Literature DB >> 34186373

Increased physical inactivity and weight gain during the COVID-19 pandemic in Sri Lanka: An online cross-sectional survey.

Piumika Sooriyaarachchi1, Tormalli V Francis2, Neil King3, Ranil Jayawardena4.   

Abstract

AIMS: This study aimed to investigate the immediate impact of COVID-19 quarantine measures on physical inactivity and weight gain among Sri Lankans.
METHODS: An online cross-sectional survey was conducted from the 27th of May to 2nd of June 2021 using Google forms. The questionnaire including socio-demographics and physical activity related questions was distributed through social media platforms.
RESULTS: A total of 3707 respondents were included in the analysis (59.6% females). The majority were employed, resided in Colombo district and, as a minimum, had a degree. More than half of the respondents (52.4%) reported decreased exercise levels, 63.5% increased sitting time and 82.7% increased screen time. Adults of 31-35 (OR 1.96; 95% CI,1.321-2.894, p < 0.001) and 36-40 (OR 1.67; 95% CI, 1.099-2.524, p < 0.016) had increased sitting times compared to other age groups. A weight gain was reported by 38.5% with a mean (SD) increase of 3.61 (±2.35) kg. There was a significant difference in weight gain between genders (p < 0.001) and ethnic groups (p < 0.001).
CONCLUSIONS: An overall increase in physical inactivity such as reduced exercises, increased sitting time and screen time were observed. Furthermore, a considerable proportion of the population has increased body weight.
Copyright © 2021 Diabetes India. Published by Elsevier Ltd. All rights reserved.

Entities:  

Keywords:  COVID-19; Physical inactivity; Sedentary behaviour; Sri Lanka; Weight gain

Mesh:

Year:  2021        PMID: 34186373      PMCID: PMC8744477          DOI: 10.1016/j.dsx.2021.06.022

Source DB:  PubMed          Journal:  Diabetes Metab Syndr        ISSN: 1871-4021


Introduction

The Corona virus disease 2019 (COVID-19) is an unprecedented public health crisis, with ominous health and socioeconomic challenges. The pandemic has resulted in more than 170 million cases and 3.5 million deaths as of May 2021 [1]. The condition has sent billions of people into lockdown due to unprecedented spread of the virus. Therefore, physical distancing, including orders to stay at home, travel restrictions, curfews, closing nonessential businesses and mandatory quarantines for residence and interstate travellers have been implemented by country leaders and state governors [2]. These lockdown measures have forced many people to stay home and to limit their physical activities [3], and an increase in use of screen devices [4]. In addition, majority of the schools, colleges, and universities use online mode to deliver teaching, causing young adults to become inactive [5]. This sedentary behaviour is associated with higher incidence of overweight, obesity and related health-risks as well as several non-communicable diseases [6]. Physical inactivity contributes to positive energy balance and subsequent fat deposition and weight gains [7]. During confinement period, the time spent on exercise or other physical activities has been restricted due to several reasons. Closed gyms and sports centres, walking distance limited, lack of space and infrastructure in houses for physical exercise, and lack of technical knowledge of the population on appropriate training routines are some of the reasons [3]. A survey conducted in Italy reported a significant decrease in physical activity before and during COVID-19 pandemic across all age groups and especially in men [8]. In a study among UK adults which investigated the association of screen time and mental health during COVID-19, reported the mean (SD) number of hours of screen time per day as 7.2 (±3.8) in the overall population. This was even higher in younger adults during the pandemic [9] and people's mental well-being has also been adversely affected due to the current pandemic [10]. Sri Lanka reached its peak of COVID-19 in May 2021 and the government has taken strict measures to mitigate the pandemic [11]. During the third wave of the pandemic, from 21st May 2021, the country went into extremely stringent lockdown for weeks with a strict ban on inter-district travel and prohibition of social gatherings. Unlike other countries, citizens could drive to the shop or go for a walk in the park whereas the Sri Lankan authorities completely restricted people's movements [12]. Regular physical activity is a key public health behaviour as it has a remarkable impact on both mental and physical well-being [13]. Even before the pandemic, Over 50% of Sri Lankan adults were either inactive or had low levels of physical activity [14]. Moreover, because of the unique body composition with a higher body fat percentage at a lower body mass index (BMI) [15], Sri Lanka has a high prevalence of obesity and obesity-related non-communicable diseases (NCDs) [16]. As a result, diseases such as insulin resistance, metabolic syndrome, type 2 diabetes mellitus (T2DM), and coronary heart disease are escalating among Sri Lankan adults [17]. Therefore, the current COVID-19 pandemic may further worsen this situation. Furthermore, obesity is a known risk factor and COVID-19 weight gain during the pandemic might further increase the risk for the disease [18]. A recent study among Chinese youth found increased weight and body mass index during the lockdown period [19]. A similar study conducted in Massachusetts reported that a significant proportion of participants gained weight during the COVID-19 lockdown [20]. The reduced physical activity could contribute to the weight gain during the pandemic period [21]. Therefore, understanding the impact of the COVID-19 pandemic on physical activity patterns among Sri Lankan adults is important to implement future preventive strategies to overcome the burden of the NCDS, where health systems are already overburdened as a result of the epidemic. Thus, in this online survey, we aimed to present associated factors for physical inactivity and weight gain during the COVID-19 pandemic.

Methods

Study design and sampling

The present study is a national level cross-sectional online survey conducted using Google Forms web survey platform from 27th May to 2nd June 2021. The country lockdown for the third COVID-19 wave in Sri Lanka commenced on 21st May and lasted during the period of data collection. Multiple strategies were used to recruit participants. The link to the online survey was shared through social media, such as Facebook, Instagram, Twitter and WhatsApp. We also encouraged the participants to recruit others by various methods such as forwarding to their contact list and/or posting the online questionnaire in their personal Facebook wall and WhatsApp groups. The invitation was not posted nor sent to medical and nutrition related professional organizations and teaching institutions to minimize the bias. No incentives were given to the participants and active promotion of the questionnaire was totally voluntary. Before beginning the questionnaire, the participants were given a brief description of the study and its aim and the declaration of anonymity and confidentiality. Then the respondents provided their informed consent to proceed and completed a self-reporting questionnaire. The study was conducted in full agreement with the national and international regulations, and the Declaration of Helsinki (2000) [22]. The survey did not require approval by the ethics committee because of the anonymous nature of the online survey and the inability of tracking sensitive personal data [23,24]. Completion of responses to all of the questions was compulsory for successful submission. Once completed, each questionnaire was transmitted to the Google platform and the final database was downloaded as a Microsoft Excel sheet.

Questionnaire

The online questionnaire was specifically built using Google Form. The questionnaire was available in the three main official languages in Sri Lanka, English, Sinhala and Tamil, so that the participants could select the preferred language. The questionnaire required an estimated time of 5–10 minutes to complete. It included multiple choice and open-ended questions divided into three different sections, demographic, diet and lifestyle related. For this study, demographic, physical activity, and body weight related data were used. Reliability of the adopted questionnaire was tested through piloting, prior to survey administration. The questionnaire is provided (See supplementary file 1). The first section of the questionnaire investigated the demographic details of the participants. Respondents’ details of age, gender, area of residence, ethnicity, educational status, current employment status, family details including the monthly income were collected by both open-ended and multiple-choice questions. Only the birth year was asked to minimize the disclosure of personal details. The residing district was asked to select from a drop down list with the 25 districts in Sri Lanka arranged in alphabetical order. The residential areas were divided as municipal council, city council and rural according to the nature of local authorities. The respondent's gender was inquired using “male”, “female” or “prefer not to say” categories. The ethnicity of the respondents were asked to select from the categories, Sinhalese, Sri Lankan Tamil, Indian Tamil, and Sri Lankan Moors. Another option as “other” was available to those who don't belong under any of the given categories. The respondent's highest education level was assessed by the categories no schooling, primary education, secondary education, tertiary education, and degree or above. A preferred not to say option also was available. The nature of the current employment status was collected. The monthly income categories were created considering the average monthly family income in Sri Lankans [25]. The second part of the questionnaire comprised of activity related questions. All the questions were asked to determine if there was a change in certain activities during the COVID-19 pandemic period by selecting the options increased, decreased or no change. Mainly the questions were related to the changes in daily exercise routine, sitting time, screen time, sleep duration, and quality of sleep. In addition, we collected details on body weight changes during the COVID-19 epidemic. Current body weight and height were not asked because the previous studies have reported that only one-quarter of adults can recall their body weight and height accurately in this population [26]. Therefore, the respondents' were asked to mention the changes in body weight during the COVID-19 period. A drop-down list with weight changes from <1 kg to >10 kg was available to select the response. During the analysis, 0.5 kg was assigned to <1 and 12.5 kg was assigned to >10 kg.

Statistical analysis

All the variables were analysed qualitatively and were expressed as a percentage (%) and numbers (n). Descriptive statistics were employed to explore the demographic parameters of the study sample. Results were presented as frequency and percentage in parentheses (%) for categorical variables or mean and standard deviation (SD) for continuous variables. One-way analysis of variance (ANOVA) was performed for data comparison among groups. Multivariable binary logistic regression analyses were conducted to investigate the association between categorical variables (dependent) and continuous or categorical ones (independent). For regression analysis, demographic variables representing less than 1% of the sample were removed. The income groups <10,000 LKR and 10,000–24,999 LKR were combined as a new category <25,000 LKR. The results of logistic regression analyses were expressed as odds ratio (OR) and 95% confidence intervals (95% CI). For all analyses, p ≤ 0.05 was considered significant. Statistical analysis was performed using SPSS ver. 23.0 (IBM, Chicago, IL, USA).

Results

A total of 3714 responses were received. After removing potential duplicates and incomplete data, 3707 respondents, aged ≥16 years, were included in the analysis. The socio-demographic characteristics of the participants are presented in Table 1. The mean age (SD) of the participants was 32.95 (±9.82) years with the largest group of people belonging to the age group 26–30 years. The female gender represented the majority of the population (59.6%). Respondents covered all 25 districts in Sri Lanka while the highest numbers were from Colombo, Gampaha, and Kandy districts. The majority lived in rural areas 40.1% (1488) while 27.3% (1011) and 32.6% (1208) in city and municipal council regions respectively. The survey population represented all ethnic groups in Sri Lanka with the highest and lowest contributions from Sinhalese and other minority groups respectively. Most respondents had a degree level (69.1%; 2563) or tertiary level (25.6%; 948) education. In terms of employment status, 2336 (63.0%) participants were employed, 200 (5.4%) self-employed, 272 (7.3%) unemployed, 618 (16.7%) full time students and 56 (1.5%) were retired. Almost half of the respondents (48.4%; 1796) had a net monthly family income of more than 100,000 LKR per month.
Table 1

Sample characteristics.

Variables
Total (n = 3707)
n%
Age
16–25 years82622.3
26–30 years91324.6
31–35 years75820.4
36–40 years49613.4
>40 years70419.0
Gender
Male146839.6
Female220959.6
Not specified300.8
District
Colombo140437.9
Gampaha50213.5
Kandy3519.5
Kalutara2356.3
Kurunegala1834.9
Batticaloa1082.9
Others92425.0
Area of residence
Municipal council area120832.6
City council area101127.3
Rural area148840.1
Ethnicity
Sinhala303681.9
Sri Lankan Tamil3048.2
Indian Tamil571.5
Sri Lankan Moors2597.0
Others511.4
Education level
No schooling20.1
Primary education (up to grade 5)00
Secondary education (up to O/L)1604.3
Tertiary education (up to A/L)94825.6
Degree or above256369.1
Prefer not to say340.9
Employment status
Employed233663.0
Self-employed2005.4
Unemployed2727.3
Engaged in home duties1143.1
Retired from employment561.5
Full time student or pupil61816.7
Other842.3
Prefer not to say270.7
Monthly family income (in LKR)
Less than 10,000892.4
10,000–24,9992316.2
25,000–49,99960516.3
50,000–99,99998626.6
100,000–199,99988723.9
>20000090924.5
With regards to physical activity changes (Fig. 1 ), more than half of the respondents (52.4%) declared that their daily exercise routine has reduced during the COVID-19 pandemic. Specifically, 63.5% of the participants reported that their sitting time has increased during the same period. In addition, more than 80% of the respondents reported an increase of screen time spent on television, cell phones and laptops. Furthermore, nearly half of the respondents (49.4%) reported an increase in sleep duration while there was no change in the quality of sleep for the majority (43.5%).
Fig. 1

Changes of the activity related variables during the COVID-19 pandemic.

Changes of the activity related variables during the COVID-19 pandemic. The association of socio-demographic factors with sedentary behaviour is presented in Table 2 . The results of the binary logistic regression analysis indicated that, all age groups were more likely to have reduced exercise levels than the youngest group, however, 31–35 years (OR 1.96; 95% CI,1.321–2.894, p < 0.001) and 36–40 years (OR 1.67; 95% CI, 1.099–2.524, p < 0.016) age categories reached the significance levels. In comparison to the youngest group, all other age groups were significantly less likely to report increased sitting times and increased screen times. Regarding gender, females were less likely to remain seated compared to men (OR 0.559; 95% CI, 0.480–0.651, p < 0.001), but no significant difference could be observed for the other two activities. Respondents from the Kurunegala district were more likely to report increased exercise (OR 0.608; 95% CI, 0.398–0.928; p < 0.021) during this period compared to Colombo district. The area of residence also seemed to have had no influence on activity patterns. In comparison to Sinhalese, Sri Lankan Tamils had a significantly less likely to report decreased exercise levels (OR 0.53; 95% CI, 0.382–0.734; p < 0.001). Even so, both Tamil ethnic groups were possibly to have had increased sitting times than all the other ethnic groups. The level of education showed no relation to any of the changes in activities. In addition, the unemployed respondents had significantly higher odds for decreased exercise levels than the employed. Full-time students were almost two times more likely to have increased sitting time than the people who were employed (OR 1.90; 95% CI, 1.379–2.627); p < 0.001). Similarly, people who engaged in domestic duties also had a significantly higher likelihood for increased sitting time but their odds were less in regards to the increased screen time. Moreover, the respondents with a monthly income over 200,000 LKR were significantly less likely to have reduced exercise levels (OR 0.64; 95% CI, 0.424–0.963; p < 0.032).
Table 2

Odds Ratios (OR) for the likelihood of reduced physical activities by socio-demographic variables.

Covariates
Decreased daily exercise
Increased sitting time
Increased screen time
OR (95% CI)p-valueOR (95% CI)p-valueOR (95% CI)p-value
Age
16–25 yearsa111
26–30 years1.266 (0.890–1.801)0.1890.728 (0.543–0.976)0.0340.673 (0.456–0.993)0.046
31–35 years1.955 (1.321–2.894)0.0010.584 (0.429–0.795)0.0010.535 (0.357–0.802)0.002
36–40 years1.665 (1.099–2.524)0.0160.387 (0.279–0.538)0.0010.431 (0.282–0.659)0.001
>40 years1.091 (0.746–1.596)0.6540.464 (0.338–0.637)0.0010.459 (0.304–0.694)0.001
Gender
Malea111
Female1.164 (0.963–1.407)0.1170.559 (0.480–0.651)0.0010.834 (0.690–1.007)0.059
District
Colomboa111
Gampaha1.026 (0.750–1.404)0.8700.965 (0.763–1.220)0.7670.909 (0.679–1.217)0.521
Kandy1.111 (0.753–1.676)0.5960.784 (0.587–1.046)0.0980.795 (0.553–1.1440.217
Kalutara0.713 (0.484–1.052)0.0880.677 (0.499–0.920)0.0130.796 (0.543–1.165)0.240
Kurunegala0.608 (0.398–0.928)0.0210.732 (0.519–1.033)0.0760.766 (0.503–1.166)0.214
Batticaloa0.777(0.453–1.331)0.3581.171 (0.666–2.059)0.5831.712 (0.828–3.541)0.147
Others0.918 (0.707–1.193)0.5240.691 (0.565–0.845)0.0010.809 (0.630–1.040)0.098
Area of residence
Municipal council areaa111
City council area1.075 (0.848–1.361)0.5500.979 (0.811–1.182)0.8270.875 (0.691–1.108)0.268
Rural area1.074 (0.836–1.380)0.5750.846 (0.696–1.028)0.0920.828 (0.648–1.059)0.133
Ethnicity
Sinhalaa111
Sri Lankan Tamil0.529 (0.382–0.734)0.0011.417 (1.040–1.930)0.0270.857 (0.596–1.231)0.403
Indian Tamil0.566 (0.301–1.064)0.0772.000 (1.008–3.966)0.0471.254 (0.551–2.852)0.589
Sri Lankan Moors1.092 (0.743–1.606)0.6541.218 (0.900–1.649)0.2020.738 (0.522–1.043)0.085
Others1.314 (0.546–3.163)0.5431.038 (0.550–1.961)0.9070.881 (0.401–1.939)0.753
Education level
Secondary educationa111
Tertiary education1.021 (0.604–1.726)0.9380.976 (0.653–1.458)0.9040.907 (0.535–1.539)0.718
Degree or above0.819 (0.486–1.379)0.4521.078 (0.720–1.614)0.7140.882 (0.521–1.494)0.641
Prefer not to say2.020 (0.430–9.484)0.3730.820 (0.323–2.083)0.6771.343 (0.355–5.088)0.664
Employment status
Employeda111
Self-employed0.933 (0.622–1.400)0.7380.964 (0.704–1.320)0.8190.778 (0.539–1.123)0.180
Unemployed1.655(1.064–2.573)0.0251.113 (0.829–1.495)0.4761.054 (0.725–1.534)0.782
Engaged in home duties1.495 (0.781–2.861)0.2250.421 (0.277–0.640)0.0010.375 (0.248–0.569)0.001
Retired from employment1.561 (0.683–3.568)0.2911.202 (0.670–2.159)0.5370.834 (0.423–1.643)0.599
Full time student or pupil1.131(0.773–1.656)0.5261.904 (1.379–2.627)0.0011.492 (0.968–2.302)0.070
Other0.812 (0.467–1.413)0.4621.339 (0.823–2.178)0.2390.824 (0.473–1.438)0.496
Monthly family income (LKR)
<25,000a111
25,000–49,9990.785 (0.526–1.172)0.2370.862 (0.628–1.183)0.3580.993 (0.677–1.457)0.971
50,000–99,9991.170 (0.789–1.737)0.4350.861 (0.635–1.166)0.3321.280 (0.880–1.862)0.197
100,000–199,9990.786 (0.526–1.173)0.2390.918 (0.668–1.261)0.5971.216 (0.824–1.795)0.325
>2000000.639 (0.424–0.963)0.0320.973 (0.702–1.350)0.8721.280 (0.857–1.913)0.228

Reference variable.

Sample characteristics. Odds Ratios (OR) for the likelihood of reduced physical activities by socio-demographic variables. Reference variable. The results demonstrated that 38.5% (n = 1429) of respondents have reported weight gain during the pandemic. The mean weight gain of the respondents was 3.61 (±2.35) kg (Table 3 ). A significant difference in weight gain was observed among genders (p < 0.001) and different ethnic groups (p < 0.001) in the sample.
Table 3

Mean weight gain according to socio-demographic variables.

Variables
Weight gain (kgs)

Mean±SDP-value
Total3.612.353
Age
16–25 years3.622.3980.279
26–30 years3.762.510
31–35 years3.492.183
36–40 years3.532.316
>40 years3.532.275
Gender
Male4.152.515<0.001
Female3.292.192
District
Colombo3.762.4020.098
Gampaha3.802.397
Kandy3.462.581
Kalutara3.472.194
Kurunegala3.512.438
Batticaloa4.332.669
Others3.252.106
Area of residence
Municipal council area3.722.4260.430
City council area3.752.515
Rural area3.392.136
Ethnicity
Sinhala3.552.340<0.001
Sri Lankan Tamil3.882.402
Indian Tamil2.891.7783
Sri Lankan Moors3.912.285
Others4.553.128
Education level
Secondary education (up to O/L)3.842.8140.147
Tertiary education (up to A/L)3.602.399
Degree or above3.612.317
Prefer not to say2.881.808
Employment status
Employed3.542.3090.302
Self-employed3.962.590
Unemployed3.862.419
Engaged in home duties3.922.230
Retired from employment3.001.683
Full time student or pupil3.622.404
Other3.692.791
Monthly family income (in LKR)
<25,0003.672.5790.159
25,000–49,9993.782.439
50,000–99,9993.512.163
100,000–199,9993.582.409
>2000003.632.382
Mean weight gain according to socio-demographic variables.

Discussion

To the best of our knowledge, this is one of the largest national-level online surveys conducted in Sri Lanka to investigate the immediate impact of the COVID-19 pandemic on the lifestyle of its residents. This population-based survey received nearly 4000 responses within a period of one week when the country was under lockdown. The respondents to the questionnaire were mainly young adults below the age of 35 years, who use social media platforms very actively when compared to the older generation. Our sample reflects the population of Sri Lankan Internet users from prior online surveys of Sri Lanka [27]. Similar patterns were observed in studies from other countries such as Italy [28], Cyprus [29] and Poland [24]. A sustained physically inactive lifestyle, or becoming physically inactive during the young age is a serious health problem that increases the risk for NCDs in adulthood [30]. Besides, Obesity and weight gain have been linked to an increased risk of coronary heart disease among young adults [31]. Therefore, we believe that the responses from the young population are vital. Additionally, our respondents were predominately females showing similar representation patterns to previously conducted national surveys [32]. Around 38% of the responders represented the Colombo district which is the largest and the main economical hub in the country. The Sri Lankan population comprises Sinhalese 74.9%, Sri Lankan Tamil 11.2%, Sri Lankan Moors 9.2%, Indian Tamil 4.2%, and other ethnic groups 0.5% according to 2012 estimates [33]. Our sample reflects similar proportions showing the well distribution of each ethnic group in the country. In addition, the majority of the respondents were well educated and employed. However, online surveys especially in developing countries have their own methodological challenges, such as sampling, coverage and response issues due to relatively less technology literacy among the general population. Although the median household income in Sri Lanka was reported as Rs. 30,400, majority of respondents reported incomes much higher than this amount. With regards to sedentary behaviours, the majority of the young adults aged between 31 and 40 years reported decreased daily exercise routine. Physical and social environmental elements that influence access, availability, and use are the major determinants of physical activity involvement [34]. Therefore the possible reasons of inactivity could be lack of equipment, insufficient spaces to exercise at home [3], closed gyms and other sports facilities and being fearful of exposure to COVID-19 [35]. Surprisingly, people with higher income levels were less likely to report reduced exercise levels. This could be explained by the fact that these people are more likely to have access to their own exercise equipments at home and to paid online exercise programs, which might have helped them to preserve their exercise levels during the COVID-19 restrictions. Moreover, the time spent on sitting and screening seemed to be highest in the lower age groups compared to the older counterpart. These findings are in accordance with the results observed in a previous research studies [36]. The screen time and sitting time might increase due to the closure of educational institutions and hence conducting online teaching [5]. Furthermore, youngsters might be spending more time on social media platforms to communicate with their peers owing to the social distancing. Physical inactivity is a major cause of death worldwide, accounting for 3.2 million deaths per year [37]. It can also increase the risk for several other diseases such as developing heart disease, obesity, high blood pressure, high blood cholesterol levels, and type 2 diabetes [38]. Prior research has suggested that regular practice of physical exercises strengthens the immune system, reducing the risk of developing systemic inflammatory processes and stimulating cellular immunity [39,40]. Regular physical activity may reduce the acute inflammatory response through several mechanisms such as by; reducing the inflammatory signaling pathway, increasing anti-inflammatory cytokines, reducing lung inflammation through the activation of Activated Mitogen Protein Kinase (AMPK) and increasing nitric oxide levels to counteract endothelial dysfunction, resulting in pulmonary vasodilation and antithrombotic activity [41]. Obesity and obesity associated NCDs are major health issues in Sri Lanka. In the country, the level of obesity has increased three folds during the last two decades [42]. The body weight gain around 3.5 kg is close to 5% of body weight gain in this population. It has been reported that each 5 kg weight gain from early to middle adulthood was associated with an approximately 10% elevated all-cause mortality and a greater than 20% cardiovascular disease–related mortality in later life among individuals who reached a BMI of 23 kgm−2 or higher at middle adulthood [43]. In a meta-analysis of women and men, the pooled incident rate ratios per 5 kg weight gain was 1.31 (95% CI, 1.28–1.33) for type 2 diabetes (I2 = 59%); 1.14 (95% CI, 1.10–1.17) for hypertension (I2 = 93%); 1.08 (95% CI, 1.08–1.09) for cardiovascular disease (I2 = 0%); 1.06 (95% CI, 1.02–1.09) for obesity-related cancer (I2 = 72%) and 1.05 (95% CI, 1.04–1.07) for mortality (I2 = 60%) [44]. One of the main inherited limitations of any online survey is the poor representativeness of the study population. In developing countries, online surveys have methodological challenges, such as sampling, coverage and response issues [45], due to the difficulty in reaching the poor and lack of technology and IT literacy among the elderly population. Therefore, our sample mainly consisted of young educated people; however, similar patterns are reported in other countries too [8]. In addition, as the investigators are from the health background and also from Colombo district, there is a higher chance to get more participants from the same district and background. We avoided the bias as to our best capability by not sharing the questionnaire among known professionals and institutions in the field. However, there was a fair representation of the sample as it covered all districts of the island including each ethnic group. Another limitation is that we were unable to measure the changes in physical activity level. This is mainly the participants' perception of the change in activity levels and therefore should be treated with caution. It would have been more accurate to have subjective values of physical activity levels for before and during the COVID-19 lockdown period [46]. Similarly, the weight gain was not measured but self-reported by the respondents. However, as the literacy rate of the current sample of respondents was very high (>69% are graduates), we believe that high accuracy in self-reporting. The strengths of our study include utilisation of the online survey, which allowed us to swiftly reach a sufficiently large sample and a mixed population from different districts in the country during the lockdown period. Our findings highlighted the importance of being aware of the effects of this circumstance and improving physical activity in people who have become more sedentary due to the COVID-19 pandemic. Further studies should be conducted to identify the reasons for the reduced activity in this population. Moreover, educational programs should be implemented at the national level to increase the awareness on the importance of regular physical activity during the COVID-19 lockdown period to overcome infection and other NCDs. Cultural specific, online physical activity sessions such as yoga, Zumba etc. should be broadcasted or made available to the general population [47]. Integrating physical activity sessions during distance teaching is highly recommended to increase the physical activity of students. In addition, walking in large, outdoor open spaces should be encouraged.

Conclusion

The overall results of the study revealed that sedentary behaviours such as physical inactivity, sitting time, screen time and sleep duration have increased during the COVID-19 pandemic period. The increase of these sedentary behaviours might be due to home confinement and other considerable constraints imposed due to the pandemic. The findings of this study may help in the development and implementation of programs aimed at preventing weight gain, promoting physical activity, and reducing other sedentary behaviours during the COVID-19 pandemic.

Authors' contribution

PS, RJ, TVF conceived and designed the online survey questionnaire; distributed the questionnaire; PS analyzed and interpreted the data; PS, RJ drafted the manuscript, NK revised the manuscript. All authors read and approved the final manuscript.

Funding

This research doesn't receive any funding.

Declaration of competing interest

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.
  35 in total

1.  World Medical Association Declaration of Helsinki: ethical principles for medical research involving human subjects.

Authors: 
Journal:  JAMA       Date:  2000-12-20       Impact factor: 56.272

2.  Acceptance of COVID-19 Vaccine in Sri Lanka: Applying the Health Belief Model to an Online Survey.

Authors:  Millawage Supun Dilara Wijesinghe; W M Prasad Chathuranga Weerasinghe; Indika Gunawardana; S N Subha Perera; R P Palitha Karunapema
Journal:  Asia Pac J Public Health       Date:  2021-05-18       Impact factor: 1.399

3.  Physical inactivity from youth to adulthood and adult cardiometabolic risk profile.

Authors:  Petri Kallio; Katja Pahkala; Olli J Heinonen; Tuija H Tammelin; Kristiina Pälve; Mirja Hirvensalo; Markus Juonala; Britt-Marie Loo; Costan G Magnussen; Suvi Rovio; Harri Helajärvi; Tomi P Laitinen; Eero Jokinen; Päivi Tossavainen; Nina Hutri-Kähönen; Jorma Viikari; Olli T Raitakari
Journal:  Prev Med       Date:  2021-01-23       Impact factor: 4.018

Review 4.  The pandemic of physical inactivity: global action for public health.

Authors:  Harold W Kohl; Cora Lynn Craig; Estelle Victoria Lambert; Shigeru Inoue; Jasem Ramadan Alkandari; Grit Leetongin; Sonja Kahlmeier
Journal:  Lancet       Date:  2012-07-21       Impact factor: 79.321

5.  Physical activity patterns and correlates among adults from a developing country: the Sri Lanka Diabetes and Cardiovascular Study.

Authors:  Prasad Katulanda; Ranil Jayawardena; Ranil Jayawardana; Priyanga Ranasinghe; M H Rezvi Sheriff; David R Matthews
Journal:  Public Health Nutr       Date:  2012-09-21       Impact factor: 4.022

6.  Associations of Weight Gain From Early to Middle Adulthood With Major Health Outcomes Later in Life.

Authors:  Yan Zheng; JoAnn E Manson; Changzheng Yuan; Matthew H Liang; Francine Grodstein; Meir J Stampfer; Walter C Willett; Frank B Hu
Journal:  JAMA       Date:  2017-07-18       Impact factor: 56.272

Review 7.  Molecular mechanisms involved in the positive effects of physical activity on coping with COVID-19.

Authors:  Ersilia Nigro; Rita Polito; Andreina Alfieri; Annamaria Mancini; Esther Imperlini; Ausilia Elce; Peter Krustrup; Stefania Orrù; Pasqualina Buono; Aurora Daniele
Journal:  Eur J Appl Physiol       Date:  2020-09-03       Impact factor: 3.078

8.  Impact of COVID-19 lockdown on activity patterns and weight status among youths in China: the COVID-19 Impact on Lifestyle Change Survey (COINLICS).

Authors:  Peng Jia; Lei Zhang; Wanqi Yu; Bin Yu; Meijing Liu; Dong Zhang; Shujuan Yang
Journal:  Int J Obes (Lond)       Date:  2020-12-04       Impact factor: 5.095

9.  Self-quarantine and weight gain related risk factors during the COVID-19 pandemic.

Authors:  Zeigler Zachary; Forbes Brianna; Lopez Brianna; Pedersen Garrett; Welty Jade; Deyo Alyssa; Kerekes Mikayla
Journal:  Obes Res Clin Pract       Date:  2020-05-21       Impact factor: 2.288

10.  Eating habits and lifestyle changes during COVID-19 lockdown: an Italian survey.

Authors:  Laura Di Renzo; Paola Gualtieri; Francesca Pivari; Laura Soldati; Alda Attinà; Giulia Cinelli; Claudia Leggeri; Giovanna Caparello; Luigi Barrea; Francesco Scerbo; Ernesto Esposito; Antonino De Lorenzo
Journal:  J Transl Med       Date:  2020-06-08       Impact factor: 5.531

View more
  8 in total

1.  Poor Glycemic Control in Type 2 Diabetes Mellitus Patients in Two Tertiary Care Centers during COVID-19 Lockdown: A Descriptive Cross-sectional Study.

Authors:  Jagatkiran Oli; Ved Prakash Pant; Apeksha Niraula; Madhab Lamsal
Journal:  JNMA J Nepal Med Assoc       Date:  2022-03-11       Impact factor: 0.556

2.  The Impact of Sport Activity Shut down during the COVID-19 Pandemic on Children, Adolescents, and Young Adults: Was It Worthwhile?

Authors:  Sara Raimondi; Giulio Cammarata; Giovanna Testa; Federica Bellerba; Federica Galli; Patrizia Gnagnarella; Maria Luisa Iannuzzo; Dorotea Ricci; Alessandro Sartorio; Clementina Sasso; Gabriella Pravettoni; Sara Gandini
Journal:  Int J Environ Res Public Health       Date:  2022-06-28       Impact factor: 4.614

3.  Unprecedented times and uncertain connections: A systematic review examining sleep problems and screentime during the COVID-19 pandemic.

Authors:  Kathryn Drumheller; Chia-Wei Fan
Journal:  Sleep Epidemiol       Date:  2022-05-07

4.  Trajectories of Food Choice Motives and Weight Status of Malaysian Youths during the COVID-19 Pandemic.

Authors:  Seok Tyug Tan; Chin Xuan Tan; Seok Shin Tan
Journal:  Nutrients       Date:  2021-10-23       Impact factor: 5.717

5.  Usage of nutritional supplements to improve immunity during the COVID-19 pandemic: An online survey.

Authors:  Tormalli V Francis; Piumika Sooriyaarachchi; Ranil Jayawardena
Journal:  Clin Nutr Open Sci       Date:  2022-04-18

6.  Weight change-related factors during the COVID-19 pandemic: a population-based cross-sectional study using social cognitive theory.

Authors:  Roxane Assaf; Jumana Antoun
Journal:  PeerJ       Date:  2022-07-27       Impact factor: 3.061

7.  Effects of coronavirus disease 2019 lockdown on metabolic syndrome and its components among Chinese employees: A retrospective cohort study.

Authors:  Weiwei Xu; Yujuan Li; Yixin Yan; Liyun Zhang; Junhui Zhang; Chao Yang
Journal:  Front Public Health       Date:  2022-08-05

8.  Sleep, Diet, Physical Activity, and Stress during the COVID-19 Pandemic: A Qualitative Analysis.

Authors:  Kyanna Orr; Zachary Ta; Kimberley Shoaf; Tanya M Halliday; Selene Tobin; Kelly Glazer Baron
Journal:  Behav Sci (Basel)       Date:  2022-03-02
  8 in total

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