A systematic review of multi-modal prehabilitation in breast cancer

DOI: https://doi.org/10.21203/rs.3.rs-1976805/v1

Abstract

Purpose

Breast cancer is the most prevalent malignancy in women. Prehabilitation may offer improvements in physical and psychological wellbeing among participants prior to treatment. This systematic review aimed to determine efficacy of prehabilitation in participants diagnosed with breast cancer.

Methods

A systematic review was performed according to Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) Guidelines. Studies exploring the impact of prehabilitation in participants with breast cancer were included. Studies were assessed independently according to pre-eligibility criteria, with data extraction and methodological quality assessed in parallel.

Results

3184 records were identified according to search criteria, 14 articles were included. Articles comprised of quantitative randomised controlled trials (n=7), quantitative non-randomised studies (n=5), a qualitative study (n=1), and mixed method study (n=1). The majority of selected studies completed exercise programs (n=4) or had exercise components (n=2), with two focusing on upper-limb exercise. Two articles reported smoking cessation, with single studies reporting multi-modal prehabilitation (n=1), and complementary and alternative therapies (n=5). Mostly, prehabilitation improved outcomes including: physical function, quality of life, and psychosocial variables (P<0.05). The qualitative data identified preferences for multi-modal prehabilitation, compared to unimodal with interest in receiving support for longer.

Conclusions

Prehabilitation for patients with breast cancer is an emerging research area that appears to improve outcomes, however ensuring adequate intervention timeframes, follow-up and population groups should be considered for future investigations.

Implications for Cancer Survivors

The implementation of prehabilitation interventions for individuals diagnosed with breast cancer should be utilised by multidisciplinary teams to provide holistic care to patients as it has the potential to improve outcomes across the cancer care trajectory. 

Introduction

Cancer incidences and mortality rates continue to grow across the world [1]. Evidence identifies that 2.1 million new breast cancer (BC) diagnoses are made annually accounting for one in four cancers among females. Breast cancer is the most commonly diagnosed cancer in females and the leading cause of death [1] globally. The highest BC incidence rates include Australia with a 5-year relative survival rate (2013–2017) of 92%. In 2021 it was estimated that 20,030 new cases of BC will be diagnosed in Australia [2]. Due to improved survival rates over the past two decades (1988–1992 and 2013–2017 improved 76–92% [2], respectively) many individuals diagnosed with BC are now living with the long term effects of the diagnosis including debilitating treatment effects with a number of unmet supportive care needs [3, 4].

Compared to individuals without cancer, BC survivors are at an increased risk of developing anxiety and depression, fear of recurrence, sexual dysfunction, and relationship issues [5, 6]. It has also been reported that the transition from being a BC patient to a survivor can be associated with increased physical and psychological challenges associated with unmet needs [5]. Programs to support the complex needs of individuals with BC are currently ad hoc and urgently need evaluation and optimisation to support this ever-growing population from diagnosis through to survivorship [4]. Supportive care considers and addresses the physical, emotional, social, spiritual, and informational needs of people diagnosed with cancer throughout the disease trajectory [7]. The delivery of supportive care for people diagnosed with BC continues to be suboptimal [8]. People and their families are required to seek out multiple interventions which focus on improving quality of life (QOL) and rehabilitation which has significant financial impact [912] .

Strong evidence suggests that lack of physical activity (PA) is associated with an increased risk of BC and poorer outcomes for those diagnosed [1315]. Physical inactivity and unhealthy behaviours contribute to the disease burden for individuals with BC and the Australian Burden of Disease study indicated that physical inactivity contributed 6.4% of the burden [16, 17]. There is an inverse relationship between PA (a modifiable risk factor for BC) and all-cause mortality, BC related death and BC events [18]. Appropriate PA interventions may be important for people diagnosed with BC and their families to reduce mortality and BC recurrence [19]. The Clinical Oncology Society of Australia’s (COSA) position statement recommends that people going through cancer treatment participate in 150 minutes of moderate intensity PA, or 75 minutes of vigorous activity per week, along with two resistance-based sessions per week [20], which is the same recommendation published by the World Health Organisation (WHO) for healthy individuals [21]. COSA also recommends that optimal care is achieved by matching services and resources to the individual persons requirements, which are then easily accessible and integrated with the muti-disciplinary team (MDT) [22]. Even though PA guidelines and recommendations exist for participants with BC they do not address the complexities of their overall supportive care needs including prior to surgery in the prehabilitation period. Prehabilitation is acknowledged to be the pre-surgical period where effective programs could be used to optimise the physical and emotional status of the patient before the stress of their operation, and could be key to addressing participant’s individual needs [23].

The model of survivorship care published by COSA in 2016 [24] suggested that to achieve optimal care, services and resources need to be carefully matched to the specific persons needs and concerns, and it needs to be accessible to the person and integrated across the MDT [24]. Currently gaps remain and this level of care is not accessible to many individuals with BC across models of care and in current survivorship pathways [2527]. Medical follow-up often overlooks a person’s psychosocial issues and important referral needs, leading to sub-optimal supportive care [28, 29]. This will then be further impacted by the lack of guidance for the person as their needs have not been highlighted and addressed. Prehabilitation could be used as a time to address the needs of individuals with BC by using the most appropriate tools to identify necessary multimodal referral pathways [3032]. The prehabilitation phase of treatment could be utilised to identify patient concerns, establish referral pathways, and set review timeframes to ensure a smooth cancer treatment journey [24].

Multimodal interventions which include MDT care are inconsistent and underutilised for individuals with BC [3]. The inclusion of multimodal, MDT programs recognises the need for supportive care programs which includes a holistic approach to peoples wellness across their personal BC recovery [33]. Therefore, the aim of this systematic review was to determine what supportive care prehabilitation programs exist to assist those diagnosed with BC and what outcomes were reported.

Methods

This systematic review has been reported in accordance with the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines [34] and was registered in PROSPERO International Register of Systematic Reviews (CRD42021259463), available from https://www.crd.york.ac.uk/prospero/display_record.php?RecordID=259463.

Literature search

An electronic database search using combinations of MeSH and free-text words for “breast cancer “ and “prehabilitation” were undertaken by an experienced health information specialist (MT) using the following databases: CINAHL and Medline on EBSCOhost platform, Cochran Library (DSR and CENTRAL), Scopus and Web of Science Core Collection and were conducted on 1 July, 2021 and updated on the 21 March, 2022. The Participant, Intervention, Comparator, and Outcome (PICO) framework [35] was used to define the inclusion criteria.

Participants

Participants were included if they were > 18 years, had a diagnosis of primary BC and participated in a prehabilitation program of any kind prior to treatment.

Intervention: Clinical trials, cohort studies (retrospective and prospective) and case control studies that explored prehabilitation programs for participants with BC prior to invasive surgery. Studies developing, validating, updating, evaluating, or comparing prediction models of BC were eligible. Only studies published in English were included. The following articles were excluded: Review articles and studies published in languages other than English, protocols, conference abstracts and clinical trial registrations were also excluded. Eligible studies were characterised into subgroups based on the type of prehabilitation program.

Comparators

Studies that compared prehabilitation to usual care or no prehabilitation or another intervention were included.

Outcomes

Studies that evaluated the feasability and/or the effectiveness of the prehabilitation intervention(s) on health related outcomes (e.g. quality of life, physical outcomes) were eligible.

Data extraction and management

Search results that were identified during the electronic database search were transferred to Covidence, a systematic review software (Version 2579, Melbourne, Australia) and duplicate titles removed. Title and abstracts were double screened by five authors, and conflicts were by discussion. Articles then considered potentially eligible were moved to the full-text screening. Full-text articles were independently assessed by a minium of two reviewers. All authors extracted the following outcomes compared to baseline from each study into table format; population, outcomes, physical function assessments, clinical assessments, patient reported outcome measurement and findings. All data extraction was quality checked by a second reviewer.

Assessment of study quality

Methodological quality assessment of the included studies was completed using the Mixed Methods Appraisal Tool (MMAT 2018) [36]. The quality assessment was carried out by all authors during the data extraction phase, and a second author then quality checked assessments on all articles, discussing any disagreements.

Results

Study selection

The literature search of electronic databases and registers (Figure 1) identified 3184, with secondary searches of the retained full-text articles reference lists revealing no futher articles. Following the removal of duplicates (n = 651) and irrelevant studies based on the application of the pre-screening eligibilty criteria, 36 full-text articles were assessed. One full-text was not able to be retrieved. A total of 22 articles were excluded with reasons and 14 articles met the inclusion criteria [37-50]. Of note, two publications (Thomsen et al. [46] and Thomsen et al. [47]) reported different data from the same study. The articles comprised of quantitative randomised controlled trials (n = 7) [39-41,44,45,47,50,48], quantitative non-randomised studies (n = 5) [37,42,43,48,49], a qualitative study (n = 1) [46] and a mixed method study (n = 1) [38]. 

Study characteristics

The characteristics of the included studies are described in Table 1. A total of 1,568 participants (quantitative participants n = 1,529; qualitative participants n = 11; mixed methods participants n = 28) were included. Noteworthy, there was only one male participant included across all studies, and it was unclear whether this participant completed the intervention or was lost to follow-up. The included participants were heterogeneous in clinical characteristics including cancer stage, type of BC, and type of treatment, which included surgery and surgery type, chemotherapy, radiotherapy, and hormonal therapy, which deemed the completion of a meta-analysis inappropriate. For the quantitative studies, the samples ranged from 41-400, with an average age range 42–63 years. The sample size for the qualitative study was 11 and the age range was 40-72 years, with the mixed methods study included 28 participants, with a mean age of 54 ± 10.98. The included studies were carried out in United States of America [37,40,41,43], Canada [38], Sweden [39], Japan [42,44,45], Denmark [46,47], China [48], United Kingdom [49], and Romania [50].

Table 1: Overview of included studies

Author/Year

Purpose

Sample size/mean age (SD, years), gender

Participants (Cancer type, cancer stage, treatment)

Response Rate (reasons for declining); attrition/ adherence

Design

Time Points

Data Collection Tools

Baima et al. 2017

 

USA [37]

Explore the feasibility of an independent home shoulder exercise program to improve ipsilateral shoulder pain and abduction ROM after BC surgery.

Sample size

n =60 (Group 1: n=36; Group 2: n=24).

 

Age: 

35-81 years (median not reported).

 

Gender:

Female: n=59

Male: n=1.

Type:

Not reported.

 

Stage

Not reported.

 

Treatment: 

Surgery (not specified).

Response rate:

n=64 recruited, n=60 consented; n=45 completed study (accessibility of study staff at follow-up appointments, delayed surgical treatment due to prolonged CT, disease worsening).

 

Attrition/adherence: 

76% chose to exercise; n=29 (85%) performed exercises 3≥ per week.

Prospective, cohort observational study.

T1: 1-4 weeks prior to surgery.

T2: 3 months post-surgery.

Subjective data collection:

Pain scale (0-10).

 

Objective data collection:

ROM (0 to 180°); chart documentation of postoperative seroma formation.

Brahmbhatt et al. 2020

 

Canada [38]

Determine the feasibility and acceptability of an individualised, home-based prehabilitation intervention prior to BC surgery.

Sample size:

n=28.

 

Age:

Mean age 54 ± 10.98 years.

 

Gender:

Female: n=28.

Type: 

Not reported.

 

Stage: Not reported.

 

Treatments: 

Unilateral lumpectomy with SLNB: n=12 (54.55%);

Unilateral mastectomy with SLNB: n=2 (9.09%); 

Unilateral mastectomy with ALND: n=1 (4.55%);

Bilateral mastectomy with SLNB: n=4 (18.18%); 

Bilateral mastectomy with SLNB and insertion of tissue expanders: n=1 (4.55%),

Bilateral mastectomy with immediate autologous reconstruction: n=1 (4.55%).

Response rate:

n=45 approached, n=28 consented (62%)

• n=28 consented (travel/ distance (n=3), extremely anxious (n=2), travelling (n=1), already active (n=1), not interested (n=5), no reason provided (n=5)

• n=22 completed baseline: could not contact (n=4), withdrew consent (n=1), change in treatment plan (n=1))

• n=18 completed T1 (lost to follow-up (n=2), travelling (n=1), not interested (n=1))

• n=15 completed T2: lost to follow-up (n=2), family commitments (n=1)

• n=14 completed T3: illness (n=1)

 

Attrition/adherence:

Overall attrition rate was 36%

17 participants submitted exercise logs

Adherence to: minimum aerobic exercise prescription: 142.22 ± 82.66%; minimum resistance training prescription: 114.44 ± 38.26%; n=13 (76%) participants completed >70% prescribed exercise; n=2 participants completed <70% prescribed exercise in some sessions; n=2 participants completed <70% of prescribed exercise.

Prospective, single-arm, feasibility study with an emergent, embedded mixed-methods design.

Baseline: lasted 30 ± 16.59 days.

T1: 1 week prior to surgery.

T2: 6 weeks post-surgery.

T3: 12 weeks post-surgery.

Subjective data collection

Quantitative: DASH; FACT-F; SF-36, GLTEQ-LSI, WHODAS 2.0, BPI.

Qualitative: Semi-structured interviews with open ended questions.

 

Objective data collection:

6MWT; upper-extremity strength (handgrip dynamometry); manual muscle testing (digital handheld dynamometer); WC; BMI; lean body mass; BF%; fat mass; clinical disease related data.

Heiman et al. 2021

 

Sweden [39]

Evaluate whether an intervention consisting of recommended physical activity before and after surgery improved physical recovery at 4 weeks after BC surgery.

Sample size: 

n=400 (I: n=200; C: n=200).

 

Age:

I: 30-84 years; median age 61 (IQR 52-68) years

C: 38-89 years; median age 63 (IQR 54-71) years.

 

Gender:

Female n=400.

Type:

Not reported.

 

Stage:

Not reported.

 

Treatments:

Breast-conserving surgery: I: n=147; C: n=154; 

Bilateral surgery: I: n=3; C: n=7

Mastectomy: I: n=36; C: n=43; Bilateral surgery: I: n=6; C: n=4; Direct reconstruction: I: n=2; C: n=4

Missing: I: n=17; C: n=3.

Response rate:

n=997 approached (n=288 met exclusion criteria, n=309 declined to participate), n=400 consented, n=370 completed primary endpoint, n=368 analysed (I: n=179, C: n=189)

Withdrew consent at preop phase: I: n=17, C: n=3

Withdrew consent at postop phase: I: n=3, C: n=7

Withdrew consent at analysis phase: I: n=1, C: n=1.

 

Attrition/adherence: 

n=318 (85.9%) (I: n=149 (82.8%), C: n=169 (88.9%)) returned baseline and 4-week questionnaires

n=151 (83.9%) intervention group returned physical activity diary.

Randomised, controlled, multicentre open label trial.

Baseline: preoperative

T1: 4 weeks postoperative.

T2: 12 months post-operative.

Subjective data collection:

SGPALS (AUDIT-C).

 

Objective data collection:

ASA physical status grade, use of drainage, antibiotic and thromboembolic prophylaxis, duration of hospital stay, complications, reoperations, and readmissions were retrieved from medical records.

Knoerl et al. 2022

 

USA [40]

Explore the impact of exercise and mind-body prehabilitation interventions on changes in quality of life and cancer treatment–related symptoms in women with newly diagnosed BC.

Sample size:

n=49 (Exercise: n=27; Mind-Body: n=22).

 

Age:

Exercise: 53.3 ± 9.6. years

Mind-Body: 53.4 ± 8.0 years.

 

Gender:

Female n=49.

Type:

Not reported.

 

Stage:

Stage 1: Exercise: n=10; Mind-Body: n=9

Stage 2: Exercise: n=9; Mind-Body: n=9

Stage 3: Exercise: n=6; Mind-Body: n=1

Unknown: Exercise: n=1; Mind-Body: n=1.

 

Treatments:

Planning to undergo BC surgery

Response rate:

n=49 consented, n=47 completed T1, n=46 completed T2, n=35 completed T3.

 

Attrition/adherence:

Participants in Exercise group increased physical activity by 203 minutes per week, participants in Mind-Body group completed 23 minutes.

n=14 (66.7%) participants in Mind-body group returned diary; engaged with the intervention on 69% of pre-surgery days. 

Randomised controlled trial.

T1: at enrolment.

T2: post.

intervention/ immediately prior to surgery.

T3: one-month post-surgery.

Subjective data

EORTC QLQ C-30; HADS; PSS.

 

Objective data

7-Day PAR.

Larson et al.

2000

 

USA [41]

Evaluate the feasibility and potential immunological benefit of a presurgical psychosocial intervention for BC patients.

Sample size:

n=41 (I: n=23; C: n=18).

 

Age:

29-80 years; mean 56 ± 13 years.

 

Gender:

Female: n=41.

Type:

Not reported.

 

Stage:

Reported by n=28 (68%) of participants:

Stage 1: n=17 (60.7%) 

Stage 2: n=8 (28.6%)

Stage 3: n=2 (7.1%)

Stage 4: n=1 (3.6%).

 

Treatments:

All were awaiting either surgery, or surgery plus RT or CT

Response rate:

n=41 consented, n=2 participants dropped out of control after T1.

 

Attrition/adherence:

Not reported.

Randomised controlled trial.

T1: within one week of diagnosis and prior to the intervention.

T2: following the intervention but within 1-3 days.

prior to surgery

T3: 1-week post-surgery.

Subjective data:

CES-D, DES-IV, IES, LOT, SF-36.

 

Objective data:

NK cell activity and IFN-γ production.

Sato et al.

2014

 

Japan [42]

Investigate the effectiveness of a perioperative education program for improving upper arm dysfunction in patients with BC.

Sample size:

n=162 (I: n=96, C: n=66).

 

Age:

ALND:

I: 52.9 ± 10.1 years.

C: 52.1 ±12.9 years.

 

SLNB:

I: 54.3 ±10.6 years.

C: 53.7 ± 9.5 years.

 

Gender:

Not specified.

Type:

Not reported.

 

Stage:

ALND

Stage 0: I: n=0, C: n=6.7%

Stage 1: I: n=7.7%, C: n=20%

Stage 2: I: n=43.6%, C: n=50%

Stage 3: I: n=41%, C: n=23.3%

Stage 4: I: n=7.7%, C: n=0

SLNB:

Stage 0: I: n=25.5%, C: n=44.8%

Stage 1: I: n=54.9%, C: n=48.3%

Stage 2: I: n=17.6%, C: n=6.9%

Stage 3: I: n=2%, C: n=0

Stage 4: I: n=0, C: n=0.

 

Treatments:

Total Mastectomy: 

ALND: I: n=56.4%, C: n=36.7%; SLNB: I: n=21.6%, C: n=24.1%

Partial Mastectomy:

ALND: I: n=43.6%, C: n=63.3%; SLNB: I: n=78.4%, C: n=75.9%

 

Adjuvant CT: ALND: I: n=79.5%, C: n=86.7%; SLNB: I: n=11.8%, C: n=24.1%

Adjuvant RT: ALND: I: n=69.2%, C: n=83.3%; SLNB: I: n=58.8%, C: n=51.7%

Adjuvant hormone therapy: ALND: I: n=82.1%, C: n=63.3%; SLNB: I: n=80.4%, C: n=75.9%.

Response rate:

n=162 enrolled, n=49. analysed:

ALND: I: n=39, C: n=30

SLNB: I: n=51, C: n=29

 

T1:

• I: n=3 dropped out (n=2 lost to follow-up, n=1 changed hospital)

• C: n=5 dropped out (n=2 lost to follow-up, n=2 changed hospital, n=1 lost interest)

T2:

• I: n=3 dropped out (n=1 lost to follow-up, n=1 lost interest, n=1 lack of time)

• C: n=2 dropped out (n=1 lost to follow-up, n=1 lack of time)

 

Attrition/adherence:

Not reported.

Controlled trial (allocated according to participant wishes).

Baseline: pre-surgery.

T1: 1-week post-surgery.

T2: 1-month post-surgery.

T3: 3 months post-surgery.

Subjective data:

SPOFIA; DASH.

 

Objective data:

Arm girth; shoulder ROM; Grip strength (dynamometer).

Springer et al. 2010 

 

USA [43]

Determine the extent and time course of upper limb dysfunction in subjects seen pre-operatively and followed prospectively using a novel physical therapy surveillance model post-BC and treatment.

Sample size: 

n=94.

 

Age:

Mean age 53.39 ± 11.8.

 

Gender:

Female: n=94.

Type:

DCIS: n=11 (11.70%)

IDC: n=44 (46.81%)

DCIS and IDC: n=31 (32.98%)

Other: n=8 (6.51%).

 

Stage:

Stage 0: n=11

Stage 1: n=40

Stage 2: n=30

Stage 3: n=13.

 

Treatments:

BCT: n=41 (43.62%)

MRM: n=50 (53.19%)

Simple mastectomy: n=3 (3.19%)

ALND: n=66 (70.21%)

SLNB: n=20 (21.28%).

 

CT: n=57 (60.64%)

RT: n=64 (68.9%)

Hormone therapy: n=67 (71.28%),

Response rate:

n=200 enrolled, n=94 (47%) included in analysis.

 

Attrition/adherence:

Not reported.

Prospective observational cohort study.

T1: pre-surgery.

T2: 1-month post-surgery.

T3: 3-6 months post-surgery.

T4: 12-months post-surgery.

Subjective data: 

ULDQ.

 

Objective data: 

Shoulder ROM and strength; upper limb volume and girth.

Tamaki et al. 2017

 

Japan [44]

Compare the effects of aromatherapy on mood, quality of life, and physical symptoms in patients with BC.

Sample size:

n=162 (I: n=110; C: n=52).

 

Age:

I: 52 ± 11.3 years

C: 55 ± 13.5 years.

 

Gender:

Not specified.

Type:

DCIS: I: n=10, C: n=12

IDC: I: n=78, C: n=82

ILC: I: n=10, C: n=0

Others: I: n=2, C: n=6.

 

Stage:

Stage 0: I: n=10%, C: n=12%

Stage 1: I: n=50%, C: n=47%

Stage 2: I: n=35%, C: n=37%

Stage 3: I: n=5%, C: n=4%.

 

Treatments:

Mastectomy: I: n=32%, C: n=39%.

Response rate:

n=249 approached, n=162 consented.

 

Attrition/adherence:

I: n=8 did not complete questionnaires, C: n=1 did not complete questionnaires.

Pilot randomised controlled trial (2:1 randomisation).

Baseline: at time of hospitalisation.

T1: day of surgery.

T2: one day post-surgery.

Subjective data: 

EORTC QLQ-C30.

 

Objective data: 

Hypnotics, vital signs: blood pressure, heart rate, adverse events.

Tanaka et al. 2021

 

Japan [45]

Assess the effects of Yokukansan on BC patients undergoing a practical or total mastectomy breast surgery.

Sample size:

n=100 (I: n=50, C: n=50).

 

Age:

I: 49 ± 6.2 years

C: 48 ± 5.7 years.

 

Gender:

Female: n=91.

Type:

Not reported.

 

Stage:

Not reported.

 

Treatments:

Partial resection: I: n=22, C: n=21

Total mastectomy: I: n=21, C: n=27.

Response rate:

n=100 consented, n=77 analysed (I: n=35, C: n=42)

T1:

• I: n=3 excluded (n=1 protocol violation, n=2 refusal of study participation)

T2:

• I: n=7 excluded (n=7 positive sentinel lymph node)

• C: n=6 excluded (n=5 positive sentinel lymph node, n=1 inhaled steroid for treatment of bronchospasm

T3:

• I: n=5 excluded (n=5 incomplete answers to questionnaires)

• C: n=2 excluded (n=2 incomplete answers to questionnaires)

 

Attrition/adherence:

Not reported.

Single-blind randomised controlled trial.

T1: One day pre-surgery.

T2: immediately prior to surgery.

T3: one day post-surgery.

Subjective data

VAS; HADS; STAI; QoR-15.

 

Objective data

sAA.

Thomsen et al. 2009 

 

Denmark [46]

Explore how women smokers with newly diagnosed BC experienced brief preoperative smoking cessation intervention in relation to BC surgery.

Sample size:

n=11.

 

Age:

Median age = 50 (range 40 – 72).

 

Gender: 

Female: n=11.

Type:

Not reported.

 

Stage

Not reported.

 

Treatments: 

Unresolved at time of interview: n=2.

Radiation therapy: n=3.

Endocrine therapy: n=1

CT: n=1

RT + CT: n=1

RT + CT + endocrine therapy: n=3.

Response rate:

Not reported.

 

Attrition/adherence:

Not reported.

Qualitative, descriptive study.

T1: 3-8 weeks after surgery.

Subjective data collection:

Semi-structured interviews, initiated with: ‘‘Please tell me how you experienced being counselled to stop smoking before your BC surgery.’’

Thomsen et al. 2010

 

Denmark [47]

Examine if a brief smoking cessation intervention encouraging patients to stop smoking from two days before to ten days after BC surgery would reduce the frequency of postoperative clinical complications requiring treatment.

Sample size: 

n=130 (I: n=65, C: n=65).

 

Age: 

I: 57.5 (35-79) years

C: 56.5 (36-82) years.

 

Gender:

Female: n=130.

Type:

Not reported.

 

Stage:

Not reported.

 

Treatments:

BCS without axillary resection: I: n=27 (47%), C: 32 (52%)

BCS with axillary dissection: I: n=14 (24%), C: n=10 (16%)

Mastectomy without axillary dissection: I: n=7 (12%), C: n=11 (18%)

Mastectomy with axillary: I: n=9 (15%), C: n=9 (14%)

Axillary dissection not complete: I: n=1 (2%), C: n=0.

Response rate:

n=347 approached (n=217 excluded), n= 130 consented, n=113 analysed (I: n=55, C: n=58)

Allocation:

• I: n=7 excluded (n=6 withdrew prior to receiving intervention, n=1 incorrect inclusion)

• C: n=3 excluded (n=3 withdrew)

Follow up:

• I: n=3 lost to follow-up (n=3 withdrew)

• C: n= 4 lost to follow-up (n= 3 withdrew, n=1 death)

 

Attrition/adherence:

Not reported

Single-blind randomised controlled multicentre trial.

Baseline: at inclusion

T1: 2-10 days prior to surgery.

T2: 10 days post-surgery.

T3: 30 days post-surgery.

T4: 3 months post-surgery.

T5: 6 months post-surgery.

T6: 12 months post-surgery.

Subjective data:

Smoking cessation.

 

Objective data:

Postoperative complications, length of hospital stay, requirement of secondary surgery, hospital readmission due to complication of primary surgery; exhaled carbon monoxide.

Tian et al. 2020

 

China [48]

Determine the influence of comprehensive nursing on the prognosis of BC patients, aiming to provide a better theoretical reference for future clinical nursing interventions with BC patients.

Sample size: 

n=168 (I: n=98, C: n=70).

 

Age: 

I: 42.3 ± 6.6 years

C: 43.2 ± 7.5 years.

 

Gender: 

Not specified.

Type:

Not reported.

 

Stage:

Stage I-II: I: n=78 (79.59%), C: n=51 (72.86%)

Stage III-IV: I: n=20 (20.41%), C: n=19 (27.14%).

 

Treatments: 

Not reported.

Response rate:

n=168 consented.

 

Attrition/adherence:

Not reported.

Controlled trial.

T1: before treatment.

T2: after treatment.

Subjective data:

MMSE; QOL; SAS; SDS; VAS; therapeutic effects; adverse reactions; nursing satisfaction.

 

Objective data:

RECIST.

Wu et al. 2021

 

UK [49]

Assess the feasibility of multimodal prehabilitation as part of the BC treatment pathway.

Sample size: 

n =61.

 

Age:

Median age = 63 (range 30 – 86) years.

 

Gender:

Female: n=61.

Type:

Not reported.

 

Stage

Not reported.

 

Treatments: 

Surgery (not specified).

Response rate:

n=75 approached, n=61 (81.3%) consented, n=27 completed study, n=24 (32%) completed all results, n=20 nonparticipating patients consented to C

Reasons for nonparticipation: surgery within 2 weeks (n=14), full time commitments (n=12), transportation difficulties (n=8).

 

Attrition/adherence:

n=12 attended 1-3 session, n=12 attended ≥4 sessions

Prospective, cohort observational study.

Baseline: pre-operative.

T1: 6 weeks post-surgery.

Subjective data collection:

SF-12, HADS, SPADI.

 

Objective data collection:

Usage of healthcare resources (length of stay and complications).

Zgâia et al. 2016

 

Romania [50]

Investigate the effects of pre-operative relaxing technique and psychological counselling on the post-operative intensity of acute pain, analgesic consumption and psychological symptoms, for patients scheduled for MRM for BC.

Sample size: 

n=102 (I: n=58, C: n=44).

 

Age: 

I: 52.25 ± 12.23 years

C: 59.04 ± 10.75 years.

 

Gender: 

Not specified.

Type:

Not reported.

 

Stage: 

Not reported.

 

Treatments:

MRM: n=102.

Response rate:

n=115 approached (n=13 excluded; n=7 refused to participate, n=4 met exclusion criteria, n=2 had surgery postponed), 102 consented

Assigned: I: n=58, C: n=44.

 

Attrition/adherence:

n=6 in I refused intervention and were assigned to C.

Prospective, randomised, open-labelled, controlled trial (allocation ratio 1:1).

Post-operative pain: 

T1: 0 hours post-surgery.

T2: 2 hours post-surgery.

T3: 8 hours post-surgery.

T4: 12 hours post-surgery.

T5: 24 hours post-surgery.

T6: every 6 hours on the first day post-surgery.

 

Post-operative psychological symptoms: 

T1: every 6 hours in the 48 hours post-surgery.

Subjective data:

Pain intensity and intensity of psychological symptoms using NRS.

 

Objective data: 

Height, weight, BMI, consumption of analgesic drugs.

Abbreviations: ALND (axillary lymph node dissection), ASA (American Society of Anaesthesiologists), AUDIT-C (Alcohol Use Disorders Identification Test), BCS (breast conserving surgery), BCT (breast conservation therapy), BF% (body fat percentage), BMI (body mass index), BPI (Brief Pain Inventory), C (control group), CES-D (Center for Epidemiological Studies Depression Scale), CT (chemotherapy), DASH (Disabilities of the Arm, Shoulder and Hand Questionnaire), DCIS (ductal carcinoma in situ), DES-IV (Differential Emotions Scale-IV), EORTC QLQ-C30 (European Organization for Research and Treatment of Cancer Quality of Life Core Questionnaire-30), FACT-F (Functional Assessment of Cancer Therapy - Fatigue Questionnaire), GLTEQ-LSI (Godin-Shephard Leisure Time Exercise Questionnaire – Leisure Score Index), HADS (Hospital Anxiety and Depression Scale), I (intervention group), IDC (invasive ductal carcinoma), IES (Impact of Event Scale), IFN-γ (interferon gamma), ILC (invasive lobular carcinoma), IQR (interquartile range), LOT (Life Orientation Test), MMSE (Mini-Mental State Examination), MRM (modified radical mastectomy), NK (natural killer), NRS (numerical rating scale), PSS (Perceived Stress Scale), QOL (quality of life), QoR-15 (quality of recovery), RECIST (Response Evaluation Criteria in Solid Tumours), ROM (range of motion), RT (radiotherapy), sAA (salivary alpha amylase), SAS (Self-Rating Anxiety Scale), SDS (Self-Rating Depression Scale), SF-12 (12-Item Short Form Health Survey), SF-36 (36-Item Short Form Health Survey), SGPALS (Saltin-Grimby Physical Activity Scale), SLNB (sentinel lymph node biopsy), SPADI (Shoulder Pain and Disability Index), SPOFIA (Subjective Perception of Post-Operative Functional Impairment of the Arm), STAI (State-Trait Anxiety Inventory), ULDQ (Upper Limb Disability Questionnaire), VAS (Visual Analogue Scale), WC (waist circumference), WHODAS (36-Item World Health Organization Disability Assessment Schedule 2.0), 6MWT (6-minute walk test); 7-Day PAR (7-Day Physical Activity Recall).

Quality appraisal results

The results of the quality appraisal of the articles are presented in Table 2, where all studies reported a generally low risk of bias. All studies reported a low risk of bias for the first two domains, which describe the outcomes of the studies addressing the research questions. Both the qualitative [46] and mixed methods [38] studies reported a low risk of bias across all domains. For the quantitative studies, all groups were found to be comparable at baseline, and the reported outcome data was complete. An unclear bias risk was observed for some RCTs for outcome assessors being blinded to the intervention provided [40,41,44], and for participants adhering to the assigned interventions [45,47], where this information was not described within the articles. Further, unclear bias was reported for all non-randomised quantitative studies [37,42,43,48,49] due to no discussion of accounting of confounders in the study design. A high bias risk was reported for a single study [39], as they stated that the study was not blinded to assessors, and the participants did not adhere to the intervention. Finally, while it is not defined as a quality criteria, it should be noted that one randomised study did not include a control group, but rather an additional intervention which acted as the comparator [40].

Table 2: Results of Quality Assessment

1. Qualitative

Item number of check list

S1.

S2.

1.1.

1.2.

1.3.

1.4.

1.5. 

Thomsen et al. 2009 [46]

Y

Y

Y

Y

Y

Y

Y

Item number check list key*: S1. Are there clear research questions, S2. Do the collected data allow to address the research questions, 1.1. Is the qualitative approach appropriate to answer the research question, 1.2. Are the qualitative data collection methods adequate to address the research question, 1.3. Are the findings adequately derived from the data, 1.4. Is the interpretation of results sufficiently substantiated by data, 1.5. Is there coherence between qualitative data sources, collection, analysis and interpretation.

2. Quantitative Randomised Controlled Trials

Item number of check list

S1.

S2.

2.1.

2.2.

2.3.

2.4.

2.5.

Heiman et al. 2021 [39]

Y

Y

Y

Y

Y

N

N

Knoerl et al. 2022 [40]

Y

Y

Y

Y

Y

U

Y

Larson et al. 2000 [41]

Y

Y

U

Y

Y

U

Y

Tamaki et al. 2017 [44]

Y

Y

Y

Y

Y

U

Y

Tanaka et al. 2021 [45]

Y

Y

Y

Y

Y

Y

U

Thomsen et al. 2010 [47]

Y

Y

Y

Y

Y

Y

U

Zgâia et al. 2016 [50]

Y

Y

Y

Y

Y

Y

Y

S1. Are there clear research questions, S2. Do the collected data allow to address the research questions, 2.1. Is randomisation appropriately performed, 2.2. Are the groups comparable at baseline, 2.3. Are there complete outcome data, 2.4. Are outcome assessors blinded to the intervention provided, 2.5. Did the participants adhere to the assigned intervention. 

3. Quantitative Non-Randomised

Item number of check list

S1.

S2.

3.1.

3.2.

3.3.

3.4.

3.5.

Baima et al. 2017 [37]

Y

Y

Y

Y

Y

U

Y

Sato et al. 2014 [42]

Y

Y

Y

Y

Y

U

Y

Springer et al. 2010 [43]

Y

Y

Y

Y

Y

U

Y

Tian et al. 2020 [48]

Y

Y

Y

Y

Y

U

Y

Wu et al. 2021 [49]

Y

Y

Y

Y

Y

U

Y

S1. Are there clear research questions, S2. Do the collected data allow to address the research questions, 3.1. Are the participants representative of the target population, 3.2. Are measurements appropriate regarding both the outcome and intervention (or exposure), 3.3. Are there complete outcome data, 3.4. Are the confounders accounted for in the study design and analysis, 3.5. During the study period, is the intervention administered (or exposure occurred) as intended. 

5. Mixed Method

Item number of check list

S1.

S2.

5.1.

5.2.

5.3.

5.4.

5.5.

Brahmbhatt et al. 2020 [38]

Y

Y

Y

Y

Y

Y

Y

S1. Are there clear research questions, S2. Do the collected data allow to address the research questions, 5.1. Is there an adequate rationale for using a mixed methods design to address the research question, 5.2. Are the different components of the study effectively integrated to answer the research question, 5.3. Are the outputs of the integration of qualitative and quantitative components adequately interpreted, 5.4. Are divergences and inconsistencies between quantitative and qualitative results adequately addressed, 5.5. Do the different components of the study adhere to the quality criteria of each tradition of the methods involved. 

*Three levels of assessment quality scores

Yes (Y)

Unclear (U)

No (N)

Prehabilitation findings overview

A wide variety of prehabilitation interventions were completed for the included studies, as described in Table 3. For the selected studies, the majority completed exercise programs [37,38,40,43,49] or had a component of exercise [39,42,48], with two studies focusing on upper limb exercise specifically [37,38]. An additional two focused on smoking cessation [46,47], with a single study reporting on multi-modal prehabilitation [49], and a range of complementary and alternative therapies [41,44,45,48,50]. The program delivery methods varied and ranged from the education of recommended exercise to fully supervised exercise interventions, and included the provision of relaxation, psychological and educational programs. The duration of the interventions varied from a one-off 90-minute session to 40-minute sessions 3-5 times a week. An overview of the findings of these interventions can be found in Table 4. 

Table 3: Overview of prehabilitation interventions

Author/Year

Purpose

Intervention

Baima et al. 2017

 

USA [37]

Explore the feasibility of an independent home shoulder exercise program to improve ipsilateral shoulder pain and abduction ROM after BC surgery.

Group 1 (in person teaching): Received an information sheet with exercises, video links and instruction with physical demonstration performed by the research team. The first exercise (Codman’s exercise) involves leaning over and tracing circles with the affected arm. The second exercise (scapular squeezes), involves standing with the arms above the head and pulling the elbows back and in. The third exercise (reach for the pillow) involves raising one arm above the head to reach pillows behind the head while lying supine.

 

Group 2 (video-only): Received the instruction sheet only, with a link to the video as well as the recommended number of repetitions. The subjects were instructed to do the exercises daily before surgery and to stop at the time of surgery. They were restricted from any upper arm exercise above 90° of abduction while drains were in. They could resume the same exercises as desired after surgery and after all drains were removed.

Brahmbhatt et al. 2020

 

Canada [38]

Determine the feasibility and acceptability of an individualised, home based prehabilitation intervention prior to BC surgery.

Intervention: Comprised of individually tailored, home-based exercise programs. Exercise prescriptions were developed and delivered by a RKin and consisted of aerobic exercise 3-5 days/ week for 30–40 min per session, before and upper quadrant-specific resistance training 2-3 days per week. Aerobic exercise prescriptions typically included brisk walking at an intensity of four-six on a 10-point RPE scale. Upper quadrant-specific resistance training consisted of two to three sets of 10-12 repetitions per exercise, with each session incorporating up to eight exercises (standing rows, shoulder external rotation, front raise, lateral raise, bicep curls, triceps extensions, wall push-ups, and chest press). Intervention also included stretching and mobility exercises which reflected standard postoperative rehabilitation. Participants were also provided with resistance bands and an exercise manual to facilitate home-based exercise. The RKin communicated with the participants on a weekly basis via phone calls or emails to support program compliance and appropriate progression and address any barriers to exercise (including questions about appropriate exercise completion) that may have prevented ongoing participation.

Heiman et al. 2021

 

Sweden [39]

Evaluate whether an intervention consisting of recommended physical activity before and after surgery improved physical recovery at 4 weeks after BC surgery.

Intervention: Recommended physical activity (add 30 min medium intensity aerobic activity daily) before and 4 weeks after surgery and completed questionnaires to track physical recovery.

Control: Standard care. 

Knoerl et al. 2022

 

USA [40]

Explore the impact of exercise and mind-body prehabilitation interventions on changes in quality of life and cancer treatment–related symptoms in women with newly diagnosed BC.

Intervention: Participants were asked to attend two 60-90 min supervised exercise sessions with a certified trainer per week. Exercise intervention included both aerobic and resistance exercise training. Target exercise goals included 40 min of strength training and 180 min moderate intensity aerobic training each week. 

 

Control: The mind-body control participants were given a book and asked to listen to an associated guided imagery audio guide twice a day. 

Larson et al. 2000

 

USA [41]

Evaluate the feasibility and potential immunological benefit of a presurgical psychosocial intervention for BC patients.

Intervention: Participants attended two 90-minute treatment or “intervention” sessions. Both sessions included psychosocial support including discussion about emotional impacts of initial diagnosis and impending surgery, identification of problems/difficulties warranting further attention, education about the impact of stressful life events on health, developing individually tailored problem-solving strategies before and an introduction to progressive muscle relaxation exercises. Both sessions concluded with participant debriefing and completion of a feedback questionnaire.

 

Control: Standard care.

Sato et al. 2014

 

Japan [42]

Investigate the effectiveness of a perioperative education program for improving upper arm dysfunction in patients with BC.

Intervention: Received pre-operative education regarding the mechanism and causes of symptom development; post-op they were taught techniques to prevent/improve impairment, including monitoring symptoms, exercises and massage techniques; individual support provided between 1 and 3 months to enhance symptom management.

Control: Standard care.

Springer et al. 2010 

 

USA [43]

Determine the extent and time course of upper limb dysfunction in subjects seen pre-operatively and followed prospectively using a novel physical therapy surveillance model post-BC and treatment.

Intervention: Participants were instructed in a post-operative upper limb ROM exercise program and educated regarding upper limb lymphedema precautions and physical exercise initiation and progression. The exercise program was reviewed 1-month post-surgery, and individualised home program instructions provided as needed. 

Tamaki et al. 2017

 

Japan [44]

Compare the effects of aromatherapy on mood, quality of life, and physical symptoms in patients with BC.

Intervention: Participants had aroma oil placed at the bedside from 9pm of the day before surgery day until 6am of the surgery day. The aromatherapy consisted of the choice of three kinds of aroma oil, including ylang-ylang, orange or lavender. 

 Control: Standard care. 

Tanaka et al. 2021

 

Japan [45]

Assess the effects of Yokukansan on BC patients undergoing a practical or total mastectomy breast surgery.

Intervention: Received two 2.5 g doses of the medication (Yokukansan) before sleeping the night before surgery and 2 hours before induced anaesthesia. 

 Control: did not receive the medication 

Thomsen et al. 2009 

 

Denmark [46]

Explore how women smokers with newly diagnosed BC experienced brief preoperative smoking cessation intervention in relation to BC surgery.

Intervention: Smoking intervention took place three to seven days before surgery and consisted of one counselling session lasting 45–90 min with trained smoking cessation counsellors. The principles of motivational interviewing inspired the intervention. Content entailed that the risks of smoking and the health benefits of smoking cessation in relation to surgery and in the long-term were discussed with participants. Qualitative interviews were conducted by a single author 3-8 weeks after surgery, with interviews lasting from 35 to 100 min. 

Thomsen et al. 2010

 

Denmark [47]

Examine if a brief smoking cessation intervention encouraging patients to stop smoking from two days before to ten days after BC surgery would reduce the frequency of postoperative clinical complications requiring treatment.

Intervention: Smoking intervention took place three to seven days before surgery and consisted of one counselling session lasting 45–90 min with trained smoking cessation counsellors. Additionally, NRT was offered for the recommended perioperative smoking cessation period.

Control: Standard care. 

Tian et al. 2020

 

China [48]

Determine the influence of comprehensive nursing on the prognosis of BC patients, aiming to provide a better theoretical reference for future clinical nursing interventions with BC patients.

Intervention: Comprehensive Nursing Intervention: Medical staff engaged in hospital education for participants and their families to improve their correct understanding of BC diseases and described successful cases to enhance the confidence of participants and families. They also strictly required participants to eat a healthy diet and gave effective guidance to participants and their families. Health care staff strictly required participants to exercise their upper limbs and provided professional guidance to ensure a balanced diet. They also urged participants to engage in appropriate outdoor exercise and to keep an optimistic attitude. If the participants had adverse reactions, they were appeased right away, and certain methods were adopted to improve participants’ discomfort and prognosis. 

 

Control: Conventional Nursing Mode: Nurse instructed participants in the rational administration of the drug, explained the disease to participants, performed assigned tasks, including infusions, vital sign monitoring, gave appropriate psychological counselling, life guidance, and other nursing interventions.

Wu et al. 2021

 

UK [49]

Assess the feasibility of multimodal prehabilitation as part of the BC treatment pathway.

Intervention: Received four types of intervention (supervised exercise, nutrition, smoking cessation, and psychosocial support:

• Supervised exercise consisted of two circuits (circuit one: sit-to-stand, horizontal row, calf raises and chest press; circuit two: deadlift, pullover, knee extension, shoulder press) which were both performed three times a session, with each exercise repeated 8-12 times. 

• Nutritional advice consisted of the consumption of adequate amounts of protein and consider the nutrient density of the foods they consume.

• Smoking cessation provided participants with necessary therapies and advice to help them quit smoking, including NRT, patches, and gum.

• Psychological support was assigned if participants identified with raised anxiety and/or depression scores. Participants had at least one session with their counsellor as part of their program.

Control: Standard care. 

Zgâia et al. 2016

 

Romania [50]

Investigate the effects of pre-operative relaxing technique and psychological counselling on the post-operative intensity of acute pain, analgesic consumption and psychological symptoms, for patients scheduled for MRM for BC.

Intervention: Received 50 minutes of relaxation technique in the morning of the surgery. This included 25 minutes of a short clinical semi-structured interview regarding history of the disease and treatment of the participants, offering supplementary information regarding the surgery and its complications, and 25 minutes of autogenous training exercise known as “autogenous training” or “Schultz relaxation method” combining visual imagery and suggestions to experience relaxation and peace.

Control: Did not receive any psychological intervention before surgery.

Abbreviations: MRM (modified radical mastectomy), NRT (Nicotine Replacement Therapy), RKin (Registered Kinesiologist), ROM (range of motion), RPE (Rating of Perceived Exertion), sAA (salivary alpha-amylase). 
 

Table 4: Overview of study findings

Author/Year

Study Outcomes

Physical Function Assessments

Clinical Assessments

Patient reported outcome measurement

Findings

Baima et al. 2017

 

USA [37]

Primary outcome: 11-point pain scale (0–10), ROM (0 to 180°), and chart documentation of postoperative seroma formation.

11-point pain scale (0–10), ROM (0 to 180°).

Chart documentation of postoperative seroma formation.

Not assessed. 

Data failed to provide strong evidence of a difference in exercise compliance between in-person teaching versus video teaching. (75 %, 24/32 vs. 77 %, 10/13, OR = 1.03).

 

Sixty-six percent of participants (20/30) lost greater than 10° shoulder abduction ROM at 1-month post-surgery.

 

29 % of participants (9/31) had worse shoulder pain than baseline at 1-month post-surgery (24 %, 6/25 exercisers, and 50 %, 3/6 non-exercisers).

 

Fifteen percent of participants (4/27) had pain worse than baseline at 3 months post-surgery (8 %, 2/25 exercisers, and 100 %, 2/2 non-exercisers).

 

Strength data did not show significance.

Brahmbhatt et al. 2020

 

Canada [38]

Primary and secondary outcomes not clearly reported.

Quantitative feasibility outcomes, qualitative assessment of feasibility, and participant experience.

6MWT; upper-extremity strength (handgrip dynamometry); manual muscle testing (digital handheld dynamometer); WC, BMI, lean body mass, BF%, and fat mass.

Clinical disease related data collected from chart review.

DASH; BPI; FACT-F; SF-36 v2; GLTEQ-LSI; WHODAS 2.0.

The 6MWT distance increased from baseline to the preoperative assessment by 57.10 ± 24.0 m (95% CI = 7.52, 121.7).

 

Small decrease in 6MWT distance from the preoperative assessment to the 6-week postoperative assessment (-5.51 ± 27.6 m [-79.74, 68.7]), scores remained greater than at baseline.

 

Increase in 6MWT distance of 62.90 ± 24.00 m (1.81, 127.60) from baseline to the last study assessment.

 

An increase in DASH scores of 16.18 ± 4.96 (2.74, 29.63) points was observed between the preoperative and 6-week postoperative assessment, indicating a clinically important increase in upper-quadrant disability (MCID of 15 points).

 

Overall worsening in fatigue levels from baseline to the 12-week postoperative assessment, demonstrated by a reduction of 4.63 ± 3.34 (-13.7, 4.41) points in FACT-F scores which have an MCID of three points.

 

SF-36 questionnaire consistently worsened over the study period with a decrease of 5.90 ± 2.17 (-11.75, -0.05) points from the first to the last assessment.

 

SF-36 mental component score worsened from baseline to the preoperative assessment but then improved by 4.36 ± 2.25 (-1.72, 10.44) points from the pre- to 6-week postoperative assessment.

 

GLTEQ-LSI scores increased over the study period from 22.8 ± 5.30 at baseline to 33.8 ± 6.12 at the last study assessment.

 

Qualitative subthemes: 

Intervention feasibility: appropriateness of the intervention, barriers and facilitators to participation.

Participants’ experiences: intervention design preferences, multimodal care, need for an exercise professional, perceived benefit, health behaviour change, regaining control, prehabilitation as education. 

Heiman et al. 2021

 

Sweden [39]

Primary outcome: physical recovery at 4 weeks after surgery, measured using self-administered questionnaires. 

 

Secondary outcomes: self-reported mental recovery at 4 weeks after surgery.

Not assessed.

Medical records were accessed to obtain surgical information.

SGPALS; AUDIT-C.

There was no significant difference in favour of the intervention for the primary outcome physical recovery (RR = 1.03, 95%; CI = 0.95-1.13). 

 

There was also no difference for mental recovery (RR = 1.05, 0.93-1.17) nor in mean Comprehensive Complication Index score (4.2 (range 0–57.5) versus 4.7 (0–58.3)) between I and C.

 

64.1% in I did not report any change in physical activity level; 66/0% in C. 

Knoerl et al. 2022

 

USA [40]

The impact of exercise and mind-body prehabilitation intervention on changes in quality of life and cancer treatment-related symptoms. 

7–Day PAR.

Clinical chart and diagnosis.

EORTC QLQ C-30; PSS; HADS.

Significant improvements in exercise amount for I: 203 ± 129 min/week, compared to C: 23 ± 76 min/week (P < 0.0001). 

 

Mind-body group participants experienced significant improvements in cognitive functioning in comparison to exercise group participants between T1 and T3.

Difference in average change: -9.61, P = 0.04, d = 0.31. 

 

Both groups experienced improvement in anxiety (exercise: average change = -1.18, P = 0.03, d = 0.34, mind-body: average change = -1.69, P = 0.006, d = 0.43) and perceived stress (Stress improvement: Exercise: average change = -2.33, P = 0.04, d = 0.30, mind-body: average change = -2.59, P = 0.05, d = 0.29). 

 

Improvements were seen in the mind-body group for insomnia (average change = -10.03, P = 0.04, d = 0.30) and cognitive function (average change = 13.16, P = 0.0003, d = 0.67). 

 

Both groups experienced a significant decline in role functioning (exercise: average change = -11.10, P = 0.005, d = 0.43; mind-body: average change = -11.31, P = 0.009, d = 0.40) over time. 

 

No significant changes (P > 0.05) in physical function, fatigue, or pain. 

Larson et al. 2000

 

USA [41]

Evaluate whether BC patients who participated in the psychosocial intervention would have improved immune function, as measured by an increase in both NK cell activity and IFN-γ production, and whether responses to psychological (i.e., self-report) measures would mirror these immune system shifts.

Immune function via NK cell activity and IFN-γ production

Not assessed. 

CES-D, DES-IV, IES, LOT, SF-36.

Analysis of NK cell activity did not yield any significant differences between the control and the experimental groups. Results did not support the idea that the presurgical psychosocial intervention in any way influenced the NK cell response.

 

IFN-γ levels decreased substantially over time in C but not for I, suggesting that the intervention may have been successful in reducing immunosuppression prior to surgery. However, this finding is clouded by no significant difference in IFN-γ levels at the baseline timepoint. 

 

Participants in I showed a decrease in feelings of cancer-related disgust over time, whereas control participants experienced an exacerbation of those same feelings.

Sato et al. 2014

 

Japan [42]

Evaluate provision of perioperative exercise program vs standard care, evaluate the subjective perception of post-operative functional impairment and disability of the arm and shoulder, in combination with objective measurements of measured arm girth, shoulder ROM, and grip strength.

Arm girth; shoulder ROM; grip strength.

Medical records provided notes on type of surgery, level of ALND, and adjuvant treatment. 

SPOFIA; DASH.

SPOFIA and grip strength were significantly improved in the I who underwent ALND; no significant improvement in the I who underwent SLNB. 

 

No significant differences in arm girth, shoulder ROM, or DASH were seen between groups with ALND. Significant differences in change in SPOFIA score over time were noted between the ALND I and C groups (F value = 3.34; P = 0.02). 

 

A significant difference over time in the difference in mean grip strength was seen between normal and affected sides in both I and C groups (value = 2.77; P = 0.04), indicating significantly improved grip strength over time in the ALND I group compared to the ALND C group. 

 

No significant differences in arm girth, shoulder ROM, grip strength, SPOFIA, or DASH were identified between SLNB groups. 

Springer et al. 2010 

 

USA [43]

Primary outcome: the extent and time course of upper limb dysfunction in subjects seen pre-operatively and followed prospectively using a novel physical therapy surveillance model post-BC and treatment. 

Secondary outcomes: determine if pain is a factor in recovery and assess self-report of functional task difficulty 12 months post-surgery using ULDQ. 

Shoulder ROM (flexion, abduction, internal rotation, and external rotation) and strength; upper limb volume and girth. 

Not assessed. 

ULDQ. 

Shoulder abduction, external rotation, flexion, and composite ROM decreased from baseline to 1 month (P < 0.0001), improved from 1 month to 3-6 months (P < 0.0001), and improved further from 3-6 to 12 months (P < 0.0001). 

 

Internal rotation ROM had a significant decrease from baseline to 1 month (P < 0.04), and a significant improvement from 1 and 3-6 months to 12 months (P < 0.03). 

 

Shoulder strength had a significant decrease at 1 month (P < 0.001). 

 

Greater pain at 1 month than baseline (P < 0.001). 

 

Shoulder abduction, flexion, external rotation, and composite ROM significantly correlated with all subcategories of the ULDQ (P < 0.02); internal rotation did not. 

 

Significant difference in limb volume found between sub-clinical lymphedema and no lymphedema subgroups at 12 months (P < 0.045). 

Tamaki et al. 2017

 

Japan [44]

Primary endpoint: QOL, which was assessed EORTC QLQ-C30. 

 

Secondary endpoints: necessity of hypnotics, vital signs (blood pressure and heart rate), adverse events, and patient perception of the experience. 

Vital signs (blood pressure and heart rate). 

Not assessed. 

EORTC QLQ-C30; use of hypnotics; patient experience

No statistically significant differences between groups in the EORTC QLC-C-30 at the surgery day. Differences in physical functioning and role functioning detected for post-operation day 1 but did not reach statistical significance (P = 0.08 and 0.09, respectively). 

 

No effects of aromatherapy were observed for blood pressure, heart rate, and the rate of hypnotic using (all P > 0.05). 

 

Patient experience was positive (participants were relaxed, comfortable, and enjoyable). 

Tanaka et al. 2021

 

Japan [45]

Primary outcome: changes in sAA as an objective measure of anxiety. 

 

Secondary outcomes: subjective measures of anxiety through HADS, STAI, QoR-15, and VAS for pain intensity. 

sAA levels were monitored pre- and post-surgery as an anxiety indicator. 

Clinical charts and BC diagnosis

HADS (HADS-A and HADS-D); STAI (STAI-S and STAI-T); QoR-15; VAS for pain intensity

Difference in HADS-A: I: -2.77, 95% CI [-1.48- -4.06], P < 0.001, and C: -1.43 [-0.25- -2.61], P = 0.011. 

Difference in STAI-T: I: mean -4.23 [-6.95- -1.51], P = 0.0004: and C: 0.12 [-2.36- -2.60], P = 0.92. 

 

sAA scores significantly lower in I group at T2: I: 0.88 (0.42); C: 1.14 ± 0.49: F [2, 150] = 3.76; P = 0.03; gη2 = 0.017. 

 

No significant differences in HADS-D, STAI-S, and VAS scores between groups. 

Thomsen et al. 2009

 

Denmark [46]

Qualitative experiences related to the prehabilaition smoking intervention. 

Not assessed.

Not assessed.

Not assessed.

Reflecting upon smoking and health

Participants used metaphors such as ‘‘the final push,’’ ‘‘a kick’’ and ‘‘a wake-up call’’ to describe their experience of being offered brief preoperative smoking intervention. Major motivation for wanting to stop smoking was the risk of postoperative wound healing complications.

“‘It’s a combination. Being told you have cancer. Of course, BC hasn’t got anything to do with smoking. That’s more lung cancer but you begin to think in other directions. How much at risk are you of getting other types of cancer? And that’s why I thought: No, I’ve already got asthma, so I have to quit. And being offered smoking intervention before surgery gave me the last push.’’

 

Escaping the social stigma of being a smoker

Described by the participants as increasingly awkward due to restrictive smoking policies and disapproval of smoking.

‘‘Shortly before [being offered the smoking intervention] I told her [my daughter] that I had cancer, she said to me oh mum will you please stop smoking. You know I’d like to and I’ve wanted to and I have also tried twice. Just don’t ask me to do it now. Right now, I can’t face it with the cancer and all that. But you know I came to a point, yes, because I think it’s easier to be a non-smoker.”

 

Heightened awareness of being addicted to smoking

Some participants experienced that the smoking intervention motivated smoking cessation for a short period before or immediately after surgery; however, they quickly resumed their habit, or alternatively, attempted but were unable to stop smoking at all.

Specifically, anxiety peaked in the days prior to surgery and to getting the results of surgery. Brief preoperative smoking intervention in this context did not sustain abstinence in these participants.

‘‘Absolutely, I’m never going to smoke another cigarette, ever again. But going through the hospital system and all the waiting and pressure and worrying. Then you start to think: If I smoke just one cigarette here and another one there, it won’t harm anything, because you need it.’’

 

Enacting a duty of responsibility

The participants who stopped smoking experienced doing so as an enactment of a duty of responsibility towards themselves and those nearest to them.

‘‘I want to be well again and live a healthy life. The most important thing is to be able to be here for my kids and not to pollute them with my smoking.’’

Thomsen et al. 2010

 

Denmark [47]

Primary objective: Postoperative complications, defined as death or postoperative morbidity requiring treatment within 30 days after surgery (including seroma requiring aspiration). 

 

Secondary objectives: self-reported smoking cessation (two days before to ten days after surgery), exhaled carbon monoxide, and long-term continuous smoking cessation. 

Not assessed.

Patients’ charts examined for clinical complications. 

The Fagerström Test for Nicotine Dependency Score; smoking diary; telephone interviews for long-term cessation. 

Brief smoking intervention increased self-reported perioperative smoking cessation without having any clinical impact on postoperative complications.

 

Significantly more I participants (16/57; 28%) than C participants (7/62; 11%) reported continuous abstinence from two days before to ten days after surgery (RR = 2.49; 95% CI 1.10-5.60). 

 

At 12 months, groups did not differ in smoking cessation (I: 7/55, 13%; C: 5/58, 9%; RR = 1.48; 95% CI 0.50-4.38). 

 

Median carbon monoxide levels on day of surgery were significantly different: I: 2 ppm (range: 0-33); C: 4ppm (range 0-36); p-0.04). 

Carbon monoxide levels did not differ significantly between groups after ten days: I: 5 ppm (range: 0-43); C: 6.5 ppm (range: 0-52); P = 0.14. 

 

Postoperative complications (I: 52%; C: 64%; P = 0.35) and wound complications (I: 44%; C: 47%; P = 1.00) within 30 days did not differ. 

Tian et al. 2020

 

China [48]

Primary outcomes: observe the clinical curative effect of the two groups, and compare the therapeutic effects, adverse reactions, nursing satisfaction, VAS pain, psychological state SAS and SDS, and QOL of the two groups.

 

Secondary outcomes: compare the MMSE of the groups. 

Target lesions evaluated according to RECIST.

 

Pain evaluated according to VAS scores.

Not assessed. 

QOL; SAS; SDS; MMSE.

Curative effect: No difference in total effective rate between the two groups (P = 0.400). 

 

No differences in the adverse reactions in the two groups (P > 0.05). 

 

Number of participants who were very satisfied with nursing in I was higher than C (P < 0.05). 

 

VAS scores in I after treatment (2.45 ± 1.26) were significantly lower (P < 0.05) than C scores (3.73 ± 1.39). 

 

SAS and SDS scores significantly lower in I than C after treatment, and scores significantly lower in both groups after treatment than baseline (all P < 0.05). 

 

MMSE scores in I significantly higher than in C after treatment (P < 0.05). 

 

QOL scores in I higher than in C (P < 0.05). 

 

No differences in participant survival in the two groups (P > 0.05).

Wu et al. 2021

 

UK [49]

Feasibility was determined by the multimodal prehabilitation compliance. 

Not assessed.

Length of inpatient stay, hospital readmissions and complications. 

SF-12; HADS; SPADI. 

Anxiety scores (HADS) were significantly lower after surgery in both groups participating in prehabilitation (1-3 sessions: P = 0.028; ≥4 sessions: P = 0.045). The remaining outcomes analysed did not demonstrate significant changes (P > 0.05).

 

Median length of stay was 2 days/1night for both prehabilitation cohorts. No 30-day complications requiring further hospitalisation and no hospital readmissions recorded. 

Zgâia et al. 2016

 

Romania [50]

Primary outcome: Postoperative pain intensity.

 

Secondary outcomes: presence and intensity of psychological symptoms; analgesic consumption (Opioids, Paracetamol, NSAIDs).

Not assessed.

Not assessed.

NRS (for pain intensity); NRS (for intensity of psychological symptoms). 

Pain intensity significantly lower in I than C immediately after waking, at T2, T3, T4, and T5 after surgery (P < 0.05). I recorded maximum pain intensity 4/10 NRS. C recorded maximum pain intensity 8/10 NRS. Difference between mean scores of groups approximately 5/10 NRS immediately after waking (I: 1.5/10; C: 6/10), and a difference of 3/10 NRS 2 hours post-surgery (I: 1/10; C: 4/10).

 

Amount of post-surgery intravenous opioid used (ampoules of 100 mg tramadol) and NSAIDs (ampoules of 100 mg ketoprofen) significantly lower in I compared to C, both on the first and the second day after surgery (both P < 0.001). Amount of intravenous paracetamol (bottles of 1g paracetamol) similar in both groups. 

 

Higher frequency of psychological postoperative symptoms in C compared to I during evaluation period. 

Differences statistically significant at 6 (P < 0.001), 12 (P = 0.011), 24 (P = 0.021), 30 (P = 0.006), and 48 (P = 0.021) hours after surgery, and not at 42 hours (P = 0.537). At 48 hours, intensity of psychological symptoms lower in I compared to C. 

Abbreviations: ALND (axillary lymph node dissection), AUDIT-C (Alcohol Use Disorders Identification Test), BF% (body fat percentage), BMI (body mass index), BPI (Brief Pain Inventory), C (control group), CES-D (Center for Epidemiological Studies Depression Scale), CI (confidence interval), DASH (Disabilities of the Arm, Shoulder and Hand Questionnaire), DES-IV (Differential Emotions Scale-IV), EORTC QLQ-C30 (European Organization for Research and Treatment of Cancer Quality of Life Core Questionnaire-30), FACT-F (Functional Assessment of Cancer Therapy - Fatigue Questionnaire), GLTEQ-LSI (Godin-Shephard Leisure Time Exercise Questionnaire – Leisure Score Index), HADS (Hospital Anxiety and Depression Scale), HADS-A (Hospital Anxiety and Depression Scale-Anxiety), HADS-D (Hospital Anxiety and Depression Scale-Depression), I (intervention group), IES (Impact of Event Scale), IFN-γ (interferon gamma), LOT (Life Orientation Test), MCID (minimal clinically important difference), MMSE (Mini-Mental State Examination), NK (natural killer), NRS (numerical rating scale), NSAIDs (nonsteroidal anti-inflammatory drug), PSS (Perceived Stress Scale), QOL (quality of life), QoR-15 (quality of recovery), RECIST (Response Evaluation Criteria in Solid Tumours), ROM (range of motion), RR (risk ratio), sAA (salivary alpha amylase), SAS (Self-Rating Anxiety Scale), SDS (Self-Rating Depression Scale), SF-12 (12-Item Short Form Health Survey), SF-36 (36-Item Short Form Health Survey), SGPALS (Saltin-Grimby Physical Activity Scale), SLNB (sentinel lymph node biopsy), SPADI (Shoulder Pain and Disability Index), SPOFIA (Subjective Perception of Post-Operative Functional Impairment of the Arm), STAI (State-Trait Anxiety Inventory), STAI-S (State-Trait Anxiety Inventory (current)), STAI-T (State-Trait Anxiety Inventory (general)), ULDQ (Upper Limb Disability Questionnaire), VAS (Visual Analogue Scale), WC (waist circumference), WHODAS (36-Item World Health Organization Disability Assessment Schedule 2.0), YKS (Yokukansan), 6MWT (6-minute walk test); 7-Day PAR (7-Day Physical Activity Recall).

Upper limb evaluation in prehabilitation

Five studies explored the effects of prehabilitation on upper-limb (UL) dysfunction following surgical treatment for BC [37,38,42,43,49]. Study sizes ranged from 28-162 participants, with all research time-points commencing pre-operatively but ending at different time points (6 weeks, 12 weeks, and 12 months). The heterogeneity observed for the designs of these studies limits the understanding of the long-term impact of prehabilitation on UL dysfunction. 

Participants partook in prehabilitation exercise programs and education, face-to-face or by video, and in some cases were compared to standard care with respect to UL dysfunction. Standard care was not necessarily discussed, compared, or explained in the research. Three studies [38,42,49] utilised the Disabilities of the Arm, Shoulder and Hand (DASH) Questionnaire, measuring the ability of the participants to complete upper extremity activities, which allowed consistency in results. The Shoulder Pain and Disability Index (SPADI), Upper Limb Disability Questionnaire (ULDQ) and Subjective Perception of Post-Operative Functional Impairment of the Arm (SPOFIA) were other tools utilised to measure UL functionality. 

It was identified that UL pain [37] and DASH score [38] increased over time from baseline measurements, indicating an increase in UL disability. Similarly, there was a decrease in shoulder range of motion between baseline and measurements at one month, however, the range of motion improved at all subsequent time points [43]. While one study reported no significant changes between groups for SPADI [49], improved grip strength and SPOFIA score were reported in patients who had participated in prehabilitation and who had undergone axillary dissection [42]. However, no significant improvements were observed following prehabilitation in patients having sentinel node biopsy [42]. 

Exercise and physical activity programs (excluding UL only)

Two studies included a supervised exercise program within the BC prehabilitation intervention which included both aerobic and resistance training [38,40], with one of these studies completing UL specific resistance training [38]. These interventions consisted of 30-40 min aerobic exercise 3-5 days per week, with 2-3 UL resistance training days a week [38], and two 60-90 sessions a week incorporating both aerobic (30-40 min) and resistance (20 min) exercises [40] (Table 2). Both studies identified that disability increased from baseline to 12 weeks post operatively [38], and a decrease in role functioning over time [40] despite the exercise programme. However, an increase in the six-minute walk test (6MWT) was observed from baseline to pre-operatively indicating an increase in aerobic fitness prior to surgery [38], with improvements made for anxiety and stress in the exercise group [40]. Interestingly, the interviews completed by Brahmbhatt et al. [38] revealed that the participants and the healthcare professionals were in favour of the program. Participants suggested that the program be offered to all surgical candidates, as it helped them regain control over the pre-operative period and it facilitated postoperative recovery by educating on postoperative rehabilitation protocols. A preference for multimodal prehabilitation was highlighted, due to the request for the inclusion of dietetics and psychological interventions. 

Complementary and alternative therapies

A range of studies provided complementary and alternative therapies as part of their prehabilitation interventions. These included psychosocial [41], aromatherapy [44], traditional medicine [45], comprehensive nursing [48], and relaxation technique [50] interventions, with another study utilising a mind-body prehabilitation program as a comparison to their prescribed exercise intervention [40]. The duration of these studies was short-term and ranged from one day to one-month post-surgery, with sample sizes ranging from 41 – 168 participants. All but one study [48] was a randomised controlled trial, with the comparator groups completing a standard care that was unspecified by the authors [41,44,50]. This is with the exception of Tanaka et al. [45] who prescribed water to participants in place of the traditional medication, and Tian et al. [48], who described what the ‘Conventional Nursing Mode’ their control group received entailed. Further, Knoerl et al. [40] did not utilise a control, but rather two groups who received different interventions. 

A range of patient-reported outcomes were assessed in these studies, with only one study reporting no significant differences between groups for any outcomes, resulting in aromatherapy potentially not being successful for prehabilitation in this population [44]. The mind-body intervention prescribed by Knoerl et al. [40] resulted in improvements in cognitive decline, however also reported a significant decline in role functioning over time [40]. The comprehensive nursing intervention resulted in higher mental state and quality of life scores, and lower anxiety, depression, and pain scores [48], while participating in relaxation techniques and psychological counselling also resulted in lower pain intensity and significantly lower post-operative psychological symptoms [50]. 

To support these patient-reported outcomes, two studies collected additional information on the participant’s biomarkers. Larson et al. [41] reported a decrease in “cancer-related disgust”, and while there were no significant changes to natural killer cell activity, it was observed that interferon-gamma did not substantially decrease in the intervention group, suggesting that the psychosocial intervention may have played a role in preventing treatment-related immunosuppression [41]. Additionally, the prescription of traditional medicine significantly reduced Hospital Anxiety and Depression Scale - Anxiety (HADS-A) and State-Trait Anxiety Inventory - General (STAI-T) symptoms in the intervention group [45]. Tanaka et al. [45] reported significantly lower salivary alpha-amylase immediately prior to surgery, supporting the decreased patient-reported anxiety [45]. 

Cessation of smoking

Two publications reported on the same study that explored the cessation of smoking interventions before and after BC surgery [46,47], reporting on both the qualitative [46] and quantitative [47] outcomes of the intervention. Participants were required to attend a single session of counselling and were provided with nicotine replacement therapy. The quantitative findings identified that more participants in the intervention arm reported continuous smoking cessation across a short-term surgery period [47]. Alternatively, no difference was observed between the control and intervention groups in postoperative complication rate, wound complication rate, or long-term smoking cessation [47]. Thomsen et al. [46] utilised semi-structured interviews for the qualitative aspect of this research and reported that the intervention encouraged the participants to reflect on their smoking, which encouraged short-term cessation for their surgery [46]. However, it was revealed that a prolonged intervention duration, both pre- and post-operatively may be more effective in supporting smoking cessation in this population [46]. 

Multi-modal prehabilitation

One of the included studies explored the impact of multi-modal prehabilitation in participants with BC [49]. The interventions included self-management topics related to nutrition, smoking cessation, psychosocial support, and a tailored exercise program [49]. Overall, 81% (n = 61) of participants with BC chose to participate, with n = 20 participants declining the multi-modal prehabilitation intervention being assigned to the control group. Noteworthy, the researchers did not clearly define what the current standard of care was in the control arm, and therefore bias is possible in study outcomes. Overall, there were no statistically significant differences in length of hospital stay, rates of readmissions, post-treatment complications or health-related QOL scores, with the exceptions of anxiety levels in favour of the intervention arm [49]. The maximum follow-up time point post-surgery was six weeks [49], which limits the understanding of the impact of multi-modal prehabilitation into survivorship. 

Discussion

Prehabilitation is an emerging research area [51]. The time before treatment can be used to introduce self-management support to optimise recovery in individuals with BC. At present there seems to be a narrow focus on the type of programs delivered post treatment and variations in standard care, making it difficult to compare interventions and outcomes. Prehabilitation had a positive impact on health-related outcomes of participants diagnosed with BC, and one study reported reduced anxiety, stress and insomnia scores [40]. It was identified that the prehabilitation period may be the ideal time period to determine the needs of individuals with BC [38]. Ensuring timely referrals would likely reduce fatigue, disability of the arm and hand, and improve overall psychological and physical fitness and strength post-operatively. The focus at present is on a single form of treatment/support which for most studies was lacking a holistic approach to the participant’s care and input from the muti-disciplinary team. There is an opportunity for improved clinical, psychological, physical and quality of life outcomes with the implementation of prehabilitation in BC. This review determined that to date the evidence in prehabilitation in BC is emerging. 

Multi-modal prehabilitation should be considered by clinicians within clinical service re-design [23]. Given that there is only a short timespan between diagnosis and the first line of treatment, it is important to consider how the program would work and how the delivery of the different components could compliment the treatment. Given that there was only one multi-modal intervention [49] within this review it is difficult to draw conclusions on what this program should look like. The program was feasible with 80% of patients opted to participate and was found to reduce anxiety levels [49]. The follow up period was only six weeks which means that long-term effects of the program cannot be determined. Future programs should consider a longer term follow up period in their study designs. Partners could also be an influence on the success of prehabilitation programs [33] however to date there is limited evidence. 

Multimodal prehabilitation should consider all facets of the person and include support from oncology specialist nurses and programs such as exercise, psychology and nutrition and educational components as needed by the individual. Long term physical and psychological wellness is key to recovering from BC treatments and its side effects. Implementing a prehabilitation program could ensure people are well supported as they go through this period of their lives.

Quitting smoking has been shown to increase survival, improve healing times and surgical outcomes [52] among BC patients, although it isn’t known what support is needed and when the best time to deliver it is [53]. Smoking cessation in this review focused on education and counselling with varying results. The support may be better integrated across the diagnosis and treatment phase when it is best for the patient however should form part of an early conversation with the patient. 

As part of holistic care for participants with BC prehabilitation UL assessment and therapy should form part of prehabilitation given that UL dysfunction is a common effect of treatment. UL pain was shown to increase over time indicating that disability will also increase for many. This shows the need to support the patient through the treatment phase and beyond even with a successful prehabilitation program. Understanding the impact of movement and exercise over this period should be a high priority and future direction for research. Exercise improved anxiety and stress and participants and health care workers were supportive of the program and believed it helped with their recovery. The qualitative exploration identified that participants wanted multimodal interventions rather than unimodal. 

Complementary and alternative programs may be supportive of the goal of prehabilitation in people with BC. These included psychological support, aromatherapy, traditional medicine, comprehensive nursing, and relaxation techniques including mind-body work. Improvements in cognition, mental state, quality of life, decreased anxiety, depression, and pain were attributed to complementary therapies, in all but one study in this review. 

While some significant changes were observed in this review there are limitations that must be considered. Studies did not always report the type of BC (or treatment/ specific surgery details), increasing the heterogeneity, and not allowing us to draw more accurate conclusions for the type of participants, including male participants. However, what we have shown is that prehabilitation could improve many outcomes for people with breast cancer and should be further explored. 

Clinical implications

This review makes an important contribution which has acknowledged for the first time that significant heterogeneity exists in prehabilitation models of care in terms of the mode of administration, duration, and outcome measures used to quantify its impact. Importantly, there has been a lack of focus on the outcomes of including partners as critical companions during this distressing phase of the cancer care continuum. Members of the multidisciplinary team caring for people affected by BC are encouraged to use the findings of this review to inform holistic models of care. 

Conclusion

Prehabilitation for patients with BC is an emerging research area that appears to improve outcomes, however ensuring adequate intervention timeframes, follow-up and population groups should be considered for future investigations. Researchers and healthcare professionals still do not know the contribution of the effect of uni-modal influence on study outcomes compared to multimodal interventions, and what approach is most effective to optimise clinical, physical and psychological outcomes. 

Future research

Based upon the findings of this review, future RCT multi-modal prehabilitation programs are needed and considerations should be given to include partners. There was a lack of prospective longitudinal follow up, limited understanding of how different clinical and demographic variables may have a mechanistic effect on study outcomes. Of clinical relevance there was only one male participant represented across included studies and therefore future research should be inclusive of all genders including the LBGTQIA+ patient populations. Future studies should consider embedding robust cost effectiveness evaluation in all future prehabilitation studies.

Statements And Declarations

Funding

The authors declare that no funds, grants, or other support were received during the preparation of this manuscript. 

Declaration of competing interest

The authors have no relevant financial or non-financial interests to disclose. 

Acknowledgements

None.

Author contributions

Concept/design: K, Toohey; literature search: K, Toohey & M Turner; data extraction and analysis: all listed authors; quality assessment: all listed authors; article drafting: all listed authors; critical revision and approval: all listed authors. 

Ethics approval

Ethical approval is not required due to the review nature of the research. 

Consent to participate

Informed consent was not applicable for this review. 

References

  1. Bray F, Ferlay J, Soerjomataram I, Siegel RL, Torre LA, Jemal A. Global cancer statistics 2018: GLOBOCAN estimates of incidence and mortality worldwide for 36 cancers in 185 countries. CA Cancer J Clin. 2018;68(6):394-424. doi:https://doi.org/10.3322/caac.21492
  2. Cancer Australia. Breast Cancer. Cancer Australia: Australian Government; 2022. Available from: https://www.canceraustralia.gov.au/cancer-types/breast-cancer/statistics
  3. Vuksanovic D, Sanmugarajah J, Lunn D, Sawhney R, Eu K, Liang R. Unmet needs in breast cancer survivors are common, and multidisciplinary care is underutilised: the Survivorship Needs Assessment Project. Breast Cancer. 2021;28(2):289-297. doi:https://doi.org/10.1007/s12282-020-01156-2
  4. Arroyo OM, Vaíllo YA, López PM, Garrido MJG. Emotional distress and unmet supportive care needs in survivors of breast cancer beyond the end of primary treatment. Support Care Cancer. 2019;27(3):1049-1057. doi:https://doi.org/10.1007/s00520-018-4394-8
  5. Burg MA, Adorno G, Lopez ED, Loerzel V, Stein K, Wallace C, Sharma DKB. Current unmet needs of cancer survivors: Analysis of open‐ended responses to the American Cancer Society Study of Cancer Survivors II. Cancer. 2015;121(4):623-630. doi:https://doi.org/10.1002/cncr.28951
  6. Carreira H, Williams R, Müller M, Harewood R, Stanway S, Bhaskaran K. Associations between breast cancer survivorship and adverse mental health outcomes: a systematic review. J Natl Cancer Inst. 2018;110(12):1311-1327. doi:https://doi.org/10.1093/jnci/djy177
  7. Hui D, Hoge G, Bruera E. Models of supportive care in oncology. Curr Opin Oncol. 2021;33(4):259-266. doi:https://doi.org/10.1097/CCO.0000000000000733
  8. Zdenkowski N, Tesson S, Lombard J et al. Supportive care of women with breast cancer: key concerns and practical solutions. Med J Aust. 2016;205(10):471-475. doi:https://doi.org/10.5694/mja16.00947
  9. Fiszer C, Dolbeault S, Sultan S, Brédart A. Prevalence, intensity, and predictors of the supportive care needs of women diagnosed with breast cancer: a systematic review. Psycho‐Oncol. 2014;23(4):361-374. doi:https://doi.org/10.1002/pon.3432
  10. Mokhatri-Hesari P, Montazeri A. Health-related quality of life in breast cancer patients: review of reviews from 2008 to 2018. Health Qual Life Outcomes. 2020;18(1):1-25. doi:https://doi.org/10.1186/s12955-020-01591-x
  11. Jagsi R, Ward KC, Abrahamse PH et al. Unmet need for clinician engagement regarding financial toxicity after diagnosis of breast cancer. Cancer. 2018;124(18):3668-3676. doi:https://doi.org/10.1002/cncr.31532
  12. Rosenzweig M, West M, Matthews J, Stokan M, Kook Y, Gallups S, Diergaarde B. Financial toxicity among women with metastatic breast cancer. Oncol Nurs Forum. 2019;46(1):83-91. doi:https://doi.org/10.1188/19.ONF.83-91
  13. Soares Falcetta F, de Araújo Vianna Träsel H, de Almeida FK, Rangel Ribeiro Falcetta M, Falavigna M, Dornelles Rosa D. Effects of physical exercise after treatment of early breast cancer: systematic review and meta-analysis. Breast Cancer Res Treat. 2018;170(3):455-476. doi:https://doi.org/10.1007/s10549-018-4786-y
  14. Patterson RE, Cadmus LA, Emond JA, Pierce JP. Physical activity, diet, adiposity and female breast cancer prognosis: a review of the epidemiologic literature. Maturitas. 2010;66(1):5-15. doi:https://doi.org/10.1016/j.maturitas.2010.01.004
  15. Kim J, Choi WJ, Jeong SH. The effects of physical activity on breast cancer survivors after diagnosis. J Cancer Prev. 2013;18(3):193-200. doi:https://doi.org/10.15430/JCP.2013.18.3.193
  16. Lee I-M. Physical activity and cancer prevention-data from epidemiologic studies. Med Sci Sports Exerc. 2003;35(11):1823-1827. doi:https://doi.org/10.1249/01.mss.0000093620.27893.23
  17. Australian Institute of Health and Welfare. Australian Burden of Disease Study: Impact and causes of illness and death in Australia 2018. Australian Government; 2021. Available from: https://www.aihw.gov.au/reports/burden-of-disease/abds-impact-and-causes-of-illness-and-death-in-aus/summary
  18. Lahart IM, Metsios GS, Nevill AM, Carmichael AR. Physical activity, risk of death and recurrence in breast cancer survivors: a systematic review and meta-analysis of epidemiological studies. Acta Oncol. 2015;54(5):635-654. doi:https://doi.org/10.3109/0284186X.2014.998275
  19. Heitz AE, Baumgartner RN, Baumgartner KB, Boone SD. Healthy lifestyle impact on breast cancer-specific and all-cause mortality. Breast Cancer Res Treat. 2018;167(1):171-181. doi:https://doi.org/10.1007/s10549-017-4467-2
  20. Cormie P, Atkinson M, Bucci L et al. Clinical Oncology Society of Australia position statement on exercise in cancer care. Med J Aust. 2018;209(4):184-187. doi:https://doi.org/10.5694/mja18.00199
  21. World Health Organization. Global strategy on diet, physical activity and health: a framework to monitor and evaluate implementation. Geneva; 2006. Available from: https://apps.who.int/iris/handle/10665/43524
  22. Vardy JL, Chan RJ, Koczwara B et al. Clinical Oncology Society of Australia position statement on cancer survivorship care. Aust J Gen Pract. 2019;48(12):833-836. doi:https://doi.org/10.31128/AJGP-07-19-4999
  23. Scheede‐Bergdahl C, Minnella E, Carli F. Multi‐modal prehabilitation: addressing the why, when, what, how, who and where next? Anaesthesia. 2019;74(Suppl 1):20-26. doi:https://doi.org/10.1111/anae.14505
  24. Clinical Oncology Society of Australia Model of Survivorship Care Working Group. Model of survivorship care: Critical components of cancer survivorship care in Australia position statement. Sydney: Clinical Oncology Society of Australia; 2016.
  25. Brennan ME, Butow P, Marven M, Spillane AJ, Boyle FM. Survivorship care after breast cancer treatment–experiences and preferences of Australian women. Breast. 2011;20(3):271-277. doi:https://doi.org/10.1016/j.breast.2010.12.006
  26. Lisy K, Kent J, Dumbrell J, Kelly H, Piper A, Jefford M. Sharing cancer survivorship care between oncology and primary care providers: a qualitative study of health care professionals’ experiences. J Clin Med. 2020;9(9):2991. doi:https://doi.org/10.3390/jcm9092991
  27. Hunter RF, Boeri M, Tully MA, Donnelly P, Kee F. Addressing inequalities in physical activity participation: implications for public health policy and practice. Prev Med. 2015;72:64-69. doi:https://doi.org/10.1016/j.ypmed.2014.12.040
  28. Coughlin SS, Paxton RJ, Moore N, Stewart JL, Anglin J. Survivorship issues in older breast cancer survivors. Breast Cancer Res Treat. 2019;174(1):47-53. doi:https://doi.org/10.1007/s10549-018-05078-8
  29. Jefford M, Karahalios E, Pollard A et al. Survivorship issues following treatment completion—results from focus groups with Australian cancer survivors and health professionals. J Cancer Surviv. 2008;2(1):20-32. doi:https://doi.org/10.1007/s11764-008-0043-4
  30. Jiao M, Hall A, Nolte L, Piper A, Lisy K, Jefford M. A rapid review of needs assessment tools for post‐treatment cancer survivors. Eur J Cancer Care. 2018;27(2):e12764. doi:https://doi.org/10.1111/ecc.12764
  31. Gallicchio L, Tonorezos E, de Moor JS et al. Evidence gaps in cancer survivorship care: a report from the 2019 National Cancer Institute Cancer Survivorship Workshop. J Natl Cancer Inst. 2021;113(9):1136-1142. doi:https://doi.org/10.1093/jnci/djab049
  32. Lisy K, Ly L, Kelly H, Clode M, Jefford M. How do we define and measure optimal care for cancer survivors? An online modified reactive Delphi study. Cancers. 2021;13(10):2299. doi:https://doi.org/10.3390/cancers13102299
  33. Paterson C, Primeau C, Pullar I, Nabi G. Development of a prehabilitation multimodal supportive care interventions for men and their partners before radical prostatectomy for localized prostate cancer. Cancer Nurs. 2019;42(4):E47-E53. doi:https://doi.org/10.1097/NCC.0000000000000618
  34. Page MJ, Moher D, Bossuyt PM et al. PRISMA 2020 explanation and elaboration: updated guidance and exemplars for reporting systematic reviews. BMJ. 2021;372. doi:https://doi.org/10.1136/bmj.n160
  35. Schardt C, Adams MB, Owens T, Keitz S, Fontelo P. Utilization of the PICO framework to improve searching PubMed for clinical questions. BMC Med Inform Decis Mak. 2007;7(1):1-6. doi:https://doi.org/10.1186/1472-6947-7-16
  36. Hong QN, Fàbregues S, Bartlett G et al. The Mixed Methods Appraisal Tool (MMAT) version 2018 for information professionals and researchers. Educ Inf. 2018;34(4):285-291. doi:https://doi.org/10.3233/EFI-180221
  37. Baima J, Reynolds S-G, Edmiston K, Larkin A, Ward BM, O’Connor A. Teaching of independent exercises for prehabilitation in breast cancer. J Cancer Educ. 2017;32(2):252-256. doi:https://doi.org/10.1007/s13187-015-0940-y
  38. Brahmbhatt P, Sabiston CM, Lopez C et al. Feasibility of prehabilitation prior to breast cancer surgery: a mixed-methods study. Front Oncol. 2020:1979. doi:https://doi.org/10.3389/fonc.2020.571091
  39. Heiman J, Onerup A, Wessman C, Haglind E, Olofsson Bagge R. Recovery after breast cancer surgery following recommended pre and postoperative physical activity:(PhysSURG-B) randomized clinical trial. Br J Surg. 2021;108(1):32-39. doi:https://doi.org/10.1093/bjs/znaa007
  40. Knoerl R, Giobbie-Hurder A, Sannes TS et al. Exploring the impact of exercise and mind–body prehabilitation interventions on physical and psychological outcomes in women undergoing breast cancer surgery. Support Care Cancer. 2022;30(3):2027-2036. doi:https://doi.org/10.1007/s00520-021-06617-8
  41. Larson MR, Duberstein PR, Talbot NL, Caldwell C, Moynihan JA. A presurgical psychosocial intervention for breast cancer patients: Psychological distress and the immune response. J Psychosom Res. 2000;48(2):187-194. doi:https://doi.org/10.1016/S0022-3999(99)00110-5
  42. Sato F, Ishida T, Ohuchi N. The perioperative educational program for improving upper arm dysfunction in patients with breast cancer: a controlled trial. Tohoku J Exp Med. 2014;232(2):115-122. doi:https://doi.org/10.1620/tjem.232.115
  43. Springer BA, Levy E, McGarvey C et al. Pre-operative assessment enables early diagnosis and recovery of shoulder function in patients with breast cancer. Breast Cancer Res Treat. 2010;120(1):135-147. doi:https://doi.org/10.1007/s10549-009-0710-9
  44. Tamaki K, Fukuyama AK, Terukina S et al. Randomized trial of aromatherapy versus conventional care for breast cancer patients during perioperative periods. Breast Cancer Res Treat. 2017;162(3):523-531. doi:https://doi.org/10.1007/s10549-017-4134-7
  45. Tanaka M, Tanaka T, Takamatsu M et al. Effects of the Kampo medicine Yokukansan for perioperative anxiety and postoperative pain in women undergoing breast surgery: A randomized, controlled trial. PLoS One. 2021;16(11):e0260524. doi:https://doi.org/10.1371/journal.pone.0260524
  46. Thomsen T, Esbensen BA, Samuelsen S, Tønnesen H, Møller AM. Brief preoperative smoking cessation counselling in relation to breast cancer surgery: a qualitative study. Eur J Oncol Nurs. 2009;13(5):344-349. doi:https://doi.org/10.1016/j.ejon.2009.04.006
  47. Thomsen T, Tønnesen H, Okholm M, Kroman N, Maibom A, Sauerberg M-L, Møller AM. Brief smoking cessation intervention in relation to breast cancer surgery: a randomized controlled trial. Nicotine Tob Res. 2010;12(11):1118-1124. doi:https://doi.org/10.1093/ntr/ntq158
  48. Tian C, Wu L, Chen H et al. Comprehensive nursing reduces psychological pressure and improves the quality of life of breast cancer patients during the perioperative period. Int J Clin Exp Med. 2020;13(6):3833-3840
  49. Wu F, Rotimi O, Laza-Cagigas R, Rampal T. The feasibility and effects of a telehealth-delivered home-based prehabilitation program for cancer patients during the pandemic. Curr Oncol. 2021;28(3):2248-2259. doi:https://doi.org/10.3390/curroncol28030207
  50. Zgâia A, Pop F, Achimaș-Cadariu P et al. The impact of relaxation technique and pre-operative psychological counselling on pain, analgesic consumption and psychologicalsymptoms on patients scheduled for breast cancer surgery - A randomized clinical study. J Evid-Based Psychother. 2016;16(2):205-220
  51. Paterson C, Roberts C, Toohey K, McKie A. Prostate cancer prehabilitation and the importance of multimodal interventions for person-centred care and recovery. Semin Oncol Nurs. 2020;36(4):151048. doi:https://doi.org/10.1016/j.soncn.2020.151048
  52. Padubidri AN, Yetman R, Browne E, Lucas A, Papay F, Larive B, Zins J. Complications of postmastectomy breast reconstructions in smokers, ex-smokers, and nonsmokers. Plast Reconstr Surg. 2001;107(2):342-349. doi:https://doi.org/10.1097/00006534-200102000-00007
  53. Singareeka Raghavendra A, Kypriotakis G, Karam-Hage M et al. The impact of treatment for smoking on breast cancer patients' survival. Cancers. 2022;14(6):1464. doi:https://doi.org/10.3390/cancers14061464