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. 2022 Feb 14;31(3):625–638. doi: 10.1111/inm.12981

An exploration of New Zealand mental health nurses’ personal physical activities

Glen Philbrick 1,✉, Nicolette Fay Sheridan 1, Kay McCauley 1
PMCID: PMC9305261  PMID: 35166003

Abstract

This study assessed the physical activities of Mental Health Nurses (MHN) in New Zealand against the 2018 World Health Organization recommended minimum levels of moderate‐to‐vigorous physical activity. The research design was exploratory and descriptive as there were no previous studies about physical activity levels of MHNs in New Zealand. Quantitative and qualitative data were collected using the International Physical Activity Questionnaire (IPAQ, Long Version) which included options for free‐text responses. Data were analysed using descriptive and inferential statistics. A total of 266 participants returned the survey, a response rate of 4%, and a limitation of the study. More than 50% of MHNs reported <150 min of moderate‐to‐vigorous exercise per week for each of the four physical activity domains. When individual physical activity domains were combined, only 10% spent <150 min on moderate‐to‐vigorous physical activity. Work‐related physical activities were higher for those working in the inpatient area than in community settings. Transport‐related physical activities were higher for those working in community settings. Participants registered from 6 to 20 years had more time sitting than other groups. Nurses aged 55 years and above showed the highest total physical activity levels. Moreover, healthcare organizations and nurse leaders need to promote physical activity and provide wellness intervention for their staff. Nurses who are physically active may be more effective in supporting their patients to increase their physical activity.

Keywords: health promotion, mental health, nurses, physical activity, physical inactivity

Introduction

World Health Organization guidelines recommend that every individual should undertake at least 150 min of moderate or vigorous physical activity per week (World Health Organization 2018). Physical inactivity is a major global health pandemic and one of the leading causes of morbidity and premature mortality worldwide (Blake et al. 2017; Hafner et al. 2020; Lee et al. 2012; Lobelo et al. 2014). Global physical inactivity levels in some countries are up to 70%, due to changing transport patterns, increased digital and technological communication, and urbanization (World Health Organization 2018). In 2016, the World Health Organization estimated that the global prevalence of physical inactivity was 27.5%; however, over the last two decades, this prevalence has ranged between 23% and 32% due to variations in measurement methods (Guthold et al. 2018; WHO 2018).

There is overwhelming evidence that physical inactivity is linked to an increased risk of non‐communicable diseases including, coronary heart disease, type 2 diabetes, stroke, hypertension, and several cancers (Beighton et al. 2015; Friedenreich et al. 2021; Hallal et al. 2012; Laeremans et al. 2017; Lobelo & de Quevedo 2016; Silva et al. 2018). Physical inactivity is also associated with non‐communicable disease risk factors such as hypertension, overweight, and obesity (Faruque et al. 2021) and a higher risk for severe COVID‐19 outcomes (Sallis et al. 2021). Of particular concern is 7.2% and 7.6% of non‐communicable diseases and cardiovascular deaths globally are attributed to physical inactivity (Katzmarzyk et al. 2021). Globally, 7.2% and 7.6% of all‐cause and cardiovascular disease deaths, respectively, are attributable to physical inactivity.

The financial cost of global physical inactivity to the world healthcare system in 2013 was estimated at US$53.8 billion dollars (Ding et al. 2016). This estimate was retrieved from direct healthcare costs, productivity costs, and disability‐adjusted‐life costs associated with the global physical inactivity levels from 142 countries, comprising 92.1% of the world’s total population (Ding et al. 2016).

Background

Physical inactivity in registered nurses

There is a paucity of research on registered mental health nurses’ (MHNs) physical activity levels in New Zealand. However, there have been numerous studies investigating the physical activity levels of registered nurses globally. Previous research has revealed that nurses’ participation rate in physical activity is among the lowest compared with other professions (Chan & Perry 2012). Jirathananuwat and Pongpirul (2017) conducted a cross‐sectional survey and compared the physical activity levels of 142 nurse clinical practitioners with 147 nurse managers during working hours. The average moderate‐to‐vigorous physical activity levels for all nurse clinical practitioners and nurse managers were 113.12 min per week, which did not meet the World Health Organization (2018) mandated physical activity‐level guidelines, which were current at the time of the study. Reed et al. (2018) undertook a multi‐centre cross‐sectional study across 14 hospitals to assess the physical activity levels of 410 nurses. Only 23% of nurses met the World Health Organization (2018) minimum recommended daily levels of physical activities of ‘at least 150 min per week of moderate‐to‐vigorous intensity physical activity’. The collective evidence from the literature suggests that nurses are not achieving the World Health Organization (2018) minimum recommended daily levels of physical activities (Bakhshi et al. 2015; Chappel et al. 2017; Flannery et al. 2014; Jirathananuwat & Pongpirul 2017; McCarthy et al. 2018; Reed et al. 2018; Ross et al. 2017; Torquati et al. 2017).

Occupational physical activity levels

Different types of physical activity are defined as any bodily movement produced by skeletal muscles that requires energy expenditure. Physical activity refers to all movement including during leisure time, for transport to get to and from places, or as part of a person’s work. Both moderate‐intensity physical activity and vigorous‐intensity physical activity improve health (World Health Organization 2020).

Several studies have reported that nurses’ occupational physical activity levels were found to be of light to moderate intensity and not meeting the moderate‐to‐vigorous physical activity‐level recommendations (Chappel et al. 2017; Lee et al. 2005). These findings have been confirmed by several studies, including an Australian study by Zhao et al. (2012), which revealed that 50% of nurses reported low occupational physical activity levels, which did not meet the minimum levels of physical activity recommendations.

Moreover, despite studies showing nurses walking up to five miles during a 10‐h shift, most nurses do not meet the minimum global moderate‐to‐vigorous physical activity levels (McCarthy et al. 2018).

Conversely, a study from the United States of America of exercise habits of nurses conducted by Flannery et al. (2014) found that 76.9% of 71 nurses achieved the national minimum guidelines for exercise (300 min of exercise per week). However, the authors suggested that the participants over‐reported their physical activity levels.

Sedentary behaviour

Over the last decade, there has been an exponential growth in the research of ‘sedentary behaviour’ (and the potentially detrimental effects on health). Sedentary behaviour ‘comprises a set of waking time activities characterized by an energy expenditure of ≤1.5 metabolic equivalents in a sitting or reclining posture’ (Sedentary Behaviour Research Network 2012; Tremblay et al. 2017). Numerous studies have reported that on workdays, nurses spend more than fifty per cent of their time being sedentary and very few attain current physical activity recommendations (Prince et al. 2019; Ratner & Sawatzky 2009; Reed et al. 2018). Prince et al. (2019) revealed that nurses spend 7.5 waking hours/day being sedentary. Similar results demonstrated that public health nurses remained seated without movement for over 8 h per day (Lin et al. 2018).

These findings are concerning as there is mounting evidence of a greater risk of cardiometabolic disease and mortality when sedentary time exceeds 8 h daily (Ekelund et al. 2016; Prince et al. 2019).

Contributing factors to low physical activity levels

Contributing factors to low physical activity levels include overwork, irregular shifts, and stress (Torquati et al. 2017). Other barriers include the nurse’s age, poor self‐care, beliefs about exercise, lack of time, inadequate support, limited access to exercise facilities, and decentralized nurses’ stations, resulting in nurses walking shorter distances (Al‐Kandari et al. 2008; Reed et al. 2018; Ross et al. 2017).

Consequently, there is an urgent need for strategies to increase nurses’ physical activity levels and mitigate the risk of nurses developing NCDs (Torquati et al. 2017).

Nurse’s role in health promotion

Health professionals can play a key role in overcoming the current global pandemic of physical inactivity (Sundberg 2016). Several studies confirmed that nurses who engage in health‐promoting physical activity are better role models and advocates for promoting health in their consumers (Bakhshi et al. 2015; Esposito & Fitzpatrick 2011). Stanton et al. (2015) argued barriers for nurses to provide exercise counselling included their low confidence to prescribe exercise, lack of time, and lack of training. Duignan and Duignan (2017) recommended all emergency nurses are trained in motivational interviewing for the purpose of promoting physical activity and exercise with their consumers.

It is concerning that the rate of physical inactivity in individuals diagnosed with serious mental illness was greater than the general population (Happell et al. 2012; Rosenbaum et al. 2016). The mental health nursing workforce is strategically placed to educate, empower, and implement physical activity counselling and interventions for mental health consumers (Happell et al. 2012). However, to the best of our knowledge, no study has investigated the physical activity levels of mental health nurses (MHNs).

This study aimed to examine the physical activities of MHNs in New Zealand and whether they achieved WHO recommended minimum levels of moderate‐to‐vigorous physical activity (World Health Organization 2018).

Method

Design

The research design was exploratory and descriptive as there were no previous studies about physical activity levels of MHNs in New Zealand. The International Physical Activity Questionnaire (IPAQ), questions about demographics (gender, age, employment setting, years of nursing practice experience, ethnicity), and an open text response question, were sent via an email link to all known MHNs in NZ in 2018.

Participants

Potential participants were identified from three membership bodies: New Zealand College of Mental Health Nurses (NZCMHN, n = 280), New Zealand Nurses Organisation (NZNO, n = 752), and Public Service Association (PSA, n = 5630).

In 2018, the researcher sent a letter to the president of each of the membership bodies requesting assistance with recruitment. Each president agreed to email all members a cover letter, Participant Information Sheet, and flyer with an anonymous SurveyMonkey link to the IPAQ. The Participant Information Sheet included an overview and guide to the IPAQ.

Data collection

The IPAQ (Long Version) instrument (Craig et al. 2003) is open access. The instrument was approved as culturally safe, without changes, by the Māori Health Development Unit in an urban city hospital. The key feature of the IPAQ is ‘its ability to provide, in detail, participation estimates for multiple domains of physical activity, including leisure‐time physical activity, physical activity for transportation, physical activity in the home and physical activity at work’ (Sebastiao et al. 2012 p. 968).

Each domain includes three categories: ‘walking (W)’, ‘moderate‐intensity (M)’, and ‘vigorous‐intensity activity (V)’. These categories are scored from duration (minutes) and frequency (days) when reporting physical activity levels data outcomes (IPAQ Group 2015).

The category scores were defined as high, medium, and low physical activity for each of the above four activity domains based on guidelines for ≥150 and <150 min per week for all activities lasting longer than 10 min each time (Lear et al. 2017). Total weekly levels of moderate‐intensity physical activity were measured.

The IPAQ is the most widely used instrument to collect physical activity level information from a population (Silva et al. 2017). Because the IPAQ is a self‐report instrument, it may be subject to bias and inaccuracies, and previous studies have shown conflicting results between the IPAQ and accelerometers (Silva et al. 2017).

Some researchers advise combining the IPAQ with an accelerometer to avoid self‐report bias (Silva et al. 2017). However, the use of accelerometers was beyond the scope of this study. Other researchers have found the IPAQ to have sufficient test–retest reliability (Blake et al. 2017).

The IPAQ produced repeatable data as evidenced by the correlation coefficient score of 0.8 across 12 countries (Craig et al. 2003). The criterion validity had a median ρ of 0.30 and was comparable to other self‐report validation studies.

Ethics approval

This study obtained approval from the Massey University Ethics Committee and complied with the Massey University Code of Ethical Conduct (Massey University, 2017). This study was identified as ‘low risk’. Approval ID Number 4000017802.

Informed consent

This research project ensured all participants had sufficient information before the study to provide informed consent without feeling coerced or made to feel obliged to participate.

The participant information sheet informed potential participants that they could withdraw from the online survey before submitting their questionnaire responses. Once submitted, participants could not withdraw because all responses were anonymous.

Statistical analysis

All online survey questionnaire responses were analysed using descriptive and inferential statistics.

The data were analysed using the IBM SPSS Statistics version 24.0 (IBM Corp 2016) and R software (ver. 3.5.1) (R Core Team 2013). The descriptive statistics were used to summarize demographic data. Due to the small counts in some demographic data groups, data were merged. The nonparametric alternative methods used include the Wilcoxon rank‐sum test and the Kruskal–Wallis rank‐sum test. The Wilcoxon rank‐sum test is used when the data are not normally distributed (DePoy & Gitlin 2015). The Kruskal–Wallis test evaluated the differences among groups by estimating rank differences among them. If the Kruskal–Wallis test is significant, then a post hoc test is conducted using the Wilcoxon rank‐sum test, which then investigates which groups differ significantly, using pairwise comparisons.

Results

Demographic data of survey participants

Responses were received from 266 MHNs. Of the 266 participants, 200 (75%) were female (Table 1). Forty‐five per cent of participants were 35–54 years of age, and 38% were 55 years and above. Most were NZ European/Pakeha (74%) with 15% Other Europeans. New Zealand Maori were 3.1% and Pacific peoples 12.6%. All other ethnic groups comprised 5.7% of the study population. The mental health employment settings primarily included community comprised of 60% male and female MHN’s. Inpatient employment settings included 34.8% male and 33% female MHN’s. The number of years participants were registered as a MHN included <12 months (5%), 1–5 years (17%), 6–11 years (13%), 12–20 years (21%), 21–30 years (21%), and 31 years or greater (23%).

Table 1.

Demographic data of survey participants

Demographic variable Groups Gender Male Female
Age 18‐24 years 0.0% 3.0%
25‐34 years 9.0 16.5
35‐54 years 43.9 46.5
>55 years 47 34.0
Ethnicity NZ European/Pakeha 68.3 75.3
Other European 20.0 13.6
NZ Maori 0.0 3.1
Cook Island Maori 1.7 0.6
Tongan 1.7 0.6
Niuean 1.7 0.0
Tokelauan 3.3 1.8
Fijian 0.0 0.6
Other Pacific Peoples 0.0 0.6
Indian 3.3 1.2
Other Asian 0.0 0.6
African 0.0 0.6
Mental health clinic setting Inpatient 34.8 33
Community 60.0 60
Nursing Education 1.5 2.0
Nursing Management 4.5 3.0
Nursing Policy & Research 0.0 1.5
Years of registration < 12 months 1.6 5.6
1–5 years 9.5 19.8
6–11 years 11.1 13.2
12–20 years 19.0 22.3
21–30 years 28.57 19.29
31 years + 30.16 19.80

Total weekly mean minutes of work‐related physical activity

Figure 1 shows no statistically significant associations between total time for work‐related physical activity and sociodemographic variables.

Fig. 1.

Fig. 1

Graphical display of mean total minutes of physical activities weekly using bar plots shows the distributions of the total weekly minutes of work, transport, sitting behaviours, and total physical activities (leisure and household physical activity levels were not specifically reported in this study, but were included in the total physical activity calculation). Vertical lines in the centre of each blue bar are error bars. Error bars shows how precise a measurement is. The lower limit of the error bar is equal mean value (top of the bar) minus standard deviation (one or two). The upper limit of the error bar is equal mean value plus standard deviation (one or two). Bar plots show mean +/‐ 2 standard deviations. (1.1) Total weekly mean minutes of work‐related physical activity by gender, age ethnicity, area of work, and years of registration. (1.2) Barplots of Total Weekly Mean Minutes of Transport‐related Physical Activity by gender, age ethnicity, area of work, and years of registration. (1.3) Barplots of Total Mean Minutes Spent Sitting by gender, age ethnicity, area of work, and years of registration. (1.4) Barplots of Mean total weekly minutes of all physical activities by gender, age ethnicity, area of work, and years of registration.

Nonparametric results for total weekly minutes of work‐related physical activity

The Wilcoxon rank‐sum test results for total weekly minutes of work‐related physical activity (Table 2) demonstrated that participants working in inpatient areas of mental health (median = 240) scored higher on work‐related physical activity than participants in the community or other areas of mental health (median = 70).

Table 2.

Wilcoxon rank‐sum test results for total weekly minutes of job‐related physical activity

Variable/Group n Median IQR Mean Mean rank W statistic df P‐value
Gender 1700 1 0.759
Female 199 90 230 221 130
Male 66 90 150 160 147
Ethnicity 2249 1 0.477
NZ European 164 80 200 203 133
Others 103 100 235 215 135
Area 1347 1 0.0002
Community & others 178 70 148 141 128
Inpatient 89 240 390 352 146

The Wilcoxon rank‐sum test W‐value was statistically significant (W = 1347, P = 0.0002). The Kruskal–Wallis test results in Table 3 showed no significant difference in the mean ranks between the three age groups (H (2) = 0.747, P = 0.688).

Table 3.

Kruskal–Wallis test results for total weekly minutes of job‐related physical activity

Variable/Group n Median IQR Mean Mean rank H statistic df P‐value
Age 0.747 2 0.688
18–34 years 45 100 165 163 119
35–54 years 122 75 218 241 135
55 years or above 100 90 240 191 140
Registration 0.486 2 0.784
0–5 years 57 100 270 183 112
6–20 years 121 75 260 250 145
21+ years 89 90 152 195 136

Total weekly mean minutes of transport‐related physical activity

The mean total weekly minutes of transport‐related physical activity revealed no associations between sociodemographic variables on the mean total times for transport‐related physical activity levels.

The error bars for all categories were sizeable and overlapping. Therefore, the effects of sociodemographic variables on the mean total times for the transport physical activity domain are inconclusive (Fig. 1.2).

Nonparametric results for total weekly minutes of transport‐related physical activity

Participants working in the community and other areas of mental health (median = 150) scored higher on transport‐related physical activity than participants working in inpatient employment settings (median = 100) (Table 4). The Wilcoxon rank‐sum test W‐value was statistically significant (W = 7789, P = 0.003).

Table 4.

Wilcoxon rank‐sum test results for total weekly minutes of transport‐related physical activity

Variable/Group n Median IQR Mean Mean rank W statistic df P‐value
Gender 5898 1 .380
Female 199 130 160 218 138
Male 66 120 128 168 123
Ethnicity 6514 1 .722
NZ European 164 120 130 192 128
Others 103 130 180 225 144
Area 7789 1 .003
Community & others 178 150 180 215 139
Inpatient 89 100 102 180 123

The Kruskal–Wallis test for total weekly minutes of transport‐related physical activity levels revealed that there was a significant difference of mean ranks (H (5) = 5.976, P = 0.050) between the age groups of 18–34 years, 35–54 years, and 55 years and above (Table 5). Post hoc analyses using the Wilcoxon rank‐sum test were then applied to test pairwise comparisons. The P‐value was adjusted using the Benjamini–Hochberg method to control for multiple comparisons.

Table 5.

Kruskal–Wallis test results for total weekly minutes of transport‐related physical activity

Variable/Group n Median IQR Mean Mean rank H statistic df P‐value
Age 5.976 2 .050
18–34 years 45 120 105 205 126
35–54 years 122 120 150 194 125
55 years or above 100 160 190 216 149
Registration 1.210 2 .546
0–5 years 57 130 120 208 129
6–20 years 121 120 125 204 134
21+ years 89 130 190 203 137

The Wilcoxon rank‐sum test for total weekly minutes of transport in Table 6 showed none of the pairs were significant at the 5% level. The following two pairs were only marginally significant: 18–34 years compared with 55 years and above (P = 0.084) and 35–54 years compared with 55 years and above (P = 0.084).

Table 6.

Pairwise comparisons using Wilcoxon rank‐sum test for total weekly minutes of transport‐related physical activity between age groups (P‐values)

18–34 years 35–54 years
35–54 years 0.844
55 years or above 0.084 0.084

Total mean minutes spent sitting

Figure 1.3 shows non‐significant differences in total weekly sitting time by gender.

Nonparametric results for total weekly minutes of sitting behaviours

The Wilcoxon rank‐sum test showed no significant evidence of a difference in the mean rank scores on gender, ethnicity, and area categories for total weekly minutes spent sitting. (Table 7).

Table 7.

Wilcoxon rank‐sum test results for total minutes spent sitting weekly

Variable/Group n Median IQR Mean Mean rank W statistic df P‐value
Gender 4451 1 .563
Female 199 600 420 725 135
Male 66 590 375 726 128
Ethnicity 5081 1 .252
NZ European 164 600 420 704 127
Others 103 600 372 784 145
Area 5324 1 .939
Community & others 178 600 420 741 133
Inpatient 89 600 420 716 136

The Kruskal–Wallis test for total weekly minutes spent sitting showed that there was a significant difference in the mean ranks between registration (H(2) = 8.694, P = 0.013) for 0–5 years, 6–20 years, and 21+ years (Table 8). A post hoc analysis using the Wilcoxon rank‐sum test was conducted to test pairwise comparisons. The P‐value was adjusted using the Benjamini–Hochberg method to control for multiple comparisons. The post hoc Wilcoxon rank‐sum test found that only one pair was significant for the registration group: 6–20 years compared with 21+ years (P = 0.02) (Table 9).

Table 8.

Kruskal–Wallis test results for total minutes spent sitting weekly

Variable/Group n Median IQR Mean Mean rank H statistic df P‐value
Age 2.766 2 .251
18–34 years 45 660 450 723 143
35–54 years 122 600 420 777 135
55 years or above 100 540 400 681 129
Registration 8.694 2 .013
0–5 years 57 660 375 704 136
6–20 years 121 645 578 854 148
21+ years 89 515 352 660 123

Table 9.

Pairwise comparisons using Wilcoxon rank‐sum test for total minutes spent sitting weekly between years of registration (P‐values)

0–5 years 21+ years
6–20 years 0.38 0.02
21+ years 0.11

Total mean weekly minutes for all physical activities

The total minutes spent doing physical activities was estimated by calculating the sum of weekly time spent doing work‐related, transport‐related, household‐related, and recreation‐related physical activities. However, leisure and household physical activity levels were not specifically reported in this study. Survey responses to these questions were presented in relation to the demographic groups.

The bar plots of the mean total weekly minutes of all physical activities showed minor differences between mean values for each category: gender, age, ethnicity, area, and registration (Fig. 1.4).

Nonparametric results for total weekly minutes of all physical activities

Participants working in the community or other areas of mental health (median = 465) scored higher than participants working in the inpatient areas of mental health (median = 400) (Table 10).

Table 10.

Wilcoxon rank‐sum test results for total weekly minutes of all physical activities

Variable/Group n Median IQR Mean Mean rank W statistic df P‐value
Gender 5615 1 0.758
Female 199 440 510 600 134
Male 66 510 362 592 137
Ethnicity 7084 1 0.654
NZ European 164 440 418 585 130
Others 103 490 518 612 140
Area 7912 1 0.057
Community and others 178 465 432 597 139
Inpatient 89 400 525 591 124

The Wilcoxon rank‐sum test W‐value was closed to significance (W = 7912, P = 0.057).

The Kruskal–Wallis test for total weekly minutes of all physical activities showed a significant difference in the mean ranks of age (P = 0.003). Total minutes spent on all physical activities between the age groups (H(2) = 11.59, P = 0.003) included a median of 305 for age group 18–34 years, 450 for age group 35–54 years, and 550 for age group 55 years and above.

Post hoc analysis using the Wilcoxon rank‐sum test was conducted. The P‐value was adjusted using the Benjamini–Hochberg method to control for multiple comparisons (See Table 11).

Table 11.

Kruskal–Wallis test results for total weekly minutes of all physical activities

Variable/Group n Median IQR Mean Mean rank H statistic df P‐Value
Age 11.59 2 0.003
18–34 years 45 305 355 434 99
35–54 years 122 450 465 607 132
55 years or above 100 550 520 658 152
Registration 2.66 2 0.264
0–5 years 57 385 502 116
6–20 years 121 450 608 136
21+ years 89 480 631 141

The pairwise comparisons using the Wilcoxon rank test for total weekly minutes of all physical activities in Table 12 shows only two pairs were significant: 18–34 years compared with 35–54 years (P = 0.044) and the second pair, 18–34 years compared with 55 years or above (P = 0.002).

Table 12.

Pairwise comparisons using Wilcoxon rank‐sum test for total weekly minutes of all physical activities between age groups (P‐values)

18–34 years 35–54 years
35–54 years 0.044
55 years or above 0.002 0.118

When weekly physical activity domains were calculated separately in the >150 min per week group, 38% of participants in work‐related and 44% of participants in transport‐related physical activity did not achieve the IPAQ minimum of 150 min per week for moderate‐to‐vigorous physical activity levels. While in the <150 min/week category, 62% of work‐related participants and 56% of transport‐related participants did not meet the IPAQ minimum requirements for moderate‐to‐vigorous physical activity levels. However, when each individual domain is added together for ‘total physical activities’, then only 10% of MHNs engage in <150 min per week group and 90% in the >150 min per week group (Table 13).

Table 13.

Percentage of nurses not achieving standard of 150 min of physical activities weekly

Activity <150 min ≥150 min
Count Percentage Count Percentage
Total 25 10 225 90
Job‐related 88 62 55 38
Transport‐related 134 56 107 44
Leisure‐related 118 60 78 40
Household‐related 120 55 98 45

Qualitative comments

The additional comments section in the IPAQ invited all participants to provide any comments they wanted to make. All (n = 71) comments were analysed, of which 51 responses were grouped into four themes. These included the following: barriers to physical activity, MHNs using physical activity as a coping strategy, type of physical activity, and physical activity self‐awareness. There were 20 comments excluded from the analysis that were non‐responses.

Barriers to physical activity

Thirty participants identified barriers that affected their ability to engage in physical activities, including injury, exhaustion, tiredness, commute times to work, work sitting behaviours, weather, watching TV, physically unwell, emotional stress, holiday, walking <10 min, and lack of decent footwear (Table 14).

Table 14.

Barriers to physical activity

Barriers to physical activity Observations Quotes
Work sitting behaviours

The highest reported barrier to physical activity was work sitting behaviours. Of the 71 participants, nine participants identified sitting behaviours at work being barriers to physical activity. Seven participants reported work sitting behaviour themes consistent with the two quotes

One participant reported deliberately engaging in leisure exercise due to work sitting behaviours

One participant also suggested a stand‐up desk due to work sitting behaviours

Sat in front of computer for too long every day at work doing "busy work"

Between sitting with clients & sitting at my desk doing paper work & filling in forms, my work in community mental health is very sedentary

Very sedentary at work so try to make up for this outside of work by bike/train/walk commute, dog walking and gym daily

I would like to get a stand‐up desk as my job entails a lot of sitting down

Injuries

The second highest barrier to physical activity was ‘injuries’

Of the 71 participants, four participants reported injuries being a barrier to physical activity, consistent with these two quotes

I have a current injury which precludes me from doing any vigorous exercise at present

I currently have a knee injury so activity is limited

Exhaustion and tiredness The third highest barrier to physical activity was exhaustion or tiredness. Four participants identified exhaustion or tiredness consistent with the below quotes

I’m too exhausted to do anything but sit

It looks really bad when you write it out doesn't it? Lately though, I'm too worn out to attend the gym outside of work

Physical activity as a coping strategy

Two participants identified physical activity as their coping strategy, consistent with the quote below.

I have taken up running home from work most afternoons as a de‐stress. Also running at weekends

Great question, I go to the gym mon ‐ fri and love it, wakes me up and sets me up for the day

Type of physical activity

Of 71 responses, four identified work physical activities including walking being the type of physical activity consistent with the quote below.

Work with an assertive community outreach team so are out and about either on foot or driving most days

I live rurally, have a life style block, my leisure time is horse riding. I travel 91 kms each way from home to work Mon‐Fri. I walk during work hrs between the community and in‐patient unit.

While my job tends to be sedentary my home life is anything but that with hours of daily chores [live on a lifestyle property] and am a very keen Nordic walker 8‐10 ks per exercise event as often as weather allows.

I work out a lot and am on my feet for at least 6 hours a day in the inpatient unit on average on the open ward it would be 7 and a half hours

Physical activity self‐awareness

Of 71 responses, three identified that they needed to increase their physical activity levels consistent with the two quotes.

Wow, I'm not doing much will have to get out there and get moving

I actually need to move more and do more active things

This has highlighted for me that I need to move it move it!!

Discussion

This study is the first to investigate the physical activity levels of registered MHNs in New Zealand and determine if they meet both the IPAQ and the World Health Organization recommended minimum levels of moderate‐to‐vigorous physical activity (IPAQ Group 2015; World Health Organization 2018).

The outcome of this study is critical in the context of the current physical inactivity pandemic. The MHN workforce is strategically placed to promote physical activity in their patients, especially if they consistently engage in health‐promoting physical activities themselves (Bakhshi et al. 2015; Happell et al. 2012).

In responses to work‐related physical activity, participants who reported greater than (>) 150 min/week group comprised 38% who met the IPAQ minimum requirements for moderate‐to‐vigorous physical activity levels of 150 min (IPAQ Group 2015), while, in the less than (<) 150 min/week category, 62% of job‐related participants did not meet the IPAQ minimum requirements for moderate‐to‐vigorous physical activity levels (IPAQ Group 2015). These findings confirmed previous studies, where approximately 50% of nurses did not meet moderate‐to‐vigorous exercise level recommendations (Chiou et al. 2014; McCarthy et al. 2018). Work‐related physical activity levels were significantly higher for participants working in inpatient units than in community and other areas. Benzo et al. (2021) also added nursing work in inpatient units is physically demanding, after their study investigated the work‐related physical activity levels and sedentary behaviour patterns of fifty six registered inpatient nurses. Participants wore an accelerometer and inclinometer (ActivPAL) which monitored the time participants spent sitting, standing, and walking. The study examined a total of 195 12‐hour work shifts. The study outcomes from the 195 consecutive 12‐h shifts were as follows.

  • Sitting behaviours of nurses on average were 272 min (38%)

  • Standing behaviours were 339 min (47%)

  • Registered nurses walked an average of 101 min (14%) for a mean total of 8172 steps per 12‐hour shift.

Moreover, there was no significant difference in work‐related physical activities by gender or age. This result is at variance with McCarthy et al. (2018), who found increasing age to be a significant barrier.

For the transport‐related physical activity, 44% of participants in the >150 min/week group met the IPAQ minimum requirements for moderate‐to‐vigorous physical activity levels of 150 min (IPAQ Group 2015), while, in the < 150 min/week category, 56% did not meet the IPAQ minimum requirements. Transport‐related physical activity levels were significantly higher in the community and other areas than in inpatient employment settings. Hallal et al. (2012) identified a significant association between the participant’s age and their transport physical activity levels across 122 countries worldwide.

In the United Kingdom, Laverty et al. (2018) found the body mass index was 2.03kg/m2 lower for all female participants over 50 years of age who increased their use of public transport compared with those who did not. The World Health Organization (2020) identified 50% of people in Europe travelled less than 5Km distance by car and recommended such distance ought to be covered by walking or cycling.

The study did not find a significant difference between inpatient clinic and community and other areas for total weekly minutes spent sitting. More females than males self‐reported their weekly sitting behaviours; however, these differences were not statistically significant. Other researchers (Mayo et al. 2018; Mielke et al. 2018) have found physical inactivity to be marginally higher in females than males. Nurses in the 55 years or above group reported the highest total physical activity levels. Participants who had been registered for between 6 and 20 years reported the highest sitting behaviours. These findings are concerning as there is growing evidence of a greater risk of cardio metabolic disease and mortality with increased sedentary time (Ekelund et al. 2016; Prince et al. 2019). This is consistent with the findings from a cross‐sectional web‐based survey that received responses from 335 registered nurses and reported 34.1% participants were overweight, 23.4% were obese, and 80.1% were sitting for 3 or more hours per day (Ross et al. 2019).

Total weekly minutes of all physical activities were marginally significantly higher in participants working in the community or other areas than those in the inpatient group (P = 0.057), which has also been confirmed in research by Priano et al. (2018). The total weekly minutes of all physical activities showed a marginally significant difference for those 18–34 years compared with 35–54 years, and a significant difference for those 18–34 years compared with over 55 years. The total weekly minutes spent doing physical activities were higher among males than females, although this difference was not significant (P = 0.758). In contrast, several other studies (Mayo et al. 2018; Mielke et al. 2018) found that physical activity levels were significantly higher in females than males. The findings from this study were compatible with the hypothesis that over 50% of MHNs in New Zealand were not achieving 150 min of moderate‐to‐vigorous physical activity per week when each physical activity domain was examined separately.

However, when individual physical activity domains were combined, only 10% of participants spent less than 150 min on moderate‐to‐vigorous physical activity per week for the total physical activity domain.

The three highest barriers to physical activity were sitting behaviours at work, injuries, and exhaustion or tiredness. Previous studies also identified barriers preventing nurses from achieving moderate‐to‐vigorous occupational physical activity levels, including overtime, irregular shifts, stress, poor self‐care, limited access to exercise facilities, and decentralised nurses’ stations, resulting in nurses walking shorter distances (Reed et al. 2018; Ross et al. 2017; Torquati et al. 2017).

The World Health Organization has recently updated its guidelines to recommend that every individual should undertake at least 150–300 min of moderate physical activity or 75–150 min of vigorous physical activity per week or a calculated combination of moderate and vigorous physical activity (World Health Organization 2020). However, the 2018 World Health Organization guidelines have been used in this study because they were current at the time the study was conducted.

Limitations

The most important limitation of this study was the low response rate, despite receiving 266 responses.

A factor that may have contributed to the low response rate was ‘survey saturation’ (McPeake et al. 2014). MHNs frequently receive emails inviting them to participate in online surveys.

A second limitation, related to self‐reporting, may have been bias due to possible ‘over reporting’ of physical activity levels. The analysis showed that data were skewed, with outliers, and some responses had exceeded ‘1500 min or more’, suggesting these physical activity levels were over‐reported. Previous studies using the IPAQ questionnaire also suspected ‘over reporting’ (Flannery et al. 2014).

Relevance for Nursing Practice

Several studies have confirmed that nurses who actively participate in physical activity are more effective in promoting healthy practices in their patients (Bakhshi et al. 2015; Esposito & Fitzpatrick 2011). MHNs are well placed to proactively assess patients’ physical activity levels and if trained in counselling could support health promotion interventions that promote greater physical activity. Physical inactivity has been reported to be higher in mental health patients than in the general population (Happell et al. 2012; Rosenbaum et al. 2016),

Workplaces can enable nurses, themselves, to undertake more physical activity. Nurses should be empowered and motivated by managers to increase their physical activity, given the harmful impacts of physical inactivity, which includes NCDs and metabolic disease (Priano et al. 2018; das Merces et al. 2019). Access to exercise facilities and workplace health and wellness programmes should be available to nurses. Nurse leaders can implement job rotation shifts as a means to promoting health and well‐being.

Conclusion

This study addressed a gap in the literature and provided important insight into the physical activity levels in MHNs in New Zealand. However, a low response rate and statistical outliers suggest the need for caution in generalizing study findings to the whole MHN population. Key barriers to physical activity in this population were consistent with the literature. More in‐depth qualitative studies should be undertaken to identify strategies to mitigate barriers to physical activity.

Acknowledgement

We would like to thank Statisticians Dr Jonathan Godfrey and Dr Zlatko Kovacic for their expert guidance and advice. We also gratefully thank New Zealand College of Mental Health Nurses, New Zealand Nurses Organisation and Public Service Association and all the mental health nurses who generously contributed their time to participate in this study. Open access publishing facilitated by University of New South Wales, as part of the Wiley – University of New South Wales agreement via the Council of Australian University Librarians.

Funding

External funding was Council of Australian University Librarians for this study.

Declaration of conflict of interest: The authors declare no conflict of interest.

Authorship statement: All authors listed in this manuscript meet the authorship criteria according to the latest guidelines of the International Committee of Medical Journal Editors. All authors are in agreement with the manuscript.

Contributor Information

Glen Philbrick, Email: glen.philbrick44@gmail.com.

Nicolette Fay Sheridan, Email: N.Sheridan@massey.ac.nz.

Kay McCauley, Email: kay.mccauley@rmit.edu.au.

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