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Erschienen in: BMC Cancer 1/2023

Open Access 01.12.2023 | Research

Prehabilitation in the lung cancer pathway: a scoping review

verfasst von: Kelly Wade-Mcbane, Alex King, Catherine Urch, Julian Jeyasingh-Jacob, Andrew Milne, Clair Le Boutillier

Erschienen in: BMC Cancer | Ausgabe 1/2023

Abstract

Background

Lung cancer is the third most common type of cancer in the UK. Treatment outcomes are poor and UK deaths from lung cancer are higher than any other cancer. Prehabilitation has shown to be an important means of preparing patients both physically and psychologically for cancer treatment. However, little is understood about the context and mechanisms of prehabilitation that can impact physiological and psychological wellbeing.
Our aim was to review and summarise primary research on prehabilitation in the lung cancer pathway using a realist approach.

Methods

A scoping review of empirical primary research was conducted. Five online medical databases from 2016 – February 2023 were searched. All articles reporting on prehabilitation in lung cancer were included in the review. For this review, prehabilitation was defined as either a uni-modal or multi-modal intervention including exercise, nutrition and/or psychosocial support within a home, community or hospital based setting. A realist framework of context, mechanism and outcome was used to assist with the interpretation of findings.

Results

In total, 31 studies were included in the review, of which, three were published study protocols. Over 95% of studies featured an exercise component as part of a prehabilitation programme. Twenty-six of the studies had a surgical focus. Only two studies reported using theory to underpin the design of this complex intervention. There was large heterogeneity across all studies as well as a lack of clinical trials to provide definitive evidence on the programme design, setting, type of intervention, patient criteria, delivery, duration and outcome measures used.

Conclusion

A standardised prehabilitation programme for lung cancer patients does not yet exist. Future lung cancer prehabilitation programmes should take into account patient led values, needs, goals, support structures and beliefs, as these factors can affect the delivery and engagement of interventions. Future research should consider using a conceptual framework to conceptualise the living with and beyond cancer experience to help shape and inform personalised prehabilitation services.
Hinweise

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Background

Lung cancer is the third most common type of cancer in the UK [1]. Treatment outcomes are poor and UK deaths from lung cancer are higher than any other cancer [2]. Cancer incidence and mortality projections within the UK predict that although mortality rates are likely to increase over the next 10 years, there will also be more people living with and beyond cancer [3].
Prehabilitation has shown to be an important means of preparing patients both physically and psychologically for cancer treatment by mitigating deconditioning associated with cancer treatments between the time of cancer diagnosis and the beginning of acute treatment’ [4, 5].
Prehabilitation within cancer surgery has shown to reduce morbidity and improve health outcomes. For example, an improvement in functional capacity [614] and health reported quality of life (HRQOL) [9, 12, 15, 16] as well as a reduction in post-operative complications [9, 15] and length of hospital stay [9, 13, 15, 17].
Few prehabilitation pathways exist for people who do not have surgery, despite 50–60% of people with cancer in the UK being treated with primary, neo-adjuvant or palliative chemotherapy and/or radiotherapy treatment [18]. Along with the rise in the use of targeted agents and immunotherapy, there is potential to optimise quality of life within the lung cancer population. However, little is understood about the context and mechanisms of prehabilitation that can impact physiological and psychological wellbeing.
Prehabilitation is a complex intervention and it is widely understood that the success of a complex intervention depends on the theory underpinning its design [19], which helps to explain the mechanisms underlying an individual’s behaviour, based on what works for them and their circumstances [2023]. Lung cancer treatment regimes can be prolonged and people may experience a range of toxicities, which could limit their ability to engage in prehabilitation interventions. Prehabilitation programmes should therefore be tailored to the individual to optimise symptom control, treatment tolerance and independence [24, 25].
The aim of this scoping review was to review and summarise primary research on prehabilitation in the lung cancer pathway using a realist approach. Realist approaches focus on the contexts and mechanisms that lead to particular outcomes. This approach enables a detailed exploration of factors likely to influence the success of a complex intervention, such as prehabilitation, thereby helping explain how and why interventions may or may not work [26, 27].

Methods

Scoping reviews are particularly relevant to examine the extent, range and nature of evidence on a certain topic and to identify concepts, theories and knowledge gaps from a heterogeneous body of research [28].
The PRISMA extension for scoping reviews was used for the conduct and reporting of this scoping review [28]. This enabled an examination of the extent, range and nature of the evidence on prehabilitation and lung cancer.
Following the Joanna Briggs Institute (JBI) framework [29], this scoping review addressed the following: 1. Define the review questions 2. Determine the inclusion criteria 3. Search strategy 4. Evidence screening and selection 5. Data extraction 6. Data analysis 7. Presentation of the results.

1. Define the review questions.

Prehabilitation is a complex intervention and it is important to understand what has worked or is perceived to work based on measured or predicted outcomes within the lung cancer pathway. Pre-surgical prehabilitation is often a linear process from baseline to a defined, one-off target (surgery). However, this is not the case for patients receiving oncological treatment where prehabilitation may be delivered immediately prior to, during ± after each treatment session or cycle. Our research questions were:
A)
How does the literature within the field of lung cancer describe the structure of prehabilitation?
 
B)
How does the literature within the field of lung cancer describe the personalisation of prehabilitation interventions?
 
C)
What are the actual outcomes for lung cancer patients participating in a prehabilitation programme?
 

2. Determine the inclusion criteria.

All studies included in this review had to involve lung cancer patients who received a form of prehabilitation within a home, community or hospital based setting. For this review, prehabilitation was defined as either a uni-modal or multi-modal intervention or programme including either exercise, nutrition and/or psychological wellbeing. All study designs were included in this scoping review providing that they met the inclusion criteria as outlined in Table 1. Protocols for ongoing or upcoming lung cancer prehabilitation studies were included in the review, as the authors felt these provided key insights into the delivery and proposed outcomes for prehabilitation within this field. All articles available in English were included.
Table 1
Eligibility criteria
 
Inclusion criteria
Exclusion criteria
Population
Adults aged ≥ 18 years old with a diagnosis of lung cancer
Studies addressing other tumour sites
Intervention
Unimodal or multimodal* prehabilitation interventions prior to lung cancer treatment
Not applicable
Comparator
Usual care or another type of intervention
Not applicable
Outcome
The intended and unintended outcomes for lung cancer patients participating in a prehabilitation programme
The effectiveness of prehabilitation programmes
Not applicable
Study design
Quantitative studies
Qualitative studies
Mixed method studies
If relevant systematic reviews identified, primary papers will be included
Study protocols for ongoing or upcoming prehabilitation studies specific to lung cancer
Published from 2016 up to and including 03 February 2023
Commentaries
Opinion articles
Book reviews
Conference abstracts
Social media posts
Blogs
Podcasts
Language
Written in the English language
Articles published in a language other than English due to limited translation resources
*Multi-modal: delivery of two or more non-pharmacological interventions (for example exercise, nutrition and/or psychological wellbeing)

3. Search strategy.

The literature search was undertaken by a research librarian using pre-defined search terms between the period of 2016 and 03 February 2023. This time period was chosen due to a rapid emergence of the use of prehabilitation within cancer care to improve health outcomes and reduce healthcare costs since the publication of a key research paper by Silver in 2015 [30]. This was followed by the Macmillan prehabilitation evidence and insight review [31] and subsequent publication of the Macmillan prehabilitation guidance [32]. A total of five databases were searched incorporating medical, nursing, allied health and psychological literature relevant to prehabilitation and lung cancer: Cumulative Index to Nursing and Allied Health Literature (CINAHL), Embase, Emcare, Medical Literature Analysis and Retrieval System Online (MEDLINE) and Psychological Information Database (PsycINFO). The major search terms ‘lung’, ‘cancer’ and ‘prehabilitation’ were used.

4. Evidence screening and selection.

All duplications were removed using the Zotero deduplication function. All retrieved abstracts for possible inclusion were independently screened by the first and last author. There was a consensus between both authors and thus, a third reviewer was not required.

5&6. Data extraction and analysis.

All articles reviewed for inclusion were obtained in full text. The JBI reviewers manual for evidence synthesis was used to create a synthesis matrix for data extraction [33]. Data extraction included: study title, year of publication, country, study design, sample size, type of participants, study aim, type of prehabilitation intervention used, key findings, strengths and limitations.

Results

A total of 31 articles were included in this scoping review; see Fig. 1. In some studies, pulmonary rehabilitation was described as prehabilitation. After discussion with authors conducting the review, it was agreed that pulmonary rehabilitation is a separate intervention, acknowledging that it may complement prehabilitation in the long-term. Therefore, studies that focused on pulmonary rehabilitation were excluded from this review.
The results of this review are presented in a narrative form in Tables 2 and 3.
Table 2
Summary of all studies meeting the eligibility criteria and subsequently used in this present scoping review
Title and year
Country of origin
Aims and purpose
Study population / sample size
Study design/type
Key findings related to the scoping review objectives
Strengths/limitations
Prehabilitation sessions can be provided more frequently in a shortened regimen with similar or better efficacy in people with non-small cell lung cancer: A randomised trial 2022 [34]
France
To evaluate the relative effect of condensing 15 prehabilitation sessions into a 3-week regimen compared with a 5-week regimen
N = 36 (18 in the intervention arm and 18 in the control arm) patients with Non-Small Cell Lung Cancer (NSCLC) and moderate - high risk of postoperative complications
Randomised controlled trial
Condensing prehabilitation sessions led to similar or better improvement in cardiorespiratory fitness and did not decrease adherence or increase adverse events
Strengths: Concealed allocation, blinded assessment of the primary outcome and intention-to-treat analysis
Limitations: External validity is limited with regards to inpatient or homebased programmes
Multimodal prehabilitation for lung cancer surgery: A randomised controlled trial 2021 [35]
Canada
To investigate
the effect of a personalised and structured multimodal
intervention on postoperative functional recovery
N = 95 (52 in the prehab arm and 43 in the rehab arm) lung cancer patients scheduled for NSCLC surgical resection
Randomised controlled trial
No difference in functional capacity during the perioperative period between the 2 groups
Eight weeks after surgery, both groups returned to baseline functional capacity
Limitations: A four-week prehabilitation intervention may not be highly translatable to patients with short durations between diagnosis and surgery. Patients who did not speak English or French were excluded
Feasibility of a novel mixed-nutrient supplement in a multimodal prehabilitation intervention for lung cancer patients awaiting surgery: A randomised controlled pilot trial 2021 [36]
Canada
To investigate the feasibility of delivering a novel four-week multimodal prehabilitation intervention and its effects on preoperative functional capacity and Health-Related Quality Of Life (HRQOL) compared to standard hospital care
N = 34 (24 in the intervention arm and 10 in the control arm) patients with stage I, II or IIa lung cancer awaiting elective thoracotomy
Randomised controlled trial
A multimodal prehabilitation intervention for lung cancer patients awaiting surgery is feasible as demonstrated by 84.1% adherence to the prescribed intensity of the supervised exercise program, 88.2% adherence to the self-reported home-based exercise program and 93.2% adherence to the nutritional supplement
No statistical differences in the six minute walk test or HRQOL between groups
Strengths: One of the first studies to include a specifically tailored preoperative nutritional intervention beyond dietary advice and/or whey protein supplementation in lung cancer patients undergoing surgery. Flexibility of the exercise intervention
Limitations: Nature of the study design (an open-label trial) could have led to a possible placebo effect in the prehabilitation group and self-supplementation in the control group. Due to the behavioural nature of the intervention, control patients may have sought out similar exercises on their own, as evidenced by the significant increase in self-reported moderate -vigorous intensity physical activity. High proportion of missing data at the preoperative visit, due to the COVID-19 pandemic. No data on adherence to the anxiety-reducing component of the intervention
Preoperative exercise to improve fitness in patients undergoing complex surgery for cancer of the lung or oesophagus (PREHIIT): Protocol for a randomised controlled Trial 2020 [37]
Ireland
To examine the influence of exercise prehabilitation on physiological outcomes and postoperative recovery and through evaluation of health economics, the impact of the programme on hospital costs
N = 78 (39 in the intervention arm and 39 in the control arm) patients scheduled for either an oesophagectomy or major lung resection
Randomised controlled trial (Protocol)
Planned outcomes: Primary outcomes: Cardiorespiratory fitness. Secondary outcomes: Post-operative morbidity, pulmonary and physical performance and quality of life
Strengths: A randomised controlled trial. An examination of the economic implications of the exercise prehabilitation programme will be done as part of the outcomes
Limitations: Absence of nutritional screening despite nutritional adequacy being examined. Inclusion of both lung and oesophageal cancer patients
Effects of an exercise intervention for patients with advanced inoperable lung cancer undergoing chemotherapy: A randomised clinical trial 2020 [38]
Denmark
To evaluate the effect of a physical exercise program comprising 12 weeks of supervised, structured aerobic, strength, and relaxation training twice weekly for patients with advanced inoperable lung cancer
N = 218 (110 in the intervention arm and 108 in the control arm) patients with stage IIIb-IV NSCLC
Randomised controlled trial
No significant difference between the intervention and control group in VO2 peak. Statistically significant difference in strength; leg press (p = 0.01), leg extension (p =  < 0.01), chest press (p =  < 0.01) and lateral pull down (p = 0.04) and in social well-being (p = 0.04), anxiety (p = 0.02) and depression (p = 0.01) between the intervention and control group
Limitations: 36.6% drop out rate. Adherence to the intervention was only 44%. Patients unable to attend the hospital for the exercise program were excluded
Cost-effectiveness of a technology supported multimodal prehabilitation program in moderate-to-high risk patients undergoing lung cancer resection: Randomised controlled trial protocol 2020 [39]
Spain
To evaluate the cost-effectiveness of a multimodal prehabilitation program supported by information and
communication technologies
N = 158 (79 in the intervention arm and 79 in the control arm)
Randomised controlled trial (Protocol)
Planned outcomes: (i) Patient and professional experience, (ii) Population health-based outcomes (e.g. hospital length of stay, number and severity of postoperative complications, peak oxygen uptake and levels of systemic inflammation) and (iii) Healthcare costs
Strengths: One of the first studies to look at cost-effectiveness and factors which could modulate service adoption
Limitations: Patients without access to a smartphone will be excluded
Preoperative respiratory muscle endurance training improves ventilatory capacity and prevents pulmonary postoperative complications after lung surgery 2020 [40]
France
To evaluate preoperative Respiratory Muscle Endurance Training (RMET) on respiratory muscle capacity and postoperative complications
N = 26 patients (14 in the intervention arm and 12 in the control arm) undergoing lung resection for NSCLC
Randomised controlled trial
Statistically significant improvement in respiratory muscle endurance (p = 0.001)
and reduction in pulmonary postoperative complications (p = 0.037) in the intervention group compared to the control group
Strengths: One of the first studies to demonstrate the benefits of prehabilitation via RMET
Limitations: Small sample size. Possible selection bias – highly motivated group of participants
Impact of one-week preoperative physical training on clinical outcomes of surgical lung cancer patients with limited lung function: A randomised trial 2019 [41]
China
To investigate the influence of preoperative physical training combining aerobic and breathing exercises on surgical lung cancer patients with impaired lung function
N = 68 (34 in the intervention arm and 34 in the control arm) NSCLC patients
Randomised controlled trial
Preoperative physical training (aerobic and breathing exercises) can improve exercise capacity, as evidenced by a statistically significant increase in distance covered by the 6 min walk test (6MWD) (p = 0.004), reduction in post-operative pulmonary complications (p = 0.022), shorter length of stay (p =  < 0.001) and lower in-hospital costs (p = 0.016). No statistically significant differences in lung function or quality of life, except for the emotional function of the EORTC QLQ-C30 (p = 0.001) between groups
Strengths: Inclusion of a cost-effectiveness analysis of the intervention
Limitations: Generalisability of findings is limited as it’s a small single centre study with the inclusion of non NSCLC patients
Pre-operative high intensity interval training is effective and safe in deconditioned patients with lung cancer: A randomised clinical trial 2019 [42]
Switzerland
To examine the effect of prehabilitation in patients diagnosed with lung cancer
N = 151 (74 in the intervention arm and 77 in the control arm) patients with NSCLC stage IIIa or less
Randomised controlled trial
Short-term high intensity interval training is feasible in deconditioned patients as evidenced by 87% adherence. It increases cardio-respiratory fitness and walking capacity as evidenced by a statistically significant increase in high-intensity interval training power (p =  < 0.001), heart rate (p =  < 0.01), aerobic capacity (p = 0.004) and 6MWD (p =  < 0.001) in the intervention group compared to usual care
Strengths: Demonstrated benefit of exercise prehabilitation in a short time period (8 training sessions over 3 weeks). High adherence.
Limitations: Absence of nutrition and psychological components of prehabilitation
Two week multimodal prehabilitation program improves perioperative functional capability in patients undergoing thoracoscopic lobectomy for lung cancer: A randomised controlled trial 2019 [43]
China
To investigate the effects of a two week, homebased, multimodal prehabilitation program on perioperative functional capacity and other outcomes
N = 73 (37 in the intervention arm and 36 in the control arm) patients with stage I-III NSCLC undergoing Video Assisted Thoracoscopic Surgery (VATS) lobectomy
Randomised controlled trial
Statistically significant improvement in the 6 min walk test (6MWT) (p =  < .001) and forced vital capacity (p = .0.21) in the intervention group compared to the control group (p =  < .001)
No difference in lung function, disability, psychological assessment, length of stay, postoperative complications and mortality
Strengths: Tri modal prehabilitation programme (nutrition, exercise and psychology)
Limitations: Patients only included if they were having a VATS lobectomy, all other lung cancer surgeries were excluded. No information on lifestyle changes
Precision-Exercise-Prescription (PEP) in patients with lung cancer undergoing surgery: Rationale and design of the PEP study trial 2018 [44]
United States of America
To test the clinical effectiveness and feasibility of a personalised exercise intervention in patients with lung cancer undergoing surgery
N = 200 (100 in the intervention arm and 100 in the control arm) patients with primary lung cancer stage I, II or IIIa or secondary lung cancer undergoing surgery
Randomised controlled trial (protocol)
Planned outcomes: Primary outcome: Level of physical function assessed by the 6MWT at 2 months post-surgery. Secondary outcomes: Quality Of Life (QOL), fatigue, self-efficacy, length of stay, complications, readmission, pulmonary function and treatment-related costs up to 6 months post-surgery
Strengths: One of the first RCT’s to examine a personalised exercise programme for patients with primary and secondary lung cancer across the continuum of care from pre surgery to post surgery.
Limitations: Patients unable to follow directions and complete questionnaires and exercise diaries in English would be excluded
A comparison of the effects of medical Qigong and standard exercise therapy on symptoms and quality of life in patients with advanced cancer 2017 [45]
Canada
To compare the impact of medical Qigong and standard exercise therapy on anxiety and depression levels and QOL and to establish whether medical Qigong or standard exercise training is superior for improving functional capacity and reducing symptoms
N = 24 patients with stage three or four NSCLC or gastrointestinal cancer
Randomised controlled trial
No significant differences in anxiety, depression or QOL between Qigong and standard exercise therapy. However, standard exercise therapy was superior to Qigong as demonstrated by statistically significant improvements in perceived strength (p = 0.05) and walking distance (p = 0.02)
Strengths: One of the first studies to compare Qigong with another exercise intervention
Limitations: Study was underpowered. Only 19 patients completed both assessments
Impact of physical activity on fatigue and quality of life in people with advanced lung cancer: A randomised controlled trial 2017 [46]
Australia
To assess whether a 2-month physical activity intervention improves fatigue and QOL
N = 112 (56 in the intervention arm and 55 in the control arm) patients with stage III/IV NSCLC or Small Cell Lung Cancer (SCLC)
Randomised controlled trial
No significant differences in fatigue, QOL, symptoms, physical or functional status or survival between the groups
Strengths: Physical activity intervention adherence was good (69%), demonstrating that advanced lung cancer are able to participate in structured physical activity programmes
Limitations: Selection bias – motivated group
Preoperative exercise training prevents functional decline after lung resection surgery: A randomised, single-blind controlled trial 2017 [47]
Spain
To investigate the effects of a preoperative exercise programme in patients with lung cancer undergoing VATS
N = 22 (10 in the intervention arm and 12 in the control arm) patients with suspected or confirmed diagnosis of NSCLC
Randomised controlled trial
Statistically significant improvement in exercise tolerance (p = 0.0001), the physical summary component of the Short Form (SF) 36 survey (p = 0.008) and muscle strength (p =  < 0.01) in the intervention arm compared to the control group. There were no significant differences between groups after surgery. However, 3 months post-surgery, there were statistically significant differences in mean change of exercise capacity (p = 0.005), physical summary component (p = 0.001) of the SF-36 and upper (p = 0.045) and lower body strength (p = 0.002)
Strengths: Demonstrated that a preoperative exercise based programme can improve exercise capacity, muscle strength and the physical component of health related quality of life in patients with lung cancer
Limitations: Small study with a high dropout rate – of the 20 patients randomised to the prehabilitation group, only 50% completed the study
Short-term preoperative exercise therapy does not improve long-term outcome after lung cancer surgery: A randomised controlled study 2017 [48]
Switzerland
To evaluate the impact of adding rehabilitation with High Intensity Interval Training (HIIT) before lung cancer surgery to enhance cardio-respiratory fitness and improve long-term postoperative outcome
N = 151 (74 in the intervention arm and 77 in the control arm) patients with suspected or confirmed stage IIIa or less NSCLC
Randomised controlled trial
A HIIT program before lung cancer resection did not improve clinical and functional outcomes at 1 year after surgery as evidenced by no statistical significant difference in survival, pulmonary function or cardiorespiratory difference between the 2 groups
Strengths: One of the first studies to examine the impact of prehabilitation on long-term outcomes after resection
Limitations: A third of patients did not complete the pulmonary function and cardiopulmonary exercise tests for unknown reasons
Short-term preoperative high-intensity interval training in patients awaiting lung cancer surgery: A randomised controlled trial 2017 [49]
Switzerland
To evaluate and compare short-term preoperative HIIT to usual care by assessing cardio-respiratory fitness parameters and the incidence of postoperative complications
N = 151 (74 in the intervention arm and 77 in the control arm) patients undergoing NSCLC resection
Randomised controlled trial
Preoperative HIIT resulted in statistically significant improvements in peak oxygen consumption (p = 0.003) and 6MWD (p < 0.001)
There were no statistically significant differences in complication rates between groups
Strengths: Demonstrated the safety and effectiveness of a short-term exercise training program in improving aerobic performance
Limitations: Study was underpowered. 25% did not experience any benefit in aerobic fitness despite attending the prescribed training sessions
Is preoperative protein-rich nutrition effective on postoperative outcome in non-small cell lung cancer surgery? A prospective randomised study 2016 [50]
Turkey
To investigate the benefit of preoperative nutritional support for NSCLC patients who underwent anatomic resection
N = 58 (31 in the intervention arm and 27 in the control arm) patients with NSCLC
Randomised controlled trial
Preoperative nutrition provided a statistically significant reduction in complications (p = 0.049) and chest tube removal time (p = 0.019) in patients who were in the intervention arm compared to the control group
There was also a statistically significant reduction of 25% in postoperative albumin levels in patients in the control arm compared to only a 14% reduction in those in the intervention arm (p < 0.001)
Strengths: One of the first studies examining the effect of nutritional prehabilitation in patients with NSCLC
Limitations: Disproportionate number of males versus females; 54 versus 4 respectively. Excluded malnourished patients and patients with a low Body Mass Index (BMI). Changes in albumin could be multifactorial
Effect of prehabilitation on ventilatory efficiency in non–small cell lung cancer patients: A cohort study 2019 [51]
France
To assess the effect of prehabilitation on the minute ventilation / carbon dioxide production slope (VE/VC02) and its relationship with VO2peak
N = 50 patients with NSCLC
Cohort study
No statistically significant change in VE/VCO2 slope (p = 0.09), length of hospital stay (p = 0.55) and post-operative complications (p = 0.50) from baseline to post prehabilitation. However, there was a statistically significant increase in VO2peak (p = 0.01) and cardiorespiratory parameters (p = 0.01) from baseline to post prehabilitation
Strengths: One of the first studies to evaluate the effect of prehabilitation before lung resection for NSCLC on VE/VCO2 slope
Limitations: Retrospective study design. Exercise intensity was not accounted for
Impact of prehabilitation on morbidity and mortality after pulmonary lobectomy by minimally invasive surgery: A cohort study 2018 [52]
France
To determine whether participation in a prehabilitation program would improve outcomes after surgery and lower morbidity according to the Clavien-Dindo classification
N = 38 (19 in the intervention arm and 19 in the control arm) patients with NSLC stage IIIA or less who had pulmonary lobectomy by minimally invasive surgery
Cohort study
Statistically significant difference in favour of the prehabilitation group with a Clavien-Dindo grade of ≤ 2 (p = 0.02) and fewer postoperative complications (p = 0.03)
No significant difference between the two groups in length of stay and severity of complications
Strengths: One of the first studies to focus on prehabilitation and the severity of post-operative complications using the Clavien-Dindo classification
Limitations: Small sample size. Post-operative complications were only recorded up to 30 days post-surgery. Patients unable to attend the hospital for the exercise program were excluded
Application and practice of trimodal prehabilitation model in preoperative management of patients with lung cancer undergoing video-assisted thoracoscopic surgery 2023 [53]
China
To analyse the application of trimodal prehabilitation model in preoperative management of patients with lung cancer undergoing VATS
N = 148 (74 in the intervention arm and 74 in the control arm) stage I-II NSCLC patients due to undergo VATS
Prospective study
Statistically significant improvement in the 6MWT and activity levels (p values not provided) and a reduction in the Hospital Anxiety Depression Scale (HADS) and post-operative complications (p values not provided) between groups post intervention
Strengths: Tri modal prehabilitation programme (nutrition, exercise and psychology)
Limitations: Results to be interpreted with caution owing to the absence of P values
Pre-treatment optimisation with pulmonary rehabilitation in lung cancer: Making the inoperable patients operable 2021 [54]
United Kingdom
To determine whether pre-operative prehabilitation, by improving clinical parameters, (i) makes patients suitable for surgery who were considered inoperable and (ii) thereby allows them to safely receive curative surgery with reduced morbidity and mortality
N = 216 lung cancer patients
Prospective study
Clinically and statistically significant improvement in dyspnoea scores (p = 0.00002) performance status (p = 0.003) level of activity (p =  < 0.00001) and frailty (p = 0.00058) from baseline to post prehabilitation intervention
42.8% underwent surgery following prehabilitation
Strengths: Prehabilitation intervention is as short as 2 weeks, which is more translatable to patients with short durations between diagnosis and surgery. Prospective study so all data is collected in real time
Limitations: Lack of a control group. No information on nutrition
Neoadjuvant prehabilitation therapy for locally advanced non–small-cell lung cancer: Optimizing outcomes throughout the trajectory of care 2022 [55]
Canada
To assess whether neoadjuvant prehabilitation helps to optimise outcomes
N = 141 (20 in the intervention arm and 121 in the control arm) lung cancer patients who underwent neoadjuvant treatment followed by surgery
Retrospective study
Statistically significant improvement in the 6WMT (p = .1), self-reported functional status (p = .03) and HADS (p = .005) in the intervention group compared to the control group
Strengths: Tri modal prehabilitation programme (nutrition, exercise and psychology). Use of validated tools for assessment of nutrition, exercise and psychological wellbeing
Limitations: Significant difference in the number of patients between both arms
Malnourished lung cancer patients have poor baseline functional capacity but show greatest improvements with multimodal prehabilitation 2021 [56]
Canada
To characterise the presence of malnutrition, examine the association between malnutrition and baseline functional capacity and the extent to which patients benefit from preoperative multimodal prehabilitation
N = 162 (number in the prehabilitation group vs control not specified) lung cancer patients undergoing lung cancer resection
Retrospective study
High nutrition risk patients had significantly lower baseline functional capacity compared with those who were low risk (p = 0.022), but experienced significant improvements in preoperative functional capacity upon receiving multimodal prehabilitation (p = 0.01)
Strengths: One of the first prehabilitation studies to look at the association between patients categorised as being high nutritional risk and functional capacity
Limitations: High proportion of missing data (30%). Change in nutritional status was not measured, as the assessment tool was not repeated at follow up visits. Study was not powered
Feasibility and outcomes of a real-world regional lung cancer prehabilitation programme in the UK 2022 [57]
United Kingdom
To evaluate the feasibility, uptake and outcomes of the Prehab 4 Cancer service delivery model during the 11 months before COVID-19 restrictions
N = 377 lung cancer patients with a treatment recommendation of surgical resection
Feasibility study
The programme was feasible at scale with high uptake and had a positive impact on preoperative physiological and subjective functional assessments, providing a framework for wider implementation
Strengths: Multi- disciplinary team approach. Triage based on the principles of NHS England’s personalised care model
Limitations: Risk of selection bias owing to no control group. Incomplete end of prehabilitation assessment data. Only 120 patients completed the programme; 1 in 5 opted not to participate in the programme and the reasons for this are poorly understood
Feasibility of setting up a pre-operative optimisation ‘prehab’ service for lung cancer surgery in the UK 2020 [58]
United Kingdom
To assess the feasibility of setting up a prehabilitation service for lung cancer surgery
N = 50 lung cancer patients due to undergo surgery
Feasibility study
A lung cancer prehabilitation programme is feasible and safe as demonstrated by a statistically significant improvement in forced expiratory volume (p = 0.0045), 6MWT (p =  < 0.0001), sit to stand (p = 0.0011) and QOL (p = 0.0213) scores from baseline to post prehabilitation intervention and no adverse events
Strengths: Use of the Orsmond and Cohn framework for feasibility studies to assess feasibility
A feasibility study of an unsupervised, pre-operative exercise program for adults with lung cancer 2020 [59]
United States of America
To explore the feasibility, acceptability and perceived utility of the provision of a wearable fitness device and an exercise prescription from a surgeon
N = 30 patients with stage I, II or III lung cancer scheduled for surgery
Feasibility study
A wearable fitness device and exercise prescription is feasible and acceptable as evidenced by 79% completing the pre-operative study activities. 71% successfully synchronised their device during the pre-operative period. Data was transmitted from the device to the study team for an average of 70% of pre-operative days
Strengths: High engagement with the device and study assessments
Limitations: Some patients voiced confusion as to how to use the device, which could limit future trials with older populations. Questions surrounding the generalisability of findings as patients who were willing to enrol on the programme may be more active than an average lung cancer patient. Patients who did not speak English were excluded
Pre-radiotherapy daily exercise training in non-small cell lung cancer: A feasibility study 2019 [60]
Denmark
To examine the feasibility of an individual, supervised, structured moderate-to-high intensity cycle ergometer exercise training immediately before radiotherapy
N = 15 patients with locally advance NSCLC
Feasibility study
Feasible and safe as demonstrated by 90% attendance to exercise, 88% adherence to full exercise participation and no adverse events
Strengths: First study to test whether daily individualised structured exercise is feasible and safe in patients with advance NSCLC. Ease of access for patient participation
Limitations: Small sample size. Selection bias – motivated group
Patients’ and healthcare professionals’ views on a pre-and post-operative rehabilitation programme (SOLACE) for lung cancer: A qualitative study 2021 [61]
United Kingdom
To explore patients and healthcare professionals views and experiences of a pre-and post-operative rehabilitation intervention
N = 25 (17 patients who had early-stage lung cancer and had surgery + 8 healthcare professionals who work with lung cancer patients in pre and post-surgical care)
Qualitative study
The SOLACE service was positively perceived by patients and healthcare professionals. Patients valued the provision of tailored support/advice and peer support and reported benefits to their health and well-being
Barriers to patient uptake of the classes included time constraints, motivation and access for patients who lived at a distance
Virtual support may address equality of access to service for those who live at a distance from the hospital
Strengths: Provided an understanding of the value of a pre and post rehabilitation programme. The semi-structured interviews shed light on what was acceptable as well as the barriers to participation
Limitations: Views of patients who did not participate in the exercise classes were not represented in the interviews. Individuals who did participate in the exercise programme were more likely to be highly motivated to participate. Not an ethnically diverse group, therefore generalisability of the findings is limited. Equality of access to the service for those who live a distance away from the hospital
Attitudes and perceptions to prehabilitation in lung cancer 2020 [62]
Australia
To determine the acceptability and perceived benefit of prehabilitation in lung cancer among thoracic surgeons
N = 28 thoracic surgeons
Online cross-sectional survey
91% were willing to delay surgery to optimise patients via prehabilitation
The main barriers to prehabilitation were patient comorbidities and access to allied health professionals
92% believe that further research into prehabilitation in lung cancer is warranted
Strengths: One of the first studies to look at the attitudes and perceptions of prehabilitation amongst thoracic surgeons
Limitations: Response rate was only 14%
Potential effectiveness of a surgeon-delivered exercise prescription and an activity tracker on pre-operative exercise adherence and aerobic capacity of lung cancer patients 2021 [63]
United States of America
To determine the level of Moderate-Vigorous Physical Activity (MVPA) and change in aerobic capacity after participation in a home-based pre-operative exercise intervention
N = 18 patients with stage I-III lung cancer due to undergo surgery
Proof of concept study
Mean MVPA per day: 20.4 min during the pre-operative period. On average, patients met the goal of 30 min of MVPA on 16.4% of the days during the pre-operative period
No statistical significant difference found in the 6MWT between baseline and post MVPA (p = 0.14). 47% demonstrated a clinically significant improvement of 14 m or more, highlighting that a surgeon-delivered exercise prescription plus an activity tracker may promote clinically significant improvement in aerobic capacity and MVPA engagement
Strengths: One of the first studies to look at the level of adherence when exercise is enthusiastically prescribed by a surgeon and objectively measured
Limitations: Patients who did not have access to the internet were excluded. An objective measure of pre-intervention MVPA to compare MVPA levels during the intervention was not obtained. The Garmin Vivoactive heart rate device used had not been validated for MVPA assessment among the general population or among pre-operative cancer patient populations
Prehabilitation in thoracic cancer surgery: From research to standard of care 2021 [64]
Canada
To determine whether personalised, stepped prehabilitation care is a feasible, safe, and effective implementation strategy
N = 81 (45 in the intervention arm and 36 in the control arm) lung cancer patients due to undergo lung cancer surgery
Quality Improvement Project
A personalised, stepped prehabilitation program targeting high-risk patients undergoing elective lung cancer surgery is feasible, safe, and effective as evidenced by a statistically significant improvement in 6MWD (p = 0.001), oxygen uptake (p = 0.004) and hospital length of stay (p = 0.101) after prehabilitation. There were no significant differences in the number of complications and there were no adverse events
Strengths: Tri-modal (nutrition, exercise and psychological wellbeing) prehabilitation approach
Limitations: Selection bias - only patients who lived in the metropolitan area and had an expected waiting time of about four-to-five weeks before surgery were referred. Limited external validity as no predefined and universal outcome variables used or consistent time points. The intervention and control groups were not balanced
Table 3
Description of the prehabilitation interventions using a modified version of the TIDieR checklist
Study
What
Who provided
How
Where
When and how much
Tailoring
How well (actual/planned)
Components
Description
Prehabilitation sessions can be provided more frequently in a shortened regimen with similar or better efficacy in people with non-small cell lung cancer: A randomised trial (Randomised controlled trial) [34]
• Exercise
• Wellbeing
Not based on a model or theory, but on the findings of a previous study which found that patients who completed ≥ 15 sessions showed more improvement in cardiorespiratory measures after the prehabilitation program than those who performed fewer sessions
Exercise: Consists of aerobic endurance training on a cycle ergometer, peripheral muscle strengthening and inspiratory muscle strengthening
Wellbeing: Smoking cessation support and education on mucus clearance techniques, deep-breathing, directed and protected coughing, and postoperative mobilisation
Physiotherapist
Exercise: One to one and group sessions
Wellbeing: Support and education was delivered during the first individual session and reminders and advice were provided during the following group sessions
Information not provided
Intervention arm: 5 × 90-min sessions per week for 3 weeks
Control arm: 3 × 90-min sessions per week for 5 weeks
Load / intensity / resistance increased according to individual tolerance
Mean estimates of VO2peak and VE/VCO2 slope favoured the dense prehabilitation regimen and the confidence intervals indicated that the effects are as good as or better than the control regimen. However, this was not associated with a reduction in postoperative complications in this study
Multimodal prehabilitation for lung cancer surgery: A randomised controlled trial (Randomised controlled trial) [35]
• Exercise
• Nutrition
• Wellbeing
Not based on a model or theory, but research that although exercise training has been shown to significantly improve physical function, lung cancer patients are at nutritional risk due to a reduced food intake and often experience psychological stress which could lead to a delayed recovery and mortality
Exercise: Moderate-vigorous intensity aerobic training and resistance training
Nutrition: Patients screened using validated tools, advised to aim for 1.5 g/kg/d of protein and prescribed whey protein supplements if required
Wellbeing: Relaxation exercises based on imagery, visualisation and deep breathing to help reduce anxiety
Exercise: Certified kinesiologist
Nutrition: Registered dietitian
Wellbeing: Psychology trained personnel
Exercise: Personalised exercise prescription
Nutrition: All patients screened using the Patient Generated Subjective Global Assessment (PG-SGA) and the Nutritional Risk Screening tool. Daily protein calculated at 1.5 g/kg ideal body weight
Wellbeing: A compact disc with relaxation exercises provided
Home-based unsupervised programme
Immediately after baseline assessment (approximately 4 weeks prior to surgery) and up to 8 weeks after surgery
Exercise: 30 min of moderate-vigorous intensity aerobic training 3 days a week + resistance training (8–12 repetitions) and stretching exercises 3 days a week
Nutrition: 1.5 g/kg ideal body weight of protein per day + protein supplements within 1 hour of exercise
Wellbeing: 2–3 times a week
Exercise: Tailored to a patient’s preferred type of exercise and fitness level
Nutrition: Advice given based on a 3 day food diary completed at the time of enrolment
Wellbeing: Information not provided
No difference in the trajectory of functional capacity post-surgery
No difference in median hospital length of stay, but 42% versus 16% were discharged post-operatively by day two. No discussion on the influence of nutritional optimisation and anxiety reducing strategies
Feasibility of a novel mixed-nutrient supplement in a multimodal prehabilitation intervention for lung cancer patients awaiting surgery: A randomised controlled pilot trial (Randomised controlled trial)
[36]
• Exercise
• Nutrition
• Wellbeing
Not based on a model or theory, but the hypothesis that during the preoperative period the novel multimodal prehabilitation intervention would be feasible and improve preoperative functional capacity compared to standard hospital care
Exercise: Consisted of supervised and unsupervised moderate aerobic exercise and resistance exercise
Nutrition: Individualised dietary assessment to meet protein intake of > 1.2 g/kg/d and energy of 25–30 kcal/kg/d + a whey protein isolate supplement with leucine + a daily fish oil supplement with vitamin D
Wellbeing: Relaxation exercises based on imagery, visualisation and deep breathing
Exercise: Kinesiologist
Nutrition: Dietitian
Wellbeing: Psychology trained personnel
Exercise: Personalised exercise prescription
Nutrition: One to one dietary assessment based on intake, anthropometry, nutrition-impact symptoms, biochemistry and a nutrition-focused physical exam
Wellbeing: One to one sessions and patients were given a compact disc with relaxation exercises to be performed at home. Adherence was assessed based on responses in a patient information booklet
Hospital based combined with unsupervised sessions at home
4 weeks prior to surgery:
Supervised exercise: 1 h / week of aerobic exercise + resistance exercises: 1–2 sets of 8–15 repetitions for 30 min
Unsupervised exercise: 30 min of moderate aerobic exercise + resistance exercises every second day
Nutrition: Whey protein supplementation twice a day
Wellbeing: 2–3 times a week
The exercise program was individualised based upon initial assessments. Dietary advice was individualised
High adherence rates to suggest feasibility for the exercise and nutritional component, but no data on the psychological component
Recruitment rate was 58.6%
No improvement observed in preoperative functional capacity
Preoperative exercise to improve fitness in patients undergoing complex surgery for cancer of the lung or oesophagus (PREHIIT):
Protocol for a randomised controlled trial (Randomised controlled trial protocol)
[37]
• Exercise
• Nutrition
Not based on a model or theory, but based on preliminary evidence that 12–15 sessions of HIIT significantly improves cardio-pulmonary fitness in low-fit older adults undergoing
lobectomy and hepatic resection, however further evaluation in larger cohorts and in those with highest postoperative risk is required
Exercise: Supervised
HIIT programme
Nutrition: Tailored dietetic assessment to ensure nutritional adequacy is maintained throughout the intervention
Exercise: Physiotherapist
Nutrition: Dietitian
Exercise: One to one supervised sessions on a cycle ergometer at a time convenient to the patient
Nutrition: Ensuring an adequate dietary energy (25-30 kcals/kg/day) and protein intake
(1.25–1.5 g/kg/day)
Hospital based
Exercise: At least 2 weeks up to 5 days a week with each session lasting 40 min
Nutrition: Information not provided
Exercise and dietary intervention will be tailored to the individual
The following will be measured at diagnosis, baseline and post intervention prior to surgery: cardio-pulmonary fitness (CPET), pulmonary and physical performance (maximal inspiratory pressure, peripheral muscle strength, short physical performance battery, International Physical Activity Questionnaire) and QOL (EORTC). The following will be measured at post-operative recovery: post-operative morbidity index, post-operative morbidity (Clavien-Dindo classification), complex complications index, mortality, length of stay, self-reported functional recovery at 30 days and QOL (EORTC, EQ5DL). A sub cohort of patients will take part in a semi-structured interview to feedback on how the study has impacted their preparation for surgery. Economic evaluation will also be undertaken. Discharge destination, use of community health services and EQ5D5L scores will be collected to assess if the intervention has longer term effects beyond discharge
Effects of an exercise intervention for patients with advanced inoperable
lung cancer undergoing chemotherapy: A randomised clinical trial
(Randomised controlled trial)
[38]
• Exercise
No model or theory base reported
Physical training and relaxation comprising of strength training, aerobic training and stretching
A clinical nurse specialist or physiotherapist screened all patients prior to participation. A research physiotherapist delivered the exercise training
Supervised group training consisting of stationary cycling and strength training
Information not provided
2 × a week for 1.5 h over 12 weeks
The exercise sessions were tailored to the patient’s fitness level
Attrition rate was 37% due to death (n = 12), refusal to participate (n = 22), disease progression (n = 20), and absence from test (n = 27). All patients were undergoing concurrent systemic treatment and 67% received radiotherapy. No significant difference seen in the primary outcome; peak V02
Cost-effectiveness of a technology supported
multimodal prehabilitation
program in moderate-to-high risk patients
undergoing lung cancer resection: Randomised controlled trial protocol
(Randomised controlled trial)
[39]
• Exercise
• Nutrition
• Wellbeing
Not based on a model or theory, but the hypothesis that surgical lung cancer patients
are likely to benefit from prehabilitation as they usually have a significant
reduction in functional capacity from multifactorial origin
Intervention arm: Exercise: High-intensity endurance exercise, strength training and a personalised pedometer based program. Nutrition: Individualised dietary counselling to meet 1.5–2 g/kg/d of protein + a whey protein powder or casein supplement
Wellbeing: Smoking cessation and cognitive behavioural therapy
Control arm: patients will receive advice on physical activity, smoking cessation and alcohol intake. If deemed at risk of malnutrition, patients will receive nutritional intervention
Exercise: Physiotherapist
Nutrition: Dietitian
Wellbeing: Clinical health psychologist
Exercise: One to one on a cycle ergometer and use of a physical activity tracker linked to a mobile app
Nutrition: Personalised dietary counselling with educational material and follow-up surveys in the mobile app
Wellbeing: Group sessions and audio guides for coping strategies and exercises in the mobile app
Community based and via a mobile app
Prior to surgery. Duration not specified
Exercise: 3 × week
Nutrition: Information not provided
Wellbeing: 1 × week
Exercise: Endurance training will be tailored to the individual according to symptoms (using the modified Borg scale) and the strength training will be adapted to an individual’s tolerance
Nutrition: Individualised dietary assessment
Wellbeing: Information not provided
Study outcomes to follow a quadruple aim approach. (1) Patient experience (Person Centred Coordinated
Experience Questionnaire, Nijmegen Continuity Questionnaire and focus groups and structured interviews to identify facilitators and barriers to prehabilitation) (2)
Population health-related outcomes (Length of stay, postoperative complications, readmissions, physical activity, wellbeing and nutrition markers) (3) Healthcare costs (4)
Healthcare
professionals’ perspective (Advancing Care coordination and Telehealth deployment at Scale questionnaire, focus groups and structured interviews)
Preoperative respiratory muscle endurance training improves ventilatory capacity and prevents pulmonary postoperative complications after lung surgery
(Randomised controlled trial)
[40]
• Exercise
Not based on a model or theory, but based previous RCTs which have showed significant improvements in respiratory muscle endurance and exercise capacity in patients with Chronic Obstructive Pulmonary Disease (COPD) patients following RMET
RMET, consisting of isocapnic hyperpnoea and usual pre-operative chest therapy
A physical therapist
Using a Spirotiger® device. The RMET was supervised once a week by the same physical therapist
Hospital and home based
Pre-operatively. Patients receive 12 sessions of RMET over three weeks and are asked to complete a 30-min training session daily. RMET is performed on 2 consecutive days and rested for 1 day
RMET was tailored to each patient via use of the Spirotiger® device
86% adherence to the training programme.
Minute ventilation and endurance time increased significantly after RMET.
The number of post-operative complications was significantly lower in those who received RMET
Impact of one-week preoperative physical training on clinical outcomes of surgical lung cancer patients with limited lung function: A randomised trial (Randomised controlled trial) [41]
• Exercise
No model or theory base reported
Consisted of physical training including breathing exercises and aerobic exercise
Nurse specialists and physical therapists
Breathing exercises: Using a volumetric incentive spirometer
Aerobic exercise: Using a Nu-Step instrument
Information not provided
The intervention was provided over 1 week. Breathing exercises: 3 × day and aerobic exercise: 30 min a day
Information not provided
Significant difference in the distance covered in the 6MWT in the intervention arm compared to the control group, indicating that short-term high-intensity training regimen could improve cardiopulmonary endurance. No significant difference in lung function or quality of life (except for emotional function) between the two groups, suggesting that intense training before surgery is only effective on mental health
Pre-operative high intensity interval training is effective and safe in deconditioned patients with lung cancer: A randomised clinical trial
(Randomised clinical trial)
[42]
• Exercise
Not based on a model or theory, but research that HIIT has shown to be feasible
and safe in deconditioned patients with chronic heart
disease and this could be replicated in patients awaiting primary lung resection surgery for NSCLC
HIIT exercise program
Respiratory physiotherapists
Supervised group sessions using a cycle ergometer
Information not provided
3 weeks prior to surgery; 30 min 1–3 times a week
If patients were unable to complete sessions at 100% power, the power was lowered according to the patients capacity to obtain a dyspnoea and leg fatigue of at least 5 on the Borg scale. Power was increased again if dyspnoea or the sense of effort decreased below 5. Work rate was adjusted each session as Borg ratings and heart rate evolved
Median duration between clinical decision and surgery was 25 days, which allowed a median of 8 high-intensity interval training sessions to be performed over 3 weeks. Adherence was 87%. Although 30% had COPD the training was well tolerated, indicating
the possibility of its regular application in pulmonary rehabilitation programmes
Two week multimodal prehabilitation program improves perioperative functional capability in patients undergoing thoracoscopic lobectomy for lung cancer: A randomised controlled trial
(Randomised controlled trial)
[43]
• Exercise
• Nutrition
• Wellbeing
No model or theory base reported
Exercise: Moderate intensity aerobic training, resistance exercises and respiratory training
Nutrition: Nutritional counselling with whey protein supplementation
Wellbeing: Mental relaxation including imagery and visualisation with relaxing music
Exercise: A doctor of physical therapy undertook all baseline assessments
Nutrition: Information not provided
Wellbeing: Information not provided
Exercise: Intensity based on the rate of perceived exertion (Borg scale) and target heart rate and set to achieve moderate training. Patients given an elastic resistance band to match their fitness level
Nutrition: 3 day total food recall questionnaire
Patients advised to change unhealthy eating habits, avoid high-calorie and high fat diets, eat more vegetables and fruits and high-quality proteins. Whey protein powder given to patients to take within one hour after exercise to achieve an intake of 1.5 g/kg/d of protein
Wellbeing: A music player with relaxing music was provided
Home based
Immediately after baseline visit (2 weeks before surgery)
Exercise: Aerobic exercise; 30 min 3 × week + resistance exercises 2 × week
Wellbeing: Daily prior to sleeping
Exercise: Tailored to patients fitness level
Nutrition: Advice given based on a 3-day total food recall questionnaire
Wellbeing: Information not provided
Improvement in 6MWD, but no differences in lung function, disability, psychological assessment, length of stay, short-term recovery quality, postoperative complications,
and mortality
Precision-Exercise-Prescription in patients with lung cancer undergoing surgery: Rationale and design of the PEP study trial (Randomised controlled trial protocol)
[44]
• Exercise
• Wellbeing
The wellbeing component is based on motivational interviewing and the social cognitive theory
Intervention arm:
Exercise: Consists of 5 stages: (1) Basic transfer mobility exercise (low-moderate intensity), (2) callisthenic mobility exercise (moderate-high intensity), (3) aerobic and resistance exercise (low-moderate intensity), (4) aerobic and resistance exercise (moderate intensity), (5) aerobic and resistance exercise (high intensity)
Wellbeing: Motivational and problem solving telephone calls
Control arm: Patients will be encouraged to increase walking both in the pre surgery and post-surgery period as part of usual clinical care, but there will be no formalised exercise programme
A physical therapist
Exercise: Instructional exercise sheets will be given to patients demonstrating exercise modes and intensity. Patients will be given access to light weights and resistance bands, an exercise diary and an activity tracker
Wellbeing: Motivational interviewing techniques, identification of barriers to exercising and problem-solving solutions, goal setting and self-monitoring
Either at home, the wellness centre or a recreational centre
Pre-surgery up to 6 months post-surgery. Exercise: Stages 1 and 2: Low intensity = 30 s-1 min 2 × day. Moderate intensity = 1–13 min 2 × day. High intensity = 1.5–2 min 4 × day
Stages 3, 4 and 5: Low intensity = 10 min of aerobic exercise + 5 min of resistance exercise. Moderate intensity = 20 min of aerobic exercise + 10 min of resistance exercise. High intensity = 30 min of aerobic exercise + 15 min of resistance exercise
Wellbeing: Weekly
Exercise: Based on an individual’s Activity Measure for Post Acute Care (AM-PAC) outpatient basic mobility score. It can be adjusted depending on a patients level of fatigue, muscle weakness, pain and/or shortness of breath
Wellbeing: Based on motivation and self-efficacy to engage in exercise
The following will be measured at baseline, on discharge, 2 months post-surgery and at 6 months post-surgery: AM-PAC mobility score, physical function (6MWD), strength, endurance and balance (short physical performance battery), patient-reported outcomes (functional assessment of cancer therapy-lung and chronic illness therapy-fatigue, Pittsburgh sleep quality index, physical activity, nutrition and wellbeing markers, subjective social status ladders, symptoms, living condition), exercise diary, length of stay, complications, healthcare costs and smoking assessment (saliva)
A comparison of the effects of medical Qigong and standard exercise therapy on symptoms and quality of life in patients with advanced cancer (Randomised cross over study)
[45]
• Exercise
No model or theory base reported
Medical Qigong consisted of “Walking Qigong”. A walking exercise programme involving coordinated arm movements while in a state of deep relaxation or meditation. Patients were advised to refrain from independent resistance or cardiovascular training during this period
Standard exercise therapy: Consisted of cardiovascular and resistance training exercises. No details provided re: type of exercises. Patients were also advised to walk daily and to refrain from practising Qigong
A physiotherapist. Patients were also evaluated by a second physiotherapist (not involved in training and blinded to group assignment) at three time points: baseline 0–2 weeks
before starting the training periods, up to 2 weeks after
completing the first arm of the study and up to 2 weeks after completing the second arm
Medical Qigong and standard exercise therapy were delivered over a 6-week period. Patients stopped for a minimum of 2 weeks and then attended for a further 6 weeks to receive the other type of intervention
Medical Qigong was delivered as group sessions whereas standard exercise therapy was delivered either individually or as a group
Patients kept
logbooks of physical activities performed at home during both 6-week training periods
At the local hospital and at home
Over a 6 week period. Medical Qigong: 12 × 45 min face to face sessions + 1 h a day at home
Standard exercise therapy: Tailored to the individual + one hour of walking daily
Tailored to a patient’s individual training intensity
51 patients consented. 36 (71%) completed baseline assessment, 24 (47%) completed the first assessment after the first exercise intervention, but only 19 (37%) completed both exercise interventions and all assessments
In all cases, the beneficial effects of the exercise interventions were markedly reduced during the second interval. The order in which the interventions were performed had a significant impact on the improvement in certain symptoms
Impact of physical activity on fatigue and quality of life in people with advanced lung cancer: A randomised controlled trial (Randomised controlled trial)
[46]
• Exercise
• Wellbeing
Based on the theory of planned behaviour
Intervention arm: A physical activity and behavioural support programme incorporating aerobic physical activity, advice about resistance exercises and behavioural support sessions. Control arm: Patients received cancer-specific education materials regarding nutrition and exercise
A physical activity consultant
Exercise: One to one supervised sessions + unsupervised home physical activity sessions
The behaviour support sessions use behaviour lifestyle change principles. Patients were also given a physical activity and behaviour change guidebook to use throughout the intervention
Information not provided
For 2 months
Exercise: Weekly; 30–45 min
Wellbeing: Weekly; 15–30 min behaviour support sessions
Exercise: Tailored to the patient’s baseline fitness, performance status and physical activity preferences
Wellbeing: Information not provided
Both groups reported more baseline physical activity than anticipated and symptoms and physical function did not deteriorate greatly over time
No significant differences between the two groups in terms of fatigue or QOL. Intervention adherence was good, with 69% completing all physical activity and 75% all behavioural change sessions. Attrition occurred in both groups, mainly due to disease progression
Preoperative exercise training
prevents functional decline after lung resection surgery: A randomised, single-blind
controlled trial (Randomised controlled trial)
[47]
• Exercise
No model or theory base reported
Preoperative exercise training consisted of a combination of moderate endurance and resistance training. Patients were also asked to perform breathing exercises
Physiotherapist
Endurance training: On a cycle ergometer
At the beginning and end of the training, dyspnoea and leg fatigue were logged using the modified version of the Borg Scale
Resistance training: Using elastic bands and body weight exercises
Breathing exercises: Using a volume-oriented incentive spirometer
Hospital based
3–5 times a week depending on the surgical date
Endurance training load was determined after a symptom-limited incremental cycle test
Resistance training load was determined using a 25-maximum repetition test
Out of the 40 patients who were randomised, only 22 (55%) completed at least one postoperative evaluation and were analysed. In the prehabilitation group, mean time from baseline assessment to surgery was 54.5 days with a median of 16 sessions. Patients in the prehabilitation group were able to maintain and/or increase their baseline values in all the parameters examined, whereas in the control group there was a progressive decline throughout follow-up, especially in exercise capacity
Short-term preoperative exercise therapy does not improve long-term outcome after lung cancer surgery: A randomised controlled study (Randomised controlled trial)
[48]
• Exercise
No model or theory base reported
HITT training program. Patients in both the intervention arm and the control group were given advice regarding active mobilisation and risk factor management (e.g., healthy nutrition and smoking and alcohol cessation)
Physiotherapist
Using a cycle ergometer
Hospital based
Pre-operatively 3 × week
The work rate was adjusted on each session according to an individual’s maximal heart rate
Short-term preoperative rehabilitation with HIIT did not improve pulmonary function and aerobic capacity measured at 1 year after lung cancer resection
Short-term Preoperative High-Intensity Interval
Training in patients awaiting lung cancer surgery: A randomised controlled trial (Randomised controlled trial)
[49]
• Exercise
No model or theory base reported
HITT training program. Patients in both the intervention arm and the control group were given advice regarding active mobilisation and risk factor management (e.g., healthy nutrition and smoking and alcohol cessation)
Physiotherapist
Using a cycle ergometer
Hospital based in an outpatient clinic
Pre-operatively 3 × week
The work rate was adjusted on each session according to an individual’s maximal heart rate
A HIIT programme helps prepare patients before lung cancer resection by enhancing their physical fitness. However, the HIIT programme did not improve postoperative clinical outcomes
Is preoperative protein-rich nutrition effective on postoperative outcome in non-small cell lung cancer surgery? A prospective randomised study (A prospective randomised study)
[50]
• Nutrition
No model or theory base reported
Patients were given an immune modulating formulae (enriched with arginine, omega-3 fatty acids and nucleotides) for 10 days
Information not provided
Information not provided
Information not provided
Information not provided
Information not provided
Statistically significant difference in complication rates, mean tube drainage times and in drop in albumin levels in the intervention arm compared to the control group
Effect of prehabilitation on ventilatory efficiency in
non–small cell lung cancer patients: A cohort study (Cohort study)
[51]
• Exercise
Not based on a model or theory, but based on research that pulmonary prehabilitation improves
postoperative risk factors and ventilatory inefficiency
 > 35 is a high risk factor for postoperative complications
Endurance training, peripheral and inspiratory muscle strengthening
Information not provided
Endurance training: Via a cycle ergometer or a treadmill. Peripheral muscle strengthening: Information not provided. Inspiratory muscle strengthening: Using a threshold valve Patients were also taught bronchial drainage techniques and directed coughing
In an ambulatory setting
Prior to surgery. Endurance training and peripheral muscle strengthening: 90 min 3–5 × week. Inspiratory muscle strengthening: 15 min daily
Load / intensity / resistance increased according to individual tolerance
Prehabilitation did not change ventilatory efficiency. 15 or more sessions of prehabilitation seems to be a rational threshold to improve other CPET outcomes, while remaining applicable in clinical practice
Impact of prehabilitation on morbidity and mortality after pulmonary lobectomy by minimally invasive surgery: A cohort study (Cohort study)
[52]
• Exercise
No model or theory base reported
Endurance exercise, muscular strengthening and inspiratory muscle strengthening
Two physiotherapists
Endurance exercise and muscle strengthening was performed on a cycle ergometer
Inspiratory muscle strengthening was performed using a resistive valve
Hospital based
Pre-operatively: 90 min 3–5 × week
Endurance exercise was tailored to an individual’s ventilator threshold
Although significant differences were observed in the prehabilitation group in terms of a reduction in post-operative complications and Clavien-Dindo classification, no significant differences were seen in length of stay and severity of complications between groups
Application and practice of trimodal prehabilitation model in preoperative management of patients with lung cancer undergoing video-assisted thoracoscopic surgery (Prospective study)
[53]
• Exercise
• Nutrition
• Wellbeing
No model or theory base reported
Exercise: Aerobic exercise and stair-climbing training. Deep breathing training and abdominal breathing exercise. Nutrition: Whey protein supplement drink 1 h after exercise
Wellbeing: Relaxation training
Nursing staff
Dietitian
Exercise: Information not provided
Nutrition: Using the Nutrition Risk Screening tool. Wellbeing: Using a professional scale to evaluate psychological state and via relaxation training
Information not provided
Exercise: Aerobic exercise: 30 min 2 × day. Stair climbing: 2 × day Deep breathing training and abdominal breathing exercise: 10–15 min 3 × day. When the perceived fatigue was heavy, the exercise intensity was reduced
Nutrition: Information not provided
Wellbeing: 20 min daily
The intervention ended after the first
week of the operation
Nutritional input was tailored to the individual based on the Nutrition Risk Screening tool
No information provided for exercise and wellbeing
The application of a trimodal prehabilitation
model for the preoperative management of patients with lung cancer undergoing video-assisted thoracoscopic surgery is conducive to improving the functional state and psychological state, preventing complications and improving nursing satisfaction
Pre-treatment optimisation with pulmonary rehabilitation in lung cancer: Making the inoperable patients operable (Prospective observational study)
[54]
• Exercise
Not based on a model or theory, but on the hypothesis that older patients may have frailty and smoking related cardiopulmonary disease with reduced pulmonary function, which could impair post-operative ventilatory function predisposing them to dyspnoea, cardiopulmonary complications and death. Patients with significant
dyspnoea, poor performance status or poor pulmonary
function are considered in-operable
Comprised of four main elements
(1) Respiratory muscle training and breathing exercises (2) Cardiovascular exercises
(3) Education—Health education and smoking cessation advice
(4) Pharmacology agents—Where necessary bronchodilator therapy was provided
Trained cardiothoracic physiotherapists
Information not provided
At the prehabilitation centre or outreach unit and home based
Over 2–4 weeks. 70 min face to face sessions with cardiovascular exercises 2 × week + home based respiratory muscle training and breathing exercises 3 × day
Individual training zones were calculated for the cardio-vascular exercises. Exercise intensity was based on the
rate of perceived exertion (Borg scale) and target heart rate
Following optimisation with prehabilitation, 84.2% of the high-risk patients were ready to proceed with radical treatment. 42.8% of patients underwent surgery
No significant differences in post-operative complications, length of hospital stay or mortality between the low and high risk groups
Neoadjuvant prehabilitation therapy for locally advanced non–small-cell lung cancer: Optimising outcomes throughout the trajectory of care (Retrospective study)
[55]
• Exercise
• Nutrition
• Wellbeing
No model or theory base reported
Exercise: Moderate-vigorous intensity aerobic training and resistance training
Nutrition: Patients screened using validated tools, advised to aim for 1.5 g/kg/d of protein and prescribed whey protein supplements if required
Wellbeing: Relaxation exercises based on imagery, visualisation and deep breathing to help reduce anxiety
Exercise:
Certified kinesiologist
Nutrition: Dietitian
Wellbeing: Psychology trained personnel
Exercise: According to a patient’s preferred type of aerobic training
Nutrition: All patients screened using the PG-SGA and the Nutritional Risk Screening tool. Daily protein calculated at 1.5 g/kg ideal body weight
Wellbeing: A compact disc with relaxation exercises provided
Home-based unsupervised programme
Immediately after baseline assessment (approximately four weeks prior to surgery) and up to eight weeks after surgery. Exercise: 30 min 3 × week + resistance training 3 × week Nutrition: 1.5 g/kg ideal body weight of protein per day + protein supplements within 1 h of exercise
Wellbeing: 2–3 × week
Exercise: Tailored to a patient’s preferred type of exercise and fitness level
Nutrition: Advice given based on a 3 day food diary completed at the time of enrolment
Wellbeing: Information not provided
The prehabilitation programme was individualised and home-based, which allowed patients to complete the programme at home at any convenient time, simplifying the already demanding schedule of a patient undergoing neoadjuvant therapy. Only 1 patient dropped out after initiation of the prehabilitation programme, demonstrating good feasibility
Malnourished lung cancer patients have poor baseline functional capacity but show greatest improvements with multimodal prehabilitation
(Retrospective study)
[56]
• Exercise
• Nutrition
• Wellbeing
No model or theory base reported
Exercise: The home-based training included moderate intensity aerobic training, resistance exercises and flexibility exercises
Nutrition: Individualised plan to meet each patients nutritional needs + whey protein supplementation to achieve a total protein intake of 1.2–1.5 g/kg/d
Wellbeing: Patients given techniques aimed at reducing anxiety, such as relaxation exercises based on imagery, visualisation and deep-breathing exercises
Exercise: Kinesiologist
Nutrition: Dietitian
Wellbeing: Psychology trained personnel
Exercise: Patients provided with an information booklet with instructions and figures on all elements of the program and exercise progressions. The booklet also included a journal to record all activities related to the program. Nutrition: A comprehensive dietary assessment based on a 3-day food diary, anthropometry, nutrition impact symptoms, biochemistry and a nutrition focused physical exam. Instructions included eating well-balanced meals with a focus on protein intake. Wellbeing: One to one sessions and a compact disc with relaxation exercises for home
Hospital based combined with unsupervised exercise sessions at home
4 weeks prior to surgery. Exercise: 30 min 5 × week
Nutrition: Information not provided
Wellbeing: 2–3 × week
Exercise: Individualised based upon initial assessments
Nutrition: Individualised dietary advice
Wellbeing: Tailored according to a patients needs
Patients
classified with moderate or high nutrition risk (according to the PG-SGA) exhibited significantly lower physical performance at baseline, including functional capacity, timed get up and go, grip strength and self-reported physical activity levels compared with low-nutrition-risk patients. High nutrition risk patients have the most to gain (functionally) from multimodal prehabilitation compared with low nutrition risk patients
Feasibility and outcomes of a real-world regional lung cancer prehabilitation programme in the UK
(Feasibility study)
[57]
• Exercise
• Nutrition
• Wellbeing
Based on the principles of NHS England’s Personalised Care model
Exercise: All patients triaged into ‘universal’ or ‘targeted’ pathways. For the universal pathway, patients could exercise independently with weekly monitoring with an exercise specialist. Exercise prescriptions included high-intensity interval training and resistance training
Nutrition and wellbeing: Assessed at baseline and at intervals throughout the programme. A three-tier risk assessment (low, medium and high) was used to identify those in need of nutritional or wellbeing support and each category received simple interventions or onward referral when required
Exercise specialists (level four cancer rehabilitation qualified exercise practitioners) were responsible for screening patients and delivering all components of the intervention
Patients initially contacted by telephone to organise a face-to-face appointment at a first assessment clinic. Baseline assessments took place face-to-face and an individualised programme was prescribed
Patients could complete their individualised programme at any one of the 87 local leisure centres
Exercise prescriptions for the targeted pathway included 3 supervised group gym sessions x
No information is provided on the length of the prehabilitation period. Baseline functional and QOL assessments were repeated immediately before the date of surgery
After treatment, a 12 week postoperative rehabilitation programme was provided
Individualised prehabilitation programme prescription for all tri modal components
Of the 377 patients referred, overall participation on an intention to treat basis was 47.7%. Median interval from assessment to surgery was 36 days. There were no adverse events. Statistically significant improvements in the Incremental Shuttle Walk Test (ISWT), 6MWT, 60 min sit to stand test (STS), Hand Grip Dynamometry (HGD), World Health Organisation Disability Assessment Scheduled (WHODAS), Self-Efficacy for Exercise (SEE), International Physical Activity Questionnaire (IPAQ), and the European Quality of Life
Five Dimensions (EQ-5D) scores
Feasibility of setting up a pre-operative optimisation ‘prehab’ service for lung cancer surgery in the UK
(Feasibility study)
[58]
• Exercise
Not based on a model or theory, but based on the hypothesis that respiratory function could be improved by optimising treatment for
comorbidities, potentially tipping the balance between a patient being deemed not fit enough for surgery and being considered a surgical candidate
The prehabilitation programme was based around the mainstays of COPD management: optimising inhaled therapy, smoking cessation and pulmonary rehabilitation (including progressive muscle resistance and aerobic training)
Oncology outpatient physiotherapy team, local community respiratory team or cardio-respiratory physiotherapy team depending on patient choice, need and availability
Information not provided
One-to-one or group sessions depending on patient choice, need and availability
Referral was made as early as possible. For the majority of patients, the duration was driven by the pragmatic constraints of the 62-day lung cancer pathway. The pragmatic approach around location, nature and duration of programme led to significant variation in the nature of individual patients programmes
Tailored according to patient choice, need and availability
Median number of sessions for 35 patients seen purely by the outpatient oncology physiotherapy team was three over a median of 22 days. Eight patients (16%) underwent inpatient prehabilitation, with a median duration of eight days. This variance was predominantly driven by the scheduled surgical date. 13 patients (26%) were unnecessary or inappropriate referrals
Improvement in surgical rates from 12.8% at the inception of the study to 29.8% at the end
A feasibility study of an unsupervised, pre-operative exercise program for adults with lung cancer (Feasibility study)
[59]
• Exercise
No model or theory base reported
Patients received a verbal and written exercise prescription from their surgeon:
“Do any moderately-intense aerobic physical activity (e.g., walking, jogging, stair climbing, upper body ergometer, stationary bicycle) for 30 min a day and for 5 days each week. While doing the activity, you should be working hard enough that it is difficult to speak more than a few words at a time. You may need to start slowly (e.g., 5–10 min at a time), but as you get stronger you can increase your activity so that you exercise for 30 min at a time.”
Surgeon and a project co-ordinator
Each patient was given a Garmin Vivoactive heart rate device. Patients were assigned an email address and password
which was used as a login for the Garmin Connect
Mobile App. The project coordinator downloaded the application onto patient phones and activated the fitness device during enrolment Patients were asked to synchronise and charge the device daily and wear the device at all other times including showering and sleeping
Patients recorded their aerobic exercise sessions within a paper-based log
Home based
Pre-operatively 30 min 5 × week
Patients were allowed to choose the type of activity that they found most feasible or enjoyable
81% recruitment rate with 79% completing the pre-operative assessments. Only
29% completed the exercise log and 14% experience adverse events related to the device
79% reported at least one aspect of the fitness device that they disliked and 29% reported at least one thing they did not understand regarding the device
Pre-radiotherapy daily exercise training in non-small cell lung cancer: A feasibility study
(Feasibility study)
[60]
• Exercise
No model or theory base reported
Structured exercise training immediately prior to radiotherapy. This consisted of three exercise phases. Phase one and three: interval training. Phase two: continuous cycling
An exercise physiologist or physiotherapist
Supervised, individualised exercise using an ergometer cycle. All patients wore heart rate monitors during the exercise sessions and were given Garmin® vívosmart® heart rate activity trackers to use during the course of radiotherapy
Next to the accelerator when a patient attended for radiotherapy treatment
The intervention period was equal to the patient’s number of radiotherapy sessions over a seven week period, with each session lasting 20 min
The exercise sessions were tailored to the patient’s fitness level
The intervention comprised of 31 prescribed exercise sessions over the seven-week period. Overall attendance rate to exercise was 90%. Of the 90% attendance, the adherence rate to full exercise participation was 88.1% and was performed by a modified program due to early exhaustion, pause during the exercise session or practical reasons (e.g. earlier start of radiotherapy on a given day)
2 patients were hospitalised due to chemotherapy adverse events. No adverse events were observed during the exercise sessions
Patients’ and healthcare professionals’ views on a pre-and post-operative rehabilitation programme (SOLACE) for lung cancer: A qualitative study (Qualitative study)
[61]
• Exercise
• Nutrition
• Wellbeing
Not based on a model or theory, but based on a previous pre and post-surgical intervention study in pulmonary rehabilitation which demonstrated a reduction in post-operative complications and hospital readmissions
No specific information provided. Services provided in the SOLACE programme include patient education / written information on recovery from lung cancer surgery, smoking cessation, nutritional advice, information on thoracic surgical pathways, psychological support, pain management, financial help, links to other NHS, Macmillan and external support agencies, pre-and post-operative rehabilitation exercise classes, local exercise referrals and rehabilitation DVDs
A Macmillan lung cancer survivorship
Advanced Nurse Practitioner (ANP) and a Macmillan lung cancer survivorship
Advanced Therapist Practitioner (ATP)
Through the provision of personalised support depending on a patient’s support requirements, Interventions informed by the Macmillan guidance
Hospital and/or community based
Information not provided
Provision of personalised support
Pre and post-operative rehabilitation services can help improve patients’ perceived physical and psychological health and build self-confidence in their ability to self-manage
There is a need to consider ways to enable prolonged access to rehabilitation services for lung cancer patients entering the follow-up stages of their care
Attitudes and perceptions to prehabilitation in lung cancer (Online cross-sectional survey)
[62]
• Exercise
No model or theory base reported
24 item survey sent to 198 fellows of the Royal
Australasian College of Cardiothoracic Surgeons
Information not provided
Via email, college newsletters, digital press and in printed format
Throughout Australia and New Zealand
Information not provided
Information not provided
 > 90% of cardio-thoracic surgeons surveyed would delay surgery for prehabilitation in order to optimise ‘high risk’ patients (those with multiple comorbidities, advanced age, positive smoking status / respiratory disease, and/or obesity) preoperatively, particularly in patients with borderline fitness for surgery. The main barriers to prehabilitation reported were patient
comorbidities and access to allied health professionals
Potential effectiveness of a surgeon-delivered exercise prescription and an activity tracker on pre-operative exercise adherence and aerobic capacity of lung cancer patients (Proof of concept study)
[63]
• Exercise
Not based on a model or theory, but based on the hypothesis that pre-operative exercise can improve functional outcomes for lung cancer patients, but barriers associated with cost, resources, and burden make it challenging to deliver pre-operative exercise programs
Patients received a verbal and written exercise prescription from their surgeon:
“Do any moderately-intense aerobic physical activity (e.g., walking, jogging, stair climbing, upper body ergometer, stationary bicycle) for 30 min a day and for 5 days each week. While doing the activity, you should be working hard enough that it is difficult to speak more than a few words at a time. You may need to start slowly (e.g., 5–10 min at a time), but as you get stronger you can increase your activity so that you exercise for 30 min at a time.”
Surgeon and a project co-ordinator
The project co-ordinator provided a written copy of the prescription on enrolment. Each patient was given a Garmin Vivoactive heart rate device. Patients were assigned an email address and password which was used as a login for the Garmin Connect
Mobile App. The project coordinator downloaded the application onto patient phones and activated the fitness device during enrolment. Patients were asked to synchronise and charge the device daily and wear the device at all other times including showering and sleeping
Home based
Pre-operatively 30 min 5 × week
Patients were allowed to choose the type of activity that they found most feasible or enjoyable
Proof of concept was achieved as nearly half of the study sample achieved the minimal clinically meaningful improvement in aerobic capacity prior to surgery as a result of participation in the intervention. However, approximately 50% did not achieve this and the majority of patients fell short of achieving the prescribed weekly MVPA goal. Future work should involve the use of a triage system to identify patients who can successfully adhere to the pre-operative exercise prescription with only “low-touch” support and those who could benefit from additional resources and high-touch forms of support
Prehabilitation in thoracic cancer surgery: From research to standard of care (Quality Improvement Project)
[64]
• Exercise
• Nutrition
• Wellbeing
No model or theory base reported
The prehabilitation program included 3 steps: (1) Screening, (2) Assessment and (3) Intervention. Screening identified high-risk patients with at least one functional, nutritional, or psychological impairment. Assessment quantified the severity of the impairment to help tailor the intervention. The intervention was tailored based on specific physical, nutritional, or psychological impairments identified during the assessment phase. High-risk patients with a mild impairment received a low-intensity prehabilitation program, whereas high-risk patients with severe impairments were given a high-intensity prehabilitation program
Exercise: Kinesiologist
Nutrition: Dietitian
Wellbeing: Nurse specialist with specific training in psycho-social support for patients with cancer
Exercise: Screening—6MWT and the Duke Activity Status Index (DASI). Assessment—CPET
Nutrition: Screening—Involuntary weight loss > 10% in 6 months and/or reduced dietary intake < 50% over the previous weeks and/or nutrition related symptoms (poor appetite, dysphagia, vomiting or and constipation over the last weeks) and/or low handgrip strength: < 20th percentile of normative value. Assessment: PG-SGA
Wellbeing: HADS questionnaire
Hospital based
Information not provided
All interventions were tailored to each individual
58 patients showed at least one or more physical, nutritional, or mental impairment and progressed onto the assessment phase of the program. 23 patients were categorised as low risk. 45 high-risk patients received a one-month personalised prehabilitation program. 16 of these received a trimodal program and 22 received a nutrition and exercise program
The median duration of prehabilitation was 30 days

Overview of the studies

The 31 studies included in this review comprised of fourteen randomised controlled trials [3436, 38, 4043, 4550], four feasibility studies [5760], three registered protocols [37, 39, 44], two cohort studies [51, 52], two prospective studies [53, 54], two retrospective studies [55, 56], one qualitative study [61], one cross sectional survey [62], one proof of concept study [63] and one quality improvement study [64].
The largest number of studies originated from Canada (n = 6). The origins of the other studies included France (n = 4), United Kingdom (n = 4), China (n = 3), Switzerland (n = 3), United States of America (n = 3), Australia (n = 2), Denmark (n = 2), Spain (n = 2), Ireland (n = 1) and Turkey (n = 1).
Sample sizes ranged from 15 to 377 lung cancer patients with a mean age range of 46 – 72 years of age.

How does the literature within the field of lung cancer describe the structure of prehabilitation?

All studies except one [50] included in this review featured an exercise component as part of a prehabilitation programme. Sixteen studies were uni-modal, focusing solely on exercise prehabilitation [38, 4042, 45, 4749, 52, 54, 5860, 62, 63]. Ten out of the 31 studies described multimodal prehabilitation interventions using a tri-modal approach, incorporating nutrition, exercise and psychological wellbeing [35, 36, 39, 43, 53, 5557, 61, 64]. Other studies incorporated an exercise and psychological component (n = 3) [34, 44, 46] or an exercise and nutrition component (n = 1) [37]. A single study focused solely on nutrition prehabilitation [50], but there were no uni-modal psychological wellbeing prehabilitation intervention studies. See Table 3.
All prehabilitation interventions varied in terms of programme setting, type of intervention, patient criteria, intervention delivery, duration of prehabilitation and measured outcomes. Nine out of the 31 studies provided a comprehensive description of all aspects of the prehabilitation programme [36, 40, 44, 45, 47, 52, 59, 60, 63]. In relation to programme setting, most interventions were delivered in a hospital setting (n = 9) [37, 4749, 51, 52, 58, 60, 64] or provided flexibility between a hospital setting and remote supervision (n = 9) [36, 39, 40, 44, 45, 54, 56, 61, 62]. Six of the 31 studies used remote supervision [35, 43, 55, 57, 59, 63]. In the remaining studies, the programme setting was unclear (n = 7) [34, 38, 41, 42, 46, 50, 53].

Exercise

All prehabilitation programmes that included an exercise intervention used a baseline physical fitness assessment to develop an individualised exercise prescription. The type of baseline physical fitness assessment used was variable throughout all of the studies, ranging from cardio-pulmonary exercise testing to more general elements such as muscle strength and activity questionnaires. More than 50% of the studies described the exercise intervention as a combination of both aerobic and resistance exercise to improve cardiorespiratory fitness and muscle strength. Other exercise interventions included High Intensity Interval Training (HIIT) and medical Qigong. Breathing exercises such as Respiratory Muscle Endurance Training (RMET) were also described under the term exercise, alongside aerobic exercise interventions.

Nutrition

Tailored dietetic advice was provided in all prehabilitation programmes which included a nutritional component (n = 12) [3537, 39, 43, 50, 53, 5557, 61, 64]. In eight studies, this was based on an individualised assessment, which was undertaken by a registered dietitian [3537, 39, 53, 55, 56, 64]. Only three studies [35, 55, 64] stated using validated tools such as the Patient Generated Subjective Global Assessment (PG-SGA). However, the use of nutritional screening tools to assess malnutrition risk was not frequently described. The majority of studies (n = 8) [3537, 39, 43, 53, 55, 56] focused on increasing dietary protein, often recommending the use of protein supplements. Two interventions focused on the use of a fish oil supplement [36, 50].

Psychological wellbeing

Only three studies described the validated tools that were used to establish baseline psychological wellbeing. These included the Hospital Anxiety and Depression Score (HADS) [53, 55] and the Short Form (SF) 36 questionnaire [47]. There was large variation in the description of the psychological interventions used. Some studies used the terms ‘support’ and ‘coping strategies’, whereas in other studies, more specific techniques such as relaxation, imagery, visualisation, cognitive behavioural therapy and motivational interviewing were described.

How does the literature within the field of lung cancer describe the personalisation of prehabilitation interventions?

A number of studies described tailoring the exercise, nutrition and/or psychological wellbeing prehabilitation intervention to an individual (n = 28), but there was large variation across all studies in how this was fully conceptualised and achieved. The personalisation of the prehabilitation intervention mostly referred to a starting point variation along a continuum, e.g. intensity of exercise in relation to baseline fitness. This was typically considered at a single point, usually at baseline and not reviewed.
Only two studies [44, 46] in this review reported using theory to underpin the design of this complex intervention. The two theories that were described were the theory of planned behaviour and social cognitive theory, respectively.

What are the actual outcomes for lung cancer patients participating in a prehabilitation programme?

Twenty-six out of the 31 studies included in this review focused on lung cancer surgery. The remaining studies included chemotherapy (n = 2) [38, 45], radiotherapy (n = 1) [60], neoadjuvant treatment (n = 1) [55] or had a specific focus on quality of life (n = 1) [46] for those with advanced lung cancer.
There was a wide variety of outcomes reported amongst all interventional studies. The majority of reported actual outcomes were positive. These included improvements in functional capacity (n = 16) [34, 4043, 45, 47, 49, 51, 53, 5558, 63, 64], high adherence to the intervention (n = 5) [36, 42, 57, 59, 60], improvements in psychological wellbeing (n = 3) [38, 53, 55], reductions in post-operative complications (n = 5) [40, 41, 50, 52, 53], improvements in muscle strength (n = 3) [38, 45, 47], no adverse events (n = 5) [34, 57, 58, 60, 64], qualitative outcomes including increased perceived physical and psychological health benefits (n = 2) [61, 62], reductions in length of hospital stay (n = 2) [41, 64] and improvements in quality of life (n = 1) [58]. Conversely, five studies reported no improvement in functional capacity [35, 36, 38, 46, 48]. Furthermore, some studies described no improvement in quality of life (n = 4) [36, 41, 45, 46], length of hospital stay (n = 5) [35, 43, 51, 52, 54], post-operative complications (n = 5) [43, 49, 51, 54, 64], survival (n = 3) [43, 46, 48] or psychological wellbeing (n = 2) [43, 45]. Only one study [59] reported an unintended outcome of their intervention which was related to an adverse reaction to the device used to monitor heart rate.
The intended outcomes described within the three protocol papers included in this review [37, 39, 44] are similar to the actual outcomes reported from the interventional studies as shown above. These include improvements in functional capacity (n = 2) [37, 44], improvements in quality of life (n = 2) [37, 44], reductions in hospital length of stay (n = 2) [39, 44], reductions in post-operative complications (n = 3) [37, 39, 44] and qualitative outcomes including self-efficacy (n = 1) [44]. All three randomised controlled trials for which protocols have been published [37, 39, 44] include health economics in their planned outcomes. These include treatment related costs as well as costs from a healthcare professional perspective. This will provide valuable information on the economic implication of the adoption of prehabilitation programmes for patients with lung cancer.
Specific to the oncological lung cancer treatment pathway, a multi-modal prehabilitation programme delivered remotely during neoadjuvant treatment led to a significant improvement in functional capacity and psychological wellbeing [55]. In comparison, a uni-modal exercise prehabilitation intervention for 110 lung cancer patients with advanced inoperable lung cancer undergoing chemotherapy showed no significant difference in functional capacity. However, there were significant improvements in strength and psychological wellbeing [38]. Nevertheless, these results should be interpreted with caution owing to high attrition, poor adherence and anticipated attenuation of decline amongst this cohort.

Discussion

To our knowledge, this is the first scoping review that aims to summarise the evidence on prehabilitation in the lung cancer pathway using a realist approach.
Our review provides a summary of several interventional studies and three ongoing randomised controlled trials for which protocols have been published.
The majority of studies in this review had a surgical focus and demonstrated that prehabilitation before lung cancer surgery is feasible and is associated with physiological and psychological benefits. Our findings reveal that there are only a few studies involving lung cancer patients undergoing oncological treatment, despite 70–80% of people with lung cancer receiving non-surgical treatment within the UK [65].
Our analysis of the contexts, mechanisms and outcomes for prehabilitation provide useful insights into the factors that need to be considered in the design and implementation of prehabilitation for patients with lung cancer.
Prehabilitation is a complex intervention. It is widely understood that the success of a complex intervention depends on the theory underpinning its design [19], which helps to explain the mechanisms underlying an individual’s behaviour, based on what works for them and their circumstances [22]. However, only two studies in this review described using theory to underpin the design of this complex intervention [44, 46]. Similarly, there are only two completed studies which used a qualitative approach [61, 62], with only one evaluating the acceptability of their interventions, despite this being an important consideration for complex interventions [61, 66]. Although the qualitative literature in this field sheds some light on some of the factors which might influence engagement with prehabilitation, it does not fully illustrate the complexity of delivering prehabilitation.
Using a realist lens, this review has identified the importance of a personalised approach to prehabilitation. Whilst the personalisation of the prehabilitation intervention was often stated by the studies reviewed, and generally viewed as a positive factor, how it was fully conceptualised and achieved was less clear. The personalisation of the intervention mostly referred to a starting point variation along a continuum, e.g. intensity of exercise in relation to baseline fitness. No studies considered personalisation to patient-led values, needs, goals, support structures and beliefs. This is a considerable gap, given that initiation and adherence to any intervention is determined by behavioural, psychological, physiological, environmental and social factors [2023], especially when research findings with well-intentioned patients need to be translated to clinical practice with the full range of real-world complexities and comorbidities [23].
Personalisation was mostly considered at a single point, typically at baseline. This is typical in pre-surgical prehabilitation, where it is a relatively brief and linear process from baseline to a defined, one-off target (surgery). However, prehabilitation during oncological treatment is a prolonged and undulating 'marathon', during which the patients other roles, values and needs have to be considered with learning and adaptation along the journey. An adaptable model and practice of ongoing, collaborative personalisation therefore needs to be explicitly defined and implemented. To address this, future research could utilise the Adversity, Restoration and Compatibility (ARC) framework [21] to help underpin a personalised and collaborative prehabilitation programme. The ARC framework provides a synthesised view of how people conceptualise the personal experience of living with and beyond cancer, namely as an ongoing process of learning about their evolving challenge (Adversity), learning how to cope effectively (Restoration) and adapting one's identity (Compatibility), in parallel. These broad themes, derived from qualitative synthesis of over 70 primary studies of patient narratives, are consistent with psychological adjustment theory [67] and may provide a structure for personalising prehabilitation that is patient-centred rather than a purely logistical or psychometric approach. This could be key to empower patients to maintain progress through the longer, more variable context of peri-oncological prehabilitation. This theory-led approach is further supported by Faithfull et al., 2019 [5] and The Medical Research Council (MRC) framework for developing and evaluating complex interventions [68] which suggests that future studies should use a conceptual framework to help guide intervention design and thereby maximise outcomes.
We acknowledge the limitations of this review. Firstly, we recognise that some studies may have been missed by database searching or were published after the search date. Secondly, the extrapolation of findings is limited owing to context dependency e.g. it may be difficult to extrapolate the results from a pre-surgical setting to those with a poor prognosis. Thirdly, only a few studies included in this scoping review provided a comprehensive description of all aspects of the prehabilitation programme, therefore the descriptions of the interventions are limited. To counterbalance this, a realist framework of context, mechanism and outcome has been used for reporting. Furthermore, our analysis of the mechanisms and outcomes for prehabilitation provide insight into the role of prehabilitation within the lung cancer pathway.
The coronavirus pandemic has accelerated the remote delivery of prehabilitation interventions. Completed studies suggest that home-based multimodal prehabilitation is feasible and leads to improvements in a range of outcomes [43, 55, 57, 59, 63]. However, there is limited qualitative data in this field to determine whether remote delivery of prehabilitation interventions is more or less favourable than face to face or a hybrid approach.
There is potential for digital interventions within this field. Two completed studies in this review used an app for the delivery of their prehabilitation interventions [59, 63], with one study demonstrating high recruitment and attrition rates [59] and the other showing a minimally clinically meaningful improvement in aerobic capacity prior to surgery as a result of participation in the intervention [63]. However, it is important to note that in the latter study, approximately 50% did not achieve an improvement in aerobic capacity with the majority of patients falling short of achieving the prescribed weekly exercise target. Technology access, skillset and confidence strongly need to be considered prior to implementation of delivery of prehabilitation interventions [69]. Furthermore, the cost-effectiveness of a technology supported multimodal prehabilitation programme needs to be evaluated. The study by Barberan-Garcia et al. [39] aims to address this, as detailed in their published study protocol.
Whilst there will be emerging evidence from ongoing randomised controlled trials, the heterogeneity in study designs, programme setting, type of intervention, patient criteria, intervention delivery, duration of prehabilitation and measured outcomes is significant. There are no trials which have the same set of primary and secondary outcomes. The lack of standardisation across interventions and outcome measures makes it difficult to conclude benefit across the whole lung cancer pathway. The inability to draw significant improvement benefit of prehabilitation due to the heterogeneity of studies has also been seen in systematic reviews in breast cancer [70], pancreatic cancer [71] and hepatobiliary cancers [72].

Conclusion

This scoping review demonstrates that there is evidence for providing prehabilitation for patients with lung cancer, particularly in the surgical domain. However, there is a lack of clinical trials which provide definitive evidence on the programme design, setting, type of intervention, patient criteria, delivery and duration. This therefore makes it difficult to conclude significant improvement benefit.
The design and implementation of future lung cancer prehabilitation programmes should take into account factors such as patient led values, needs, goals, support structures and beliefs which can affect the delivery and engagement of interventions. The findings of this review provide important insights into these issues.
Furthermore, future research should consider the use of a conceptual framework such as ARC [21] to conceptualise the living with and beyond cancer experience to help shape and inform personalised prehabilitation services. This will enable personalised care to be given from the outset and help support identification of the ideal prehabilitation model and delivery options to optimise both health and economic outcomes. This will enable patient empowerment and engagement towards self-managed behaviours and thus, optimise long-term health.

Acknowledgements

The authors would like to acknowledge and thank Health Education England for the funding and support provided to undertake this scoping review.

Declarations

Not applicable.
Not applicable.

Competing interests

The authors declare that they have no competing interests.
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Metadaten
Titel
Prehabilitation in the lung cancer pathway: a scoping review
verfasst von
Kelly Wade-Mcbane
Alex King
Catherine Urch
Julian Jeyasingh-Jacob
Andrew Milne
Clair Le Boutillier
Publikationsdatum
01.12.2023
Verlag
BioMed Central
Erschienen in
BMC Cancer / Ausgabe 1/2023
Elektronische ISSN: 1471-2407
DOI
https://doi.org/10.1186/s12885-023-11254-x

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BMC Cancer 1/2023 Zur Ausgabe

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Gerade bei aggressiven Malignomen wie dem duktalen Adenokarzinom des Pankreas könnte Früherkennung die Therapiechancen verbessern. Noch jedoch klafft hier eine Lücke. Ein Studienteam hat einen Weg gesucht, sie zu schließen.

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Ein hoher Anteil pflanzlicher Nahrung trägt möglicherweise dazu bei, das Progressionsrisiko von Männern mit Prostatakarzinomen zu senken. In einer US-Studie war das Risiko bei ausgeprägter pflanzlicher Ernährung in etwa halbiert.

Alter verschlechtert Prognose bei Endometriumkarzinom

11.05.2024 Endometriumkarzinom Nachrichten

Ein höheres Alter bei der Diagnose eines Endometriumkarzinoms ist mit aggressiveren Tumorcharakteristika assoziiert, scheint aber auch unabhängig von bekannten Risikofaktoren die Prognose der Erkrankung zu verschlimmern.

Darf man die Behandlung eines Neonazis ablehnen?

08.05.2024 Gesellschaft Nachrichten

In einer Leseranfrage in der Zeitschrift Journal of the American Academy of Dermatology möchte ein anonymer Dermatologe bzw. eine anonyme Dermatologin wissen, ob er oder sie einen Patienten behandeln muss, der eine rassistische Tätowierung trägt.

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