-
Depression
Depression is a consolidated independent risk factor for cardiovascular disease in the elderly population. A systematic review [306]
and data obtained from the Health and Retirement Study [307]
support a bidirectional association between depression and frailty
which appears to be greater, though not significantly, in women.
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Concerning psychological interventions in GUCH patients there are
few specialized programs [296] and no published data on psychological
interventions [297,298]. In a recent article analyzing the psychological
needs of patients referred to a psychology service [296], the main psychological concerns were: generalized anxiety, heart condition-related
anxiety, low mood tone, and difficulty in managing a medical condition.
On average, patients received 8 sessions of psychotherapy which consisted of cognitive therapy, relaxation techniques and training in communication skills: 88% of the patients reported a reduction or absence
of psychological distress at the end of the sessions.
STRONG EVIDENCE
MODERATE EVIDENCE
•
Anxiety
A prospective cohort study conducted on 148 elderly patients [309]
underlined the negative prognostic role of a high preoperative level
of anxiety on postoperative mortality and morbidity. Older patients
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generally tend to report less symptoms of anxiety; however, when
these symptoms are present, age does not appear to act as mediator between level of anxiety and increased risk of death due to a
cardiac event [304].
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Stress
A recent cohort study with control group [310] highlighted an association between death of the partner and a cardiovascular event
in the immediate weeks and months following.
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Social factors
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In the frail elderly patient, the data available on the protective action of psycho-social resources are still controversial: the results of
the Longitudinal Aging Study Amsterdam [LASA], a population
study conducted on 1665 subjects aged 55 to 85 years, highlighted
an absence of significant interaction between frailty and psychosocial resources, understood as self-efficacy, emotional and instrumental support, with respect to functional decline and mortality at
3 years [311]. These findings suggest that only in the initial stages
of frailty do psycho-social resources exert a protective effect, which
is then lost when the functional decline is very advanced.
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Personality factors
The results of a systematic review [312] are interesting regarding
the association between hostility and cardiovascular risk: in patients aged over 75 years, hostility is not frequent but when it is
present it appears significantly associated with greater body
weight, greater anxiety and depression, a higher tendency to somatization and a lower quality of life. This pattern appears to be particularly sensitive to rehabilitation.
•
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MILD EVIDENCE
•
dence support the global efficacy of cardiac rehabilitation regarding
both the various psycho-social risk factors and the cognitive sphere.
The essential requirement of each intervention is a systematic approach to the patient, so as to incorporate the full complexity related to
advanced age in every decision made, even if there are no signs of
frailty [301]. Identifying which interventions should not be started or
should be interrupted can be extremely complicated in this patient population, even for the psychologist. Factors to be considered include
quantification of the benefit in terms of reduction of baseline risk compared to the outcome considered, risk of adverse events, and assessment of the expected benefits with respect to life expectancy [299].
Several studies with moderate evidence report comprehensive cardiac
rehabilitation to be effective in reducing depression and of anxiety
[312]. In order to understand the depression/frailty relationship, it is
necessary to weigh carefully the depressive symptoms in terms of their
biological or clinical (cognitive-behavioral) structure: major depression,
strongly biological, is an independent risk factor; a depressive syndrome,
on the contrary, could be the manifestation of difficulty in adapting to the
loss of functional autonomy and/or the age-related decline [306]. In the
latter case, frailty may have caused the depressive syndrome and then
become further aggravated by it. The evidence in support in this regard
has important implications for the selection of the screening tools, formulation of a correct diagnosis and then planning of the intervention.
The Update of the 2013 ACCF/AHA Guidelines [301] underlines the
limited emphasis given so far in the various guidelines to the need to
extend educational interventions, which are defined as extremely relevant, also to patients aged over 75 years, actively involving also their
caregivers. Finally, it should be underlined that the data from a recent
RCT support the effectiveness of cardiac rehabilitation, especially the
physical exercise component, in improving the cognitive profile of patients over 75 years old, even in the presence of initial decline [314].
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The AHA statement on secondary prevention in elderly cardiac patients [304] emphasized the association between health literacy
and clinical condition. In patients over 75 years old, especially if
frail, a careful assessment of the costs and benefits of each single
intervention is necessary: communication with the patient and
caregiver must be as effective as possible and the information must
be given in a manner appropriate to their level of health literacy.
The communication style with patients aged over 75 years must
also take into account that aging is usually associated with sensory
impairment (sight, hearing) and cognitive deficits and also the
caregiver of an elderly patient, if the spouse, may be affected by
sensory impairment [313].
In summary, in the opinion of the Panel, from the literature analysis
there emerges an association between the following variables and cardiac disease in patients aged over 75 years:
– strong evidence:
• Depression
• Cognitive deficits
– moderate evidence:
• Anxiety
• Stress
• Social factors
– mild evidence:
• Personality factors
• Health literacy
PSYCHOLOGICAL INTERVENTIONS
The limited literature available on patients of this age-group makes
it very hard to define the specific psychological interventions carried
out as part of the rehabilitation program, since the scant available evi-
In the panel’s opinion, from the literature analysis, as yet still limited, there emerges:
– moderate evidence for the efficacy of interventions of support for
depression;
– moderate evidence for the efficacy of psycho-educational and management interventions.
Cardiac patients in palliative care
Recently the concept of “managed death” has replaced that of “good
death” and this important change of paradigm requires all health professionals to have a precise orientation and adequate knowledge [315]:
• End of life refers to patients who may die within 12 months, which
ranges from an imminent death perspective (a matter of hours, or
days) to a prolonged terminal condition, which in cardiovascular
terms essentially concerns advanced CHF.
• End of life care includes care provided to family members after the
patient dies.
• In prolonged terminal conditions, there is not always a clear distinction between being sick and dying.
• The transition to end of life care must take place when treatments
are no longer effective, the burden of symptoms is extremey heavy
and it is necessary to evaluate eventual “disease-exchanging therapies”, i.e. a remodulation of treatments in order to allow greater
therapeutic investment in the more functional aspects in line with
the patient’s preferences.
In the cardiovascular field, the natural history of CHF is characterized by a gradual decline in functional capacity, interrupted by
acute episodes of instability which further worsen the trend. In ad-
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In the panel’s opinion, from the literature analysis, there emerges:
strong evidence for an association between the following variables
and palliative care in cardiac disease:
• Depression
• Distress
– moderate evidence for the association with:
• Anxiety
• Social factors
– mild evidence for the association with:
• Personality factors
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sociated with the patient’s level of dependence during the different
stages of the disease, the caregiver’s numerous duties, the frequency
of hospital admissions, the need to use devices and/or new equipment
[320]. The subjective burden refers to the management of all the negative emotions that the activity of caregiving elicits and is produced by
the interaction between the characteristics of the patient’s illness and
inherent characteristics ofn the caregiver. In the acute phase of hospitalization, the cardiac event is experienced by the family in a traumatic way, in that the family members, including for the most part the
spouse, experience a breakdown of their normal way of life and the
loss of physical integrity of their loved one. The dominant feelings are
fear, anxiety, uncertainty, impotence and loss of control. In the phase
of chronicization of the disease and then in the terminal phase, family
members tend to neglect their own state of health in devoting themselves to that of the patient and coping with all the other daily needs.
In all phases of the diseases, the following scenarios represent serious challenges:
• the patient’s neuro-cognitive symptoms create an added burden for
the spouse (321)
• the disease can disturb the couple’s sexuality [322]
• if the caregiving spouse is of a young age, the burden can be worse
due to the greater number of duties and responsibilities towards
other family members, e.g. children and/or parents, and towards
work activity, compared to elderly and retired caregivers [321]
• anxiety, depression and the feeling of loss of control of the family
member hinder the patient’s psychosocial adaptation to the disease [321]
• the personality traits of low optimism and high neuroticism in the
spousal caregiver are associated with major depressive symptoms
in the patient
• a low level of mutuality in the couple [321] is associated with a
high burden of the family member, negatively affecting the caregiving, and with a worse health status of the patient
• lack of social support and the presence of economic problems increase the caregiver’s burden [323-325]
Protective factors in all phases of the disease are:
• perception of control and good communication with the healthcare
team [326];
• optimism and marital satisfaction and a supportive coping style of
the partner [327];
• the possibility of having good social support, possibly sharing the
care of the patient with another family member [324, 328];
• the possibility for the couple to receive informative and educational interventions regarding the area of sexuality, to increase
their knowledge, well-being and help them maintain an intimate
relationship [329].
Below are presented the issues related to the burden in the different
phases of illness.
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vanced CHF, or phase D according to AHA, the high rate of mortality
is hard to modify, the symptoms are disabling and the quality of life
heavily compromised; nevertheless, the prognostic stratification still
remains very difficult. Therefore, selecting patients with advanced
CHF and a high risk of mortality at 1 year, to shift, at the right time,
the goal of treatment from maintenance of life at all costs to alleviation of symptoms and possible improvement in the quality of life requires an integrated approach that takes into account not only the
risk scores but also the clinical opinion of all members in the team.
These patients, characterized by complicated symptoms refractory to
treatment, by a high level of psychological distress, and by a stringent need
to reach shared decisions with their caregivers and family, can benefit
greatly from a palliative care approach. [316,317]. In the advanced phase
of illness, the patient experiences a marked reduction in their quality of
life: from a physical point of view, the symptoms most frequently perceived
are fatigue, dyspnea and edema in the limbs. From a psychological point of
view, uncertainty and fear and a general sense of imminent death prevail.
The sense of threat together with the loss of their family and social role,
the physical limitation and the restriction of will and freedom determine
profound existential changes. From the awareness of imminent death to
the actual death itself, patients go through a series of phases, whose temporal succession varies from individual to individual, during which they
pass from the acute crisis of realization to possible acceptance until the
final phase of withdrawal into themselves [318].
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The statement published in 2012 by the AHA was a real ‘call to action’
on the need to promote a shared decision-making process with the patient
suffering from advanced heart failure [318]. The document illustrates a
sort of road map to guide all team members in the activation of a shared
decision-making process, precisely during the transition phase, i.e. when
the context is increasingly characterized by uncertain prognosis, different
outcomes often “competing” with each other, and communication barriers. It is necessary to maintain attention on the clinical evolution of the
disease, to adjust expectations and to promptly guide decisions; all the
same, uncertainty is unavoidable and needs to be included in discussions
with patients and family members. Discussions with patients must take
into account all the outcomes, not only that of survival but also those of
major adverse events, the burden of symptoms, functional limitations,
loss of independence, quality of life and constraints on caregivers.
In the panel’s opinion, from the literature analysis, as yet still limited, there emerges strong evidence for:
• Interventions of shared decision making with the patient and
family members
• A palliative care approach
Patient caregiver
In dealing with the topic of caregiving, it is necessary to distinguish
between objective and subjective burden. The objective burden is as-
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1) Acute phase of the disease (family caregivers of an
ischemic and/or CABG patient)
Caregiver burden may be due to the demand on time (objective time
spent) and difficulty with caregiving activities (subjective perceived
stress) [330]
• CABG caregivers have reported feeling unprepared for their role
and thus are at risk of caregiver burden. Compared to females,
male CABG caregivers had totally different challenges and perceived the organizing of care as more demanding than females. All
male caregivers have higher demand (time spent), difficulty (level
of stress) and overall burden compared to female caregivers [330]
• Older CABG caregivers (>70 years) are also at risk of greater
burden [330]
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The literature regarding interventions for caregivers of patients with
heart failure has focused on management, communication and relational aspects to improve the patient’s health conditions, as well as on
the disease management, but also on the burden of the caregiver. There
are different modes of intervention according to the different goals:
• interventions involving patients, family and physicians aimed at
improving the patient’s disease management in terms of self-care,
symptoms monitoring and taking of medications [339].
• interventions focused on the family and on reducing the caregiver’s burden aimed at improving the physical and mental health
of the patient and relational aspects [340].
• interventions of ‘telehealth care’ and ‘telephone coaching’ aimed
at improving management of the transition phase to home [341]
and at increasing the perceived caregiver mastery [342].
•
symptoms of PTSD (alarm, hypervigilance, confusion, derealization) in the family caregiver have negative effects on the patient’s
disease management [331]
Psychological interventions aimed at ischemic patients and their
partners improve, in the spouse, the anxiety, knowledge, and satisfaction about care [332]. Family members, particularly wives, young caregivers and with a high educational level, request to participate actively,
together with the patient, in the interventions of secondary prevention
and in the decision-making processes regarding drug treatment and
the change of lifestyle. It is therefore necessary to have interventions
of support centered on the person but aimed at the couple in order to
reduce anxiety and improve communication and coping skills [326].
These interventions must also be focused on topics such as communication, care, vigilance but also respect for autonomy (family members
frequently assume a ‘controlling’ attitude towards the patient and an
attitude of ‘neglect’ regarding their own needs), changes in family
roles and perspectives/expectations regarding the future [331,333].
In order to change lifestyle, the usefulness of motivational interviews with the couple is pointed out - they are effective in identifying
processes that perpetuate dysfunctional behaviors, in exploring possible alternatives, and in determining the motivation for change,
helping the couple to reflect on the modes of communication (‘supportive’ vs ‘controlling’) and promoting the use of ‘supportive’ communication strategies, with positive effects on the change of risk behaviors for health [334].
3) Family caregivers of patients undergoing heart transplantation
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2) Chronic phase of illness (family caregivers of a patient
with CHF)
Considering caregiving factors together with patient factors significantly increases our understanding of patient clinical events risk in
CHF [335]. The influence of an effective caregiver on CHF patient outcomes has been shown in improved quality of life, lower hospitalization
rates [335] and reduced mortality. Psychological distress of the spouse
increases the symptoms of heart failure, regardless of the stress perceived by the patient and/or NYHA class [336]. However, providing regular care to a CHF patient can lead to deficits in the caregiver’s own
health and quality of life. Studies have shown that HF caregivers experience a similar level of burden as caregivers of patients with advanced
cancer and chronic obstructive pulmonary disease [Humphrey 2013].
The assistance and care of patients with heart failure is perceived as
demanding and characterized by a strong emotional distress with feelings of insecurity and uncertainty, by less personal freedom, experience of solitude, social isolation and often by economic problems
[325,337]. The literature indicates that the burden is worse in the
presence of certain individual factors and external factors [324].
The main individual dimensions that make caregivers particularly
vulnerable are:
• female gender [324]. Female partners of patients with heart
failure have a lower quality of life compared to male caregivers and
a lower level of well-being in general compared to female partners
of healthy people;
• a low perception of control [324,337,323];
• a low quality of life regarding the physical component [338]: caregiving worsens the physical health status of family members with
pre-existing health problems.
The main external factors that increase the burden are:
• poor physical and mental health of the patient [324,337,338],
frequent emergency hospitalizations [323,324,338], and difficulty
in managing symptoms and therapies [338]. The most difficult
tasks related to caregiving (monitoring of symptoms, managing
medication and behavioral and food indications) contribute significantly to worsening the caregiver’s physical health.
Relatives take on great responsibilities during patients’ heart or lung
transplant process and an understanding of their situation is required.
Any patient for whom social supports are considered insufficient to
achieve compliant care in the outpatient setting may be regarded as
having a relative contraindication to transplant [178]. Research has
shown that relatives of patients wait-listed for HT worry about a rapid
disease progression and death while the patient is waiting for new organs. Most relatives suffer from uncertainty, fear and stress. These emotions persist after the transplantation, during the recovery period, and
in some cases for years because of the risk of acute or, in the longer
term, chronic organ rejection and death [178]. Poor physical health in
the caregiver at 12 months after transplantation results in a lower patient survival during the next seven years [343]. After HT, considering
the consequences on the psychophysical health and socio-economic
level of caregivers, some authors have identified the need for psychological support to the family [344] and for psychotherapeutic interventions addressed to the family [345]; others, focusing on potential conflicts in the marital relationship, suggest the utility of psychosocial interventions of counseling addressed to the couple [346,347].
4) Family caregivers of patients undergoing implantation
of a device
During the implantation phase, the family lives in a condition of distress characterized by a physical and emotional burden linked to the
sense of responsibility, fear, anxiety, and loss of freedom and independence [348,349]. There is a higher level of anxiety in the family members
than in the patients themselves and about 23% of caregivers manifest
PTSD, which is not found in patients [350]. If the LVAD implant was
done in an emergency and, therefore, caregivers and patients could not
receive adequate information, the anxiety and fear remain, especially
for caregivers, even in the period after the implant itself [349].
5) Family caregivers of patients in the terminal phase
There are few systematic studies on the families of cardiac patients
in the terminal phase of illness [351]. The experience of burden appears to be relatively stable over time, without much differentiation between the phase of chronic disease and the terminal phase, but in the
terminal phase the family caregiver of a cardiac patient appears to be
characterized by specific needs for information and communication regarding palliative care and decisions on the end of life. Some studies
point out that caregivers complain about a lack of information from
care personnel regarding the treatment of symptoms, and of prognostic
information about the future development of the disease, including end
of life issues (e.g., disactivation of ICD), and hence a lack of planning
of the timing and services that can support the patient and caregiver in
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Best practice is defined as those interventions, programs, or strategies that have, through multiple implementation, demonstrated a high
impact (positive changes related to the desired goals, high adaptability,
i.e. successful adaptation and transferability to different settings) and
high quality of evidence (excellent quality of research/evaluation
methodology, confirming the intervention’s high impact and adaptability evidence). Best practice is one that is most suitable given the
available evidence and particular situation or context. In health promotion, such practices are used to demonstrate what works for enhancing health-related outcomes of individuals and communities, and
how and why they work in different situations and contexts [from
Canadian Best Practice Portal; accessed on 11 December 2017].
The process of evaluating the goodness of a practice is particularly
critical. The approaches and methodologies can be many and various,
but there will nevertheless always be a component of subjectivity.
The Panel referred to the following factors of relevance:
• performance = ability of a practice to achieve the objectives
(based on data from the literature);
• efficiency and sustainability = ability of a practice to base itself
on existing resources and to make efficient use of these resources;
• transferability/reproducibility = exportability of the practice to
different contexts;
• learning and relationships = ability of the practice to create relationships and contexts of interdisciplinary learning and collaboration.
By best practice we thus mean a series of general indications of support for each decision-making node in the assessment and intervention, transversal to the different pathologies, based on analysis of the
evidence as well as on considerations of a legal and deontological nature (Figure 1).
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The caregivers of patients aged ≥75 years are mostly older women,
wives, often also affected by multiple physical age-related disorders and
they are distinguished from other groups of caregivers by their older
age and consequently greater need for help in daily living activities
[358,359]. The burden in these caregivers means they have need for
help in daily tasks, need for emotional support and a general need for
greater communication with both the patient and the doctors [358).
The experience of burden seems to depend mostly on characteristics of
the caregiver, highlighting their ability to adapt to their own role, their
ability to cope and the quality of the previous relationship with the patient [360]. Because family members of patients >75 years are often
elderly, the main problems are:
• insufficient knowledge/awareness of the patient’s illness due to
lack of communication with the doctors [358];
• low socio-economic status, poor social support and social isolation [361].
It is essential to focalize interventions on the caregiver in order to
provide them with more information and increase their communication with healthcare staff and with the patient [362], promote the pres-
Best practice in psychological activities in CPR
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6) Family caregivers of patients over 75 years
ence of an emotional and social support network, increase their capacity of adaptation to the caregiver role through specific interventions
that increase the caregiver ‘s own coping strategies and make them
more effective [356]. Indeed, some studies have shown that the experience of caregiving can be experienced not only as a source of stress
but also as a positive experience [359], especially when the communication between patient and caregiver is improved, with positive effects
on both the management of the disease and on the quality of life of
both partners [363], placing at the center of interest the concept of the
patient-caregiver dyad [364].
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the terminal phase of illness [352]. From the literature there emerges
a sense of frustration regarding the use, in this phase and by the doctors, of technical jargon difficult to understand [353]. From the
analysis of the literature, some considerations emerge:
• young age, female sex and persistent family conflicts are factors associated with greater emotional stress experienced by caregivers [354];
• a fatalistic/anxious coping style [355] of the family caregiver
worsens the burden;
• poor social support [354,356], poor help in managing daily activities [357], and family economic problems [355] worsen the patient’s disease management;
• an inadequate knowledge/awareness of the terminal status on the
part of the family caregiver interferes with the patient’s disease
management [353];
• the progression of the disease severity increases the limitations in
the social relationships of patient and family and aggravates the
communication difficulties between the partners [353].
Family members of terminal cardiac patients display similar needs to
family members of patients with other terminal diseases; therefore, it
is necessary to extend to this group of patients and families the use of
specialized palliative care services with a multidisciplinary approach,
which must include interventions of psychosocial support and on endof-life management of the patient aimed at family members [352,357].
Best practice
It is necessary to:
•
•
•
•
•
•
•
•
•
•
•
•
assess the possible presence of psychopathological aspects in the medical history and consider referring the patient to local community services
investigate the possible presence of previous cognitive deficits
evaluate the possible presence of depression and anxiety, either reactive or related to the clinical condition
evaluate the presence/absence of social support
evaluate the knowledge, awareness, acceptance and management of the disease
take into account sex, age and ethnic minorities
evaluate positive, personal and environmental resources and construct interventions aimed at reinforcing them
evaluate the level of health literacy of the patient and caregiver in order to personalize the informative, educational and communication intervention
design psychological interventions of low/high intensity based on the problems detected and the working and organizational resources present
provide counseling to caregivers where problems are detected and/or their need emerges from the patients themselves, the family and/or the multidisciplinary team
provide counseling on sexuality, where problems arise
structure all of the psychological activity within the multidisciplinary intervention and in synergy with the team
Figure 1. General indications of support for each decision-making node in the assessment and intervention, transversal to the different pathologies.
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+++
♥
Psycho-educational
sessions regarding
psychosocial risk
factors, smoking,
diet, etc.
+++
Multidisciplinary
sessions regarding
information
and management
(self-care,
self-management,
self-help, telemedicine)
+++
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♥
♥
♥
++
Only with
costs and
benefits
evaluation
++
Only with
costs and
benefits
evaluation
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+
♥
+
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+++
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HIGH
++
+++
Cardiac patients
in palliative care
L-VAD
+++
Older/oldest patients
Heart transplantation
♥
LOW
Pulmonary hypertension
Chronic heart failure
+++
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Cardiac surgery
Individual and/or group
counseling (from single
interview to motivational
interview)
Interventions
ICD
Coronary heart disease
Pathologies
GUCH
tures the choice of the service by the user or person referring. The
definition of some strategies by the psychologist allows to then guide
the requests of the user or person who has referred the patient, especially in terms of appropriateness of access to the process of care
(Figure 4).
The figure 5 contains a checklist for the selection of patients to be
referred to the psychologist.
The figure 6 lists the recommended psychological and neuropsychological tests.
Following the literature analysis, we were able to define recommendations, according to the grade of evidence: strong (+++), moderate
(++), mild (+), of low and high intensity evidence based psychological/psychotherapeutic interventions (Figure 2).
The figure 3 contains operational cards summarizing the assessment
and intervention recommendations, disease by disease, according to the
grade of evidence: strong (+++), moderate (++), mild (+).
A flow chart is provided showing the path from selection to patient
discharge. The selection phase initiates the care process and fea-
Psychotherapy
interventions: individual,
group (stress
management) or family
(at least 1/week) *
+++
Multidisciplinary
interventions: evidence
of the need to
implement a structured
psychotherapeutic
intervention
(cognitive-behavioral
therapy, motivational,
mindfulness, etc.)
+++
+
++
++
++
+
+++
++
♥
♥
♥
♥
♥
♥Good practice, as suggested by the Panel ; +++, strong evidence; ++, moderate evidence; +, mild evidence; *Italian LEA (essential levels of assistance)
(at least 1 / week) which may include short (within 8 sessions), medium (within 16), long (from 16 to 30).
Figure 2. Low and high intensity evidence based psychological/psychotherapeutic interventions in the different cardiac pathologies.
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Figure 3. Operational cards.
To be continued on next page
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Figure 3. Continued from previous page.
To be continued on next page
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Figure 3. Continued from previous page.
To be continued on next page
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Figure 3. Continued from previous page.
To be continued on next page
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Figure 3. Continued from previous page.
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Figure 4. Flow chart showing the path from selection to patient discharge.
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SELECTION CHECKLIST For each area, assess the presence/absence of the listed problems: it is sufficient to find only one
element to make the psychological intervention necessary.
YES
1) PSYCHOLOGICAL COMORBIDITIES
NO
Depression (during the last month the patient felt down and hopeless? he lost interest and pleasure in life?) Anxiety
(during the last month the patient has had sudden fears or panic? is frequently unable to stop or control worrying?)
Post-traumatic stress disorder (during the last month the patient has been exposed to a traumatic event? he suffers from
nightmares or intrusive thoughts?)
Type D personality factors, Hostility (in general the patient feel anxious, irritable, or depressed? he tends to avoid sharing
his thoughts and feelings with other people?)
YES
2) SPECIFIC PSYCHOLOGICAL ISSUES
NO
Neuropsychological disorders (the patient is cognitively impaired?)
Acute or chronic mental stress (the patient refers defeat or other serious life events?)
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Chronic stress at work (the patient refers long working hours, extensive overtime work, high psychological demands,
unfairness and job strain?)
YES
NO
e
3) DISEASE MANAGEMENT / SOCIAL ISSUES/ CAREGIVER NEEDS
on
Problems regarding the area of sexuality
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Inadequate awareness and acceptance of the disease, inadequate treatment adherence (the patient has impaired illness
awareness and treatment related prejiudices?)
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Social isolation and low socio-economic status (the patient is living alone, in a poor residential area? is isolated and
disconnected from others? He has a low educational level, a low income?)
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Caregiver needs / burden (the caregiver needs information, emotional support? The care of patients is perceived as
demanding and characterized by a strong emotional distress and by economic problems?)
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Figure 5. Checklist for the selection of patients to be referred to the psychologist.
on
Psychological and neuropsychological screening tests. References and description of the tools are available in www.gicr.it in the
psychological area-tools section
• Anxiety and Depression-Revised [AD-R]
N
• Hospital Anxiety and Depression Scale [HADS]
• Beck Depression Inventory-2 [BDI-2]
• Patient Health Questionnaire 9 [PHQ-9]
• Generalized Anxiety Disorder 7 [GAD-7]
• Mini Mental State Examination [MMSE]
• Montreal Cognitive Assessment [MoCA]
• Addenbrooke’s Cognitive Examination Revised [ACE-R]
• Clinical Outcomes in Routine Evaluation Outcome Measure (CORE-OM)
• Distress Scale [DS14, Type D personality]
• MaugerI CaRdiac preventiOn-Questionnaire [MICRO-Q]
• Adherence Schedule in Heart Disease–Brief [ASHiD-R]
• Family Strain Questionnaire [FSQ]
• Disease Impact On Caregiver [DIOC]
Figure 6. Psychological and neuropsychological tests.
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7.
This paper aims to support all psychologists working with CPR patients in identifying good practice and disease-specific models of intervention. There is, however, a need to develop new models of research that ‘photograph’ the real world of patients (registers, etc.),
often quite different from the selected populations present in clinical
trials. Some recommendations can be made for future research:
• to use and develop new validated “cross cultural” instruments;
• to promote observational studies (registers) that reflect the ‘real world’;
• to develop RCTs, robustly designed and with adequate follow-up, to
evaluate the efficacy of the psychological/psychotherapeutic therapies described in this position paper on psychological and cardiovascular endpoints, focused on specific patient groups (in particular, women and the elderly);
• to develop research on cardiac patients in palliative care;
• to promote studies to evaluate the dedicated caregiver program
with a large, representative, diversified sample that incorporates
information and resources tailored to the specific concerns and
needs of caregivers, in various age and gender cohorts.
Future research should validate concerns in more diverse samples so
that interventions can be targeted to better support male and female
caregivers in the various age-groups.
According to Richards [7], future large-scale trials testing the effectiveness of psychological therapies are required due to the uncertainties within the evidence. Future trials would benefit from testing the
impact of specific (rather than multifactorial) psychological interventions on patients with CHD, and testing the targeting of interventions
to different patient populations (i.e., people with CHD, with or without
psychopathologies).
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