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  • Review
  • Open Access

28 October 2022

21 Pages

Does Aerobic Exercise Facilitate Vaping and Smoking Cessation: A Systematic Review of Randomized Controlled Trials with Meta-Analysis

,
,
,
and
1
Al-Ahliyya Amman University, Department of Physiotherapy, Faculty of Allied Medical Sciences, Amman 19328, Jordan
2
Manchester Metropolitan University, Department of Life Sciences, Research Centre of Musculoskeletal Sciences and Sport Medicine, Manchester M15 6BH, UK
3
Manchester Metropolitan University, Department of Health Professions, Faculty of Health, Psychology and Social Care, Manchester M15 6BH, UK
4
Manchester Metropolitan University, Department of Sport and Exercise Sciences, Research Centre of Musculoskeletal Sciences and Sport Medicine, Manchester M15 6BH, UK

Abstract

Cigarette smokers try to quit using several strategies including electronic cigarette use (vaping). An alternative, easy and cheap method is exercise. However, little is known about the efficacy of aerobic exercise (AE) to augment smoking and vaping cessation. This study aimed to systematically review and discuss the reported effects of AE on long-term vaping and smoking cessation in randomized control trials (RCTs). RCTs were searched on different databases. The outcome measures included long-term vaping or smoking cessation and maximal or peak oxygen uptake (VO2max/peak) after vaping- or smoking cessation. Meta-analysis was conducted to examine the effects of AE on long-term vaping and smoking cessation, and the effects of AE on VO2max/peak. Cochrane Risk of Bias tool 2 was used to assess trials quality. Thirteen trials were included (5 high, 2 moderate and 6 low quality). Although two high quality trials revealed that 3 vigorous supervised AE sessions a week for 12 to 15 weeks increased the number of long-term successful quitters, the meta-analysis including the other trials showed that AE did not significantly increase success rate of long-term quitters. However, VO2max/peak was improved at the end of treatment. There were no trials on AE and vaping cessation. No evidence was found that AE promotes long-term smoking cessation. Nevertheless, AE improved VO2max and/or VO2peak in quitters.

1. Introduction

Smoking is considered the main risk factor for the development of preventable diseases such as cancers, cardiovascular diseases and respiratory disorders, including chronic obstructive pulmonary disease (COPD), and globally seven million deaths per year are attributable to smoking [1]. Smoking cessation (SC) reduces the risk of hospitalization due to chronic conditions, such as COPD, and is associated with significant life extensions [2,3]. As the annual death rate attributable to smoking is expected to increase within the next decades, the World Health Organization started calling upon governments and health institutes to develop anti-smoking regulations and interventions to further promote SC [1].
Although approximately 40% of smokers make at least one quit attempt annually [4], only fewer than 5% succeed [5]. Electronic-cigarette use (vaping) is promoted as a harmless and safe alternative to cigarette smoking [6] and uptake of vaping has been reported to be associated with higher rates of SC [7,8]. Vaping may, however, not be as harmless as originally thought and has been reported to cause similar detrimental effects on lung and cardiovascular function as smoking [9,10]. Such harmful effects may well contribute to the reportedly 33% of vapers that are willing to visit a vaping cessation service if available in their neighbourhood [11].
Beside vaping, SC interventions vary from pharmacotherapies including nicotine replacement therapy and SC counselling [12] to meditation and yoga programmes [13]. However, the success of these interventions is influenced by many factors such as the dose, type and duration of medication, intervention or counselling, motivational skills of SC advisors, follow-up periods, smokers’ adherence, duration of smoking and number of cigarettes one used to smoke per day. Indeed, the long-term effectiveness of these interventions remains ambiguous [14,15,16,17] and it is essential to keep looking for other interventions and assess their effectiveness.
One such potential alternative SC intervention is aerobic exercise. Exercise interventions are categorised as, e.g., aerobic, strengthening or relaxation exercises. As vaping and smoking particularly affect the cardiovascular and respiratory systems we consider here the impact of aerobic exercise training on the success of vaping and smoking cessation. In addition, it has been shown that aerobic exercise improves mood, well-being, and alleviates anxiety and depression, thereby contributing to the often-reported improvement in the quality of life [18,19,20,21,22]. Perhaps even more important is that exercise is easy to access and cheap and therefore one may consider exercise as a viable intervention to facilitate SC, particularly via the reduction in nicotine withdrawal symptoms and cigarette craving [23,24].
The mechanism by which aerobic exercise may enhance SC is not fully clear, but a number of mechanisms have been postulated, including raised endorphins, distraction and increased self-efficacy. It is known for example, that aerobic exercise induces an increase in plasma β-endorphins [25] that is dependent on the intensity and duration of the exercise performed [26]. The exercise-induced rise in β-endorphin levels may be significant as it has been found that higher levels were associated with fewer smoking relapses after cessation [27]. Additional mechanisms whereby aerobic exercise may facilitate SC are (1) increased proprioceptive input due to larger and more frequent movements that could distract smokers from cigarette craving [28] and (2) improved image self-efficacy [29]. Despite these potential mechanisms, the long-term benefits of exercise for smoking- and vaping- cessation are not clear.
When prescribing or describing exercise interventions, it is important to consider the frequency, intensity, time and type (FITT) of exercise [30,31,32]. The benefits of exercise training for vaping and smoking cessation may well depend on the duration, intensity and frequency of exercise training. As it is unclear whether aerobic exercise facilitates SC, a systematic review evaluating the effects of different exercise prescriptions (including the FITT principle) for vaping- and smoking cessation is warranted. Therefore, the aim of this review is to assess the effectiveness of aerobic exercise interventions on long-term vaping cessation and SC, and maximal and/or peak oxygen uptake. Where feasible this will be evaluated with meta-analyses.

2. Methodology

2.1. Purpose

The objectives were to review and discuss the reported effects of aerobic exercise on long-term vaping and smoking cessation, and to conduct a meta-analysis for the included trials.

2.2. Design

The study was designed to provide a systematic review with quality assessment, narrative synthesis, and meta-analysis of relevant published literature.

2.3. Study Protocol

The protocol of this systematic review is registered in the International prospective register of systematic reviews database (PROSPERO) (registration number: CRD42021232759; 2021).

2.4. Search Strategy

The following electronic databases were searched for trials published between 1 January 1970 to 19 January 2022: EBSCO host database including MEDLINE, AMED, SPORTDiscus and CINAHL; and PEDro. These databases were chosen because of the likely availability of exercise-related trials in these databases. Reference lists of included trials were hand searched to identify other potentially relevant trials. Trials included were limited to those written in English and published in peer-reviewed journals. Results of the searches were managed using Endnote Version X7 (Clarivate Analytics, Philadelphia, PA, USA).

2.5. Keywords

Search terms were adapted to meet the search requirements of each electronic database. The keywords used were structured according to the PICOS approach (population, intervention, comparison, outcome measures and study design) [33]. Table 1 summarizes the combinations of keywords included in the search strategies. PICOS search terms were combined using Boolean operators ‘AND’ and ‘OR’. The search was limited to randomised controlled trials (RCTs). To allow reproducibility of the search, the Medical Subject Headings (MeSH) were used.
Table 1. Keywords and search strategy used, using the PICOS approach in the selected databases.

2.6. Inclusion/Exclusion Criteria for the Trials

2.6.1. Inclusion Criteria

Trials were included if:
  • they included men & women > 18 years old
  • they assessed continued/prolonged vaping cessation/smoking cessation by means of objective measures such as carbon monoxide (CO), cotinine and/or thiocyanate level
  • participants had been smoking for ≥6 months and smoked/smoke ≥5 cigarettes per day or vaped for ≥6 months

2.6.2. Exclusion Criteria

Trials were excluded if:
  • the intervention was other than cardiovascular/aerobic exercise, or if the aerobic exercise was combined with another type of exercise
  • the exercise type used was not identified
  • the outcome measures did not include CO, cotinine and/or thiocyanate
  • the period of vaping/smoking cessation was less than six months
  • not written in English language
  • participants were diagnosed with psychiatric illness that could affect their exercise adherence (for example: depression or anxiety)
  • there were substance misuse problems (such as drugs and alcohol abuse)
  • participants were pregnant
  • participants suffered from any medical condition that might affect their exercise performance such as musculoskeletal or neurological conditions
  • published protocols were presented but without published data/results, or if they were conference abstracts

2.7. Study Selection

The first reviewer (MD) retrieved all trials from initial database searches and imported these into Endnote software. Trials were screened for suitability by the first reviewer (MD) by consulting the title and abstract against the pre-defined eligibility criteria for potential full-text review. The second reviewer (AA) independently screened the trials by consulting titles and abstracts against the pre-defined eligibility criteria for potential full text review.

2.8. Risk of Bias and Quality Assessment of the Included Trials

Risk of bias of included trials was assessed using the Cochrane Risk of Bias tool 2 (CROB 2). Two review authors independently assessed the risk of bias. The following were assessed using the CROB 2: (1) bias arising from the randomization process; (2) bias due to deviations from intended interventions; (3) bias due to missing outcome data; (4) bias in measurement of the outcome; (5) bias in selection of the reported result.
Two review authors independently assessed the quality of the included trials using the PEDro Scale, a validated tool for assessment of quality of interventional trials specifically related to physiotherapy interventions [34,35]. The PEDro scale contains 11 items, and trials are awarded between 0 and 10 points, depending on the number of criteria they meet (the first item is not used to calculate the summary score). Trials with scores of four points or more are classified as “high-quality”, whereas trials with three points or fewer are classified as “low-quality” [34,35]. PEDro and CROB 2 scores for the trials were not used as inclusion or exclusion criteria, but as a basis for best-evidence synthesis and to determine the strengths and weaknesses of each trial.

2.9. Data Extraction

The following data were extracted from the included trials: author name(s); year of publication; sample size; age; intervention for each group; outcome measures; comparator group; duration of the follow-up period; number of participants at baseline; number of participants who remained abstained at the final follow-up period; intervention for each group, including exercise prescription component (frequency, intensity, time and type of exercise); the physiological effect of aerobic exercise on cessation (e.g., increases in maximal and/or peak oxygen uptake) after vaping/smoking cessation.
Extracted data were consulted and checked with the second reviewer (AA).

2.10. Outcome Measures

The main outcome measure was the proportion of participants who successfully quit vaping or smoking for at least six months, verified by objective measures such as CO, cotinine and/or thiocyanate concertation at the last/longest period of assessment (follow up).
Where reported, the physiological effect of aerobic exercise was included in the review, e.g., increases in maximal and/or peak oxygen uptake (VO2max/peak) after vaping/smoking cessation.

2.11. Measurement of Treatment Effect

The risk ratio (RR) was calculated as = (quitters in exercise group/total randomised to exercise group)/(quitters in control group/total randomised to control group), with a 95% confidence interval (CI). Where more than one exercise group was included, the sum of the participants in all exercise groups was compared with the sum of all participants in all control (non-exercise) groups.
Standardised mean differences and their 95% CI were calculated from the data generated by each included randomised controlled trial for VO2max or VO2peak results. Forest plots were used to present the effectiveness of exercise on vaping- and smoking cessation, and the effects of aerobic exercise on VO2max or VO2peak, using the OpenMetaAnalyst software.
Where statistical pooling was not possible, the findings were presented in narrative form.

2.12. Dealing with Missing Data

All data that were available in the included trials were included in the Meta-analysis with intention-to-treat.

2.13. Heterogeneity Assessment

After pooling data from the trials, statistical heterogeneity was determined using the I2 statistic [36]. I2 < 50% indicates low heterogeneity.

3. Results

3.1. Results of the Search

The systematic search identified 545 articles, 85 of which were duplicates. After screening the titles and abstracts, 385 publications were considered not relevant. Of the 75 remaining trials, 62 were excluded: 10 were using combined exercises, or combined exercise and diet management; 3 included participants with diagnosed depression; 11 did not include objective smoking cessation measures (such as CO, cotinine, or thiocyanate); 28 did not include aerobic exercise or did not specify the type of exercise used; in 5 the follow up on the effects of aerobic exercise was <6 months; 3 aimed for smoking reduction not cessation; 1 only conducted exercise counselling but not exercise and 1 trial presented preliminary results for an already included full trial. Consequently, 13 trials were included. Figure 1 shows the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) flow-chart for the included/excluded search records. Table 2 is the data extraction table for the included 13 trials. No disagreement was encountered between the first and second reviewer in study selection.
Figure 1. The PRISMA flow-chart for the search records and the included trials.

3.2. Risk of Bias and Quality Assessment

Five trials were at low risk of bias (low risk of bias across all domains, or low risk of bias in four domains and one domain with “some concern”), six trials were at high risk of bias (high risk of bias in at least one domain), and the remaining two at unclear/some concern of risk of bias. A summary of the CROB2 results is shown in Figure 2.
Figure 2. Results of the Cochrane Risk of Bias (CROB2) for the included trials. References cited in the figure are: [37,38,39,40,41,42,43,44,45,46,47,48,49].
The PEDro scale results revealed that the included trials were of high quality (total PEDro score > 4 points), with most of the trials scoring 6 points. Only one trial scored 5 [37], as groups were not similar at baseline (Table 3). Three trials scored 7 [38,39,40], because allocation of participants was concealed. No disagreement was encountered between the first and second reviewer in terms of risk of bias assessment.
Table 3. Results of the PEDro scale for quality assessment for the included randomised controlled trials.
Table 2. Data extraction table for the included trials.

4. Meta-Analysis Results

4.1. Effectiveness of Aerobic Exercise to Facilitate Smoking Cessation

To assess the effectiveness of aerobic exercise to facilitate smoking cessation, 12 trials comparing exercise groups to non-exercise groups were subjected to a meta-analysis (Figure 3). One trial of moderate quality could not be used for the analysis, as they did not report the number of participants, or proportion of the total number of participants in each group [49]. The meta-analysis showed that aerobic exercise did not significantly enhance the success rate of SC (Figure 3).
Figure 3. Forest plot for the success of Smoking cessation (SC). CI: confidence interval; Ev: number of quitters in the exercise group/s at the last follow-up session; Trt: number of participants in the exercise group at baseline; Ctrl: number of participants in the non-exercise group/s at baseline session. References cited in the figure are: [37,38,39,40,41,42,43,44,45,46,47,48].

4.2. Effects of Exercise during Smoking Cessation Interventions on VO2max and/or VO2peak

A meta-analysis of 5 trials (three high, one moderate and one low quality) [41,45,46,47] showed that aerobic exercise during smoking cessation interventions resulted in a higher VO2max and/or VO2peak than the other groups post intervention (Figure 4). No significant heterogeneity was found. The other trials were not included in the meta-analysis as they did not report mean and standard deviations for VO2max and/or VO2peak for each group.
Figure 4. Forest plot for the trials on the effects of the intervention on maximal oxygen uptake (VO2max and/or VO2peak). CI: confidence interval. The positive value of the ‘Mean Difference’ (y-axis) reflects a larger increase in VO2max and/or VO2peak (in mL/min/kg) in the exercisers compared to non-exercisers. References cited in the figure are: [40,41,45,46,47].

5. Discussion

This review included a meta-analysis of 13 trials which assessed the effectiveness of aerobic exercise interventions on long-term SC and VO2max and/or VO2peak. The main finding of this review was that there is no evidence that aerobic exercise enhances long-term SC. Nevertheless, aerobic exercise improved cardiopulmonary fitness in those who successfully quit smoking. The search identified no trials that assessed the effects of aerobic exercise on vaping cessation.

5.1. Design of the Exercise Studies and Verification of Smoking Cessation

Comparator groups received the same intervention as the exercise group, and consisted of face-to-face consultation [37,39,40,41,42,44,45,46,47,48,49], telephone counselling [41], behavioural treatment [43,48], nicotine gum [38,43], nicotine patch [48], inhalers [38], cognitive therapy [48], or combination of more than one treatment. In the trials included in the meta-analysis, smoking cessation was confirmed by measurement of the expired CO [38,39,40,41,42,43,44,46,47,48,49], saliva cotinine [40,45,46,47,48] or plasma thiocyanate [37] concentrations.

5.2. Exercise Interventions Do Not Enhance Smoking Cessation

When studying the benefits of exercise interventions for smoking cessation it is important to consider whether that is influenced by the frequency, intensity, time and type (FITT) of exercise [30,31,32].
Only two high quality trials reported that aerobic exercise intervention resulted in higher number of long-term successful quitters compared to other interventions [45,47]. These trials used 3 vigorous-intensity exercise sessions a week for 12–15 weeks. This is, however, an equivocal observation as three other high-quality trials with similar intensity, frequency and duration of exercise did not report a significant improvement in SC after aerobic exercise interventions [42,43,46]. As the effectiveness of exercise programs is highly dependent on adherence [50], it is possible that the benefits of exercise in two trials [45,47] and no benefits in another trial is related to the high adherence (68.7% and 88%, respectively), or low (55%) adherence [43] to the exercise interventions.

5.3. Exercise during Smoking Cessation Interventions Enhances VO2max and/or VO2peak

Even if exercise does not benefit SC, there are substantial other benefits of exercise, such as the negative association with the prevalence of lung carcinoma in smokers and quitters [51] and a significant reduction in the mortality of smokers [52]. In addition, exercise during smoking cessation interventions led to a significant improvement in VO2max and/or VO2peak [40,41,42,44,45,46,47,48]. Improvements in VO2max indicate improved aerobic exercise capacity and may also contribute to a reduction in the development of numerous clinical conditions and morbidities [53]. Besides these benefits for exercise capacity and diminishing the risk of future morbidity, there are also other physiological and psychological benefits to exercise as an adjunct to SC [54,55]. For example, exercise led to a reduction in withdrawal symptoms and improvement in psychological wellbeing, such as reduction in anxiety, depression and mood-swings [40,41,49]. Thus, even though exercise did not enhance the success rate of smoking cessation it nevertheless has significant beneficial effects for people seeking to stop smoking.

6. Vaping Cessation and Exercise

We were unable to locate any articles on the benefits of exercise for vaping cessation or improvement of VO2max and/or VO2peak. However, given that the effects of smoking and vaping bear similarities [9,10] we expect that exercise will also have benefits for VO2max and/or VO2peak during vaping cessation.

7. Limitations

The low number of trials included in the meta-analysis on the effects of aerobic exercise on smoking cessation and cardiopulmonary fitness is a limitation in this review. In addition, this review excluded some special populations such as those suffering from asthma, COPD and/or pregnant women, in which exercise may enhance the success rate of smoking cessation. We also did not come across any studies on the benefits of exercise during vaping cessation.

8. Strengths

This review included only randomized control trials and used a rigorous tool to assess the quality of the trials (CROB2) to select best quality evidence. A Meta-analysis was conducted for both the effects of aerobic exercise on long-term SC and VO2max and/or VO2peak. The review protocol was registered in PROSPERO database.
Future research is recommended to look at the effects of aerobic exercise on vaping cessation. Additionally, better quality of trial designs is recommended for future research. There is some evidence that supervised exercise sessions lead to a better rate of SC. We therefore suggest that further trials with supervised exercise sessions are warranted to investigate whether indeed supervised trails enhance the success rate of SC.

9. Conclusions

The meta-analysis showed no evidence that aerobic exercise promotes long-term smoking cessation. However, aerobic exercise improved VO2max and/or VO2peak and mental wellbeing in those who stopped smoking. The search identified no trials on the effects of aerobic exercise on vaping cessation. These observations encourage the inclusion of regular aerobic exercise in smoking- (and perhaps also vaping-) cessation programs.

10. Impact/Implication

This review suggests that aerobic exercise does not benefit the success of long-term smoking cessation. However, VO2max and/or VO2peak was improved in those who stopped smoking and will have a significant benefit for health and quality of life. It is therefore advisable to include aerobic exercise to any intervention for smoking cessation.

Author Contributions

All authors contributed to the study conception, design and preparation. M.Z.D. and A.A. extracted the data. M.Z.D. analysed the data. M.Z.D. wrote the first draft of the manuscript. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Data Availability Statement

Data is contained within the article.

Conflicts of Interest

The authors declare no conflict of interest.

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