Literature DB >> 34711931

Effects of COVID-19 lockdown on the dietary habits and lifestyle in a population in southern Spain: a cross-sectional questionnaire.

Carmen Flores Navarro-Pérez1, Ángel Fernández-Aparicio2, Emilio González-Jiménez3, Miguel Ángel Montero-Alonso4, Jacqueline Schmidt-RioValle2.   

Abstract

BACKGROUND/
OBJECTIVE: Few studies have assessed the effect of lockdown on physical activity and eating behaviours in a population from the Autonomous Community of Andalusia in southern Spain. The aim of our study was to describe the effect of COVID-19 pandemic home lockdown on eating habits and lifestyle in the Andalusian population. SUBJECTS/
METHODS: A cross-sectional observational study was carried out on a population from southern Spain, Andalusian population. An online questionnaire was shared through social networks and snowball sampling. A total of 1140 people filled in the questionnaire. The questionnaire consisted of 34 items classified into three sections: sociodemographic data, work and leisure activities and questions on food consumption. Each item offered pre- and post-lockdown information.
RESULTS: The participants were classified into three age groups: 18-35, 36-65 and over 65. Statistically significant differences were found between the three groups, with the younger age group undergoing greater changes, increasing their physical activity and consumption of fresh food, and decreasing both their consumption of fast food at home and alcohol intake.
CONCLUSIONS: These findings suggest that, in the current social and health crisis, the citizens of southern Spain have become aware of the importance of maintaining an appropriate lifestyle to remain healthy, particularly the younger population with less well-consolidated habits.
© 2021. The Author(s), under exclusive licence to Springer Nature Limited.

Entities:  

Mesh:

Year:  2021        PMID: 34711931      PMCID: PMC8552428          DOI: 10.1038/s41430-021-01034-w

Source DB:  PubMed          Journal:  Eur J Clin Nutr        ISSN: 0954-3007            Impact factor:   4.884


Introduction

On 31 December 2019, a cluster of cases of SARS-CoV-2 viral pneumonia, referred to as COVID-19, was reported in the Chinese region of Wuhan [1]. With 161,237 confirmed cases and 6000 deaths [2], in March 2020, the World Health Organisation (WHO) declared a global pandemic [1]. In Spain, on 14 March 2020, to curb the increase in cases and the collapse of the healthcare system, a state of alarm was declared [3]. This declaration obliged the entire Spanish population to remain at home, allowing them to go out only to buy basic products, with the exception of people working jobs classified as essential. Initially, 15 days of house lockdown was imposed, which was eventually extended to 50 days. The entry into force of this lockdown motivated a social urgency to hoard food and household supplies to provide for homes in the days after 14 March. This was characterised by the compulsive purchase of pulses, beer and hygiene articles, resulting in shortages of basic products [4]. Numerous studies reflect the appearance of stress in people as a result of the lockdown [5, 6]. In turn, a relationship has been found between situations of stress and uncertainty, and the consumption of hyperpalatable foods [7, 8]. The first published data on consumption in the initial weeks of the lockdown and the weeks prior to it report a disproportionate increase in the purchase of food, with some non-perishable foodstuffs even increasing by 100% compared to the same month of the previous year [4, 9–11]. In this context, the WHO published guidelines on healthy eating [12] with the intention of preventing further negative effects of the pandemic deriving from an unhealthy diet, such as overweight and obesity, which are involved in the development of non-communicable diseases [13]. In addition, the WHO also published recommendations highlighting the importance of regular physical activity, its benefits for the body and mind, as well as its involvement in lower morbidity and mortality rates [14]. The first published studies warned, as expected, of changes in eating habits, including increased snacking, a greater number of meals consumed and changes in the weight of the participants and their physical activity levels, with two distinct trends; on the one hand, there were many who decreased their daily exercise [15, 16], while there was also a significant number of people who increased their physical activity over this period [17]. These habit changes depended largely on age. In this sense, in the area of Developmental Psychology there are three major stages in adulthood: the youth stage, between approximately 20 and 40 years of age; the mature stage, between 40 and 65, and finally the over 65s. The first stage is a period characterised by the appearance of a certain independence from the family, including a period of higher education and incorporation into the world of work. This decreases available time, and food is pushed into the background. The second stage is based on assuming and overcoming responsibilities, as well as social commitments, developing a certain emotional and work stability. The older stage is characterised by more rigid thinking, with less flexibility and greater rejection of changes involve in altered routines, as well as the cessation of working activity [18, 19]. In Spain, people generally retire between 65 and 67 years of age [20]. Despite the volume of research published so far, few studies have evaluated the effect of lockdown on the physical activity and eating behaviours of the population from the Autonomous Community of Andalusia, in southern Spain. The aim of our work is, therefore, to describe the effect of COVID-19 pandemic home lockdown on the dietary habits and lifestyle of the Andalusian population, to prevent any negative impact of future outbreaks and subsequent lockdown measures.

Materials and methods

Study design

A cross-sectional observational study was carried out on a population from southern Spain, Andalusian population. Access was provided to an anonymous online questionnaire, which was active from 21 April (the sixth week of lockdown) until 2 May 2020, coinciding with the start of the lockdown de-escalation in Spain. The questionnaire was shared via social networks such as Instagram, Facebook, WhatsApp, virtual classrooms in which the researchers themselves were teaching, as well as by email, making snowball sampling possible. The questionnaire could be completed using any mobile device, tablet or computer. In addition, the number of days the participants had been confined to their homes, from the start of lockdown to the time they filled in the survey, was taken into account.

Population

The study population consisted of adults of 18 years of age or above, who used digital technology. The start of the questionnaire included a brief description of the purpose of the survey, information about the researchers responsible and the fact that the data collected would be both anonymous and confidential. Filling in the questionnaire was completely voluntary. In addition, the participants were able to leave the study at any time before submitting the survey. Responses were saved only when the submit button was clicked.

Data collection

The data were collected by means of a structured self-administered questionnaire, created on the Google Form platform. This questionnaire collected the questions to be answered sequentially and according to the scenarios ‘before’ and ‘during’ lockdown. It included 34 items and was divided into three main sections, organised as follows: one section on sociodemographic data; a second section containing questions about general habits, work and leisure activities; and finally, questions to determine variation in food consumption. The sociodemographic information collected included the variables age, sex, educational level, place where the lockdown was taking place, people with whom the participants were living at that time, information on the home they were confined to, their employment situation and the need to go out to work, as well as changes in financial income and body weight. The second section included questions on sleep habits and physical activity levels. The items referring to eating habits were: eating schedules and the number of meals/day, snacking between meals, consumption of ultra-processed food groups, fast food at home and the consumption of fresh food. Finally, we included questions aimed at investigating changes in the frequency of food consumption, with the intention of finding out whether the participants had increased, decreased or maintained their habits, for which we presented the foods organised into rows with four possible response options: no consumption, more, less or the same level. These foods included beverages such as soft drinks, stimulant drinks and alcohol.

Data analysis

The participants were divided into three groups according to their age; a first group of participants aged between 18 and 35, a second group between 36 and 65 and, finally, those over 65 years of age, according to the classification of the Spain’s National Institute of Statistics [21]. Quantitative variables were analysed using a one-way ANOVA and qualitative variables were analysed using a χ2 test, both with a significance of 0.05. Odds ratios were calculated using binary logistic regression analysis with dietary assessment (less or the same vs. more) as the dependent variable (confidence intervals at 95%). The first step included models evaluating the relationship between each determinant and the assessment of food, less or the same versus more and the corresponding odds ratio, adjusted for the following variables: modified weight, degree of physical activity, amount of food and modified sleep. In the second step, the odds ratios were adjusted for sex and educational level. The normality of the distributions was checked using the Kolmogorov–Smirnov test. The significance level was p < 0.05. All of the analyses were performed with version 24 of the SPSS software package (IBM, Armonk, NY, USA).

Results

Table 1 shows the sociodemographic characteristics of the participants classified into three age groups: 18–35, 36–65 and over 65 years of age. A total of 1140 people participated, all of whom were of legal age. Highly significant statistical differences (p < 0.001) were found between the three age groups in relation to the number of cohabitants, leaving the home to go to work and the reduction of income during lockdown.
Table 1

Sociodemographic characteristics of the participants by age group.

Variables18–35 years36–65 years>65 yearsTotal
Days of lockdown (mean±SD)39.4 ± 7.1037.7 ± 7.5841.7 ± 5.8738.7 ± 7.35
Sexa p=0.311
Woman471 (55.8%)362 (42.9%)11 (1.3%)844
Man143 (49.7%)138 (47.9%)7 (2.4%)288
Studiesb p=0.283
Not higher260 (51.8%)233 (46.4%)9 (1.8%)502
Higher360 (56.4%)269 (42.2%)9 (1.4%)638
No. of people living together p<0.001
Alone42 (35%)75 (62.5%)3 (2.5%)120
With others578 (56.7%)427 (41.9%)15 (1.5%)1020
House mb p=0.741
<6046 (58.2%)33 (41.8%)079
61–90227 (54.4%)184 (44.1%)6 (1.4%)417
>91347 (53.9%)285 (44.3%)12 (1.9%)644
During lockdown, income has been reducedc p<0.001
Yes316 (57.0%)236 (42.6%)2 (0.4%)554
No276 (51.4%)248 (46.2%)13 (2.4%)537
Due to your working situation, do you have to leave home to go to work? p<0.001
Yes108 (43.5%)139 (56.0%)1 (0.4%)248
No512 (57.4%)363 (40.7%)17 (1.9%)892

aThe figures do not coincide because 8 respondents preferred not to answer the sex question.

bHigher (diploma, degree, university degree, master’s degree, and doctorate) and not higher (from primary studies to baccalaureate, including vocational training).

cThe figures do not coincide because there were 49 respondents who preferred not to answer the income reduction question.

Sociodemographic characteristics of the participants by age group. aThe figures do not coincide because 8 respondents preferred not to answer the sex question. bHigher (diploma, degree, university degree, master’s degree, and doctorate) and not higher (from primary studies to baccalaureate, including vocational training). cThe figures do not coincide because there were 49 respondents who preferred not to answer the income reduction question. In relation to the habits of the participants (Table 2), statistically significant differences were found (p < 0.001) and (p < 0.05), in all the items presented between the different age ranges. In relation to weight change during lockdown, more than half of the participants reported that their weight changed over this period.
Table 2

Habits before and during lockdown by age group.

Variables18–35 years36–65 years>65 yearsTotal
Weight change p=0.001
Yes321 (55.2%)255 (43.9%)5 (0.9%)581
No160 (47.8%)164 (49.0%)11 (3.3%)335
Has your sleep pattern changed? p<0.001
Yes492 (60.1%)319 (39.0%)7 (0.9%)818
No128 (39.8%)183 (56.8%)11 (3.4%)322
Do you find it more difficult to fall asleep? p<0.05
Yes409 (58.1%)288 (40.9%)7 (1.0%)704
No211 (49.1%)214 (48.4%)11 (2.5%)436
Assessment of your diet p<0.001
Better206 (63.4%)119 (36.6%)0325
Worse229 (58.3%)164 (41.7%)0393
The same185 (43.8%)219 (51.9%)18 (4.3%)422
Level of physical activity p<0.001
Better273 (71.1%)109 (28.4%)2 (0.5%)384
Worse167 (45.3%)196 (53.1%)6 (1.6%)369
The same180 (46.5%)197 (50.9%)10 (2.6%)387
Amount of food p<0.001
More286 (55.2%)231 (44.6%)1 (0.2%)518
Less94 (64.4%)50 (34.2%)2 (1.4%)146
The same240 (50.4%)221 (46.4%)15 (3.2%)476
Variety of food p=0.004
More271 (60.4%)174 (38.8%)4 (0.9%)449
Less116 (55.8%)88 (42.3%)4 (1.9%)208
The same233 (48.2%)240 (49.7%)10 (2.1%)483
Regularity of schedules p<0.001
More172 (54.3%)143 (45.1%)2 (0.6%)317
Less194 (67.1%)95 (32.9%)0289
The same254 (47.6%)264 (49.4%)16 (3.0%)534
Number of meals per day p<0.001
More201 (58.4%)141 (41.0%)2 (0.6%)344
Less107 (74.3%)36 (25.0%)1 (0.7%)144
The same312 (47.9%)325 (49.8%)15 (2.3%)652
Snacking between meals p<0.001
More263 (52.7%)233 (46.7%)3 (0.6%)499
Less147 (66.8%)71 (32.3%)2 (0.9%)220
The same210 (49.9%)198 (47.0%)13 (3.1%)421
Fresh food consumption p=0.001
More213 (62.3%)129 (37.7%)0342
Less102 (51.8%)90 (45.7%)5 (2.5%)197
The same305 (50.7%)283 (47.1%)13 (2.2%)601
Packaged food consumption p=0.036
More124 (55.9%)93 (41.9%)5 (2.3%)222
Less195 (58.0%)141 (42.0%)0336
The same301 (51.7%)268 (46.0%)13 (2.3%)582
Fast food consumption at home p<0.001
More24 (63.2%)14 (36.8%)038
Less457 (58.6%)319 (40.9%)4 (0.5%)780
The same139 (43.2%)169 (52.5%)14 (4.3%)322
Habits before and during lockdown by age group. In terms of frequency of food consumption (Tables 3–5), statistically significant differences were found (p < 0.001 and p < 0.05) with respect to age ranges for cereals and derivatives, both refined and wholemeal, sweets and pastries, potatoes, pulses, nuts, milk and dairy products, lean meats, cold cuts and sausages, lean and fatty fish, seafood, seed oils other than olive oil, precooked foods, stimulant drinks and alcoholic beverages. In the case of alcoholic beverages, a third of all participants reported a decrease in their consumption, with this reduction being greatest among the youngest group, where there was a 50% drop.
Table 3

Frequency of consumption of drinks and carbohydrate-containing foods according to age group.

18–35 years36–65 years>65 yearsTotal
Cereals and derivatives (bread, pasta, rice) p<0.001
Not consumed12 (33.3%)20 (55.6%)4 (11.1%)36
More182 (58.1%)127 (40.6%)4 (1.3%)313
Less91 (66.4%)45 (32.8%)1 (0.7%)137
The same335 (51.2%)310 (47.4%)9 (1.4%)654
Cereals and whole-grain derivatives p<0.001
Not consumed112 (47.3%)116 (48.9%)9 (3.8%)237
More107 (59.8%)72 (40.2%)0179
Less121 (63.0%)70 (36.5%)1 (0.5%)192
The same280 (52.6%)244 (45.9%)8 (1.5%)532
Sweets and pastries (including breakfast cereals, chocolate and biscuits) p<0.05
Not consumed103 (50.7%)94 (46.3%)6 (3.0%)203
More236 (54.5%)194 (44.8%)3 (0.7%)433
Less148 (64.3%)78 (33.9%)4 (1.7%)230
The same133 (48.5%)136 (49.6%)5 (1.8%)274
Fruit juices (including natural) p=0.062
Not consumed164 (54.8%)127 (42.5%)8 (2.7%)299
More158 (59.6%)105 (39.6%)2 (0.8%)265
Less87 (56.5%)67 (43.5%)0154
The same211 (50.0%)203 (48.1%)8 (1.9%)422
Vegetables and salad p=0.104
Not consumed13 (72.2%)5 (27.8%)018
More233 (59.1%)157 (39.8%)4 (1.0%)394
Less77 (53.1%)64 (44.1%)4 (2.8%)145
The same297 (50.9%)276 (47.3%)10 (1.7%)583
Potatoes p<0.001
Not consumed8 (21.6%)29 (79.4%)037
More224 (60.1%)146 (39.1%)3 (0.8%)373
Less56 (55.4%)44 (43.6%)1 (1.0%)101
The same332 (52.8%)283 (45.0%)14 (2.2%)629
Pulses p=0.018
Not consumed30 (61.2%)19 (38.8%)049
More197 (59.3%)130 (39.2%)5 (1.5%)332
Less72 (64.3%)39 (34.8%)1 (0.9%)112
The same321 (49.6%)314 (48.5%)12 (1.9%)647
Soft drinks p=0.077
Not consumed241 (55.4%)183 (42.1%)11 (2.5%)435
More112 (57.7%)81 (41.8%)1 (0.5%)194
Less118 (56.7%)86 (41.3%)4 (2.0%)208
The same149 (49.2%)152 (50.2%)2 (0.6%)303
Stimulant drinks (with caffeine, theine and ginseng) p<0.05
Not consumed330 (57.5%)231 (40.2%)13 (2.3%)574
More58 (47.5%)64 (52.5%)0122
Less109 (59.3%)74 (39.6%)4 (2.1%)187
The same123 (47.9%)133 (51.8%)1 (0.4%)257
Alcoholic beverages p<0.001
Not consumed193 (56.8%)138 (40.6%)9 (2.6%)340
More72 (38.9%)112 (60.5%)1 (0.5%)185
Less265 (73.2%)93 (25.7%)4 (1.1%)362
The same90 (35.6%)159 (62.8%)4 (1.6%)253
Table 5

Frequency of consumption of fat-containing foods according to age group.

18–35 years36–65 years>65 yearsTotal
Olive oil p=0.381
Not consumed5 (33.3%)10 (66.7%)015
More159 (59.3%)105 (39.2%)4 (1.5%)268
Less28 (51.9%)25 (46.3%)1 (1.9%)54
The same428 (53.3%)362 (45.1%)13 (1.6%)803
Other seed oils (sunflower) and fats (butter or margarine) p<0.05
Not consumed192 (54.7%)146 (41.6%)13 (3.7%)351
More91 (56.5%)69 (42.9%)1 (0.6%)161
Less84 (60.9%)52 (37.7%)2 (1.4%)138
The same253 (51.6%)235 (48.0%)2 (1.4%)490
Precooked foods p<0.05
Not consumed176 (48.6%)177 (48.9%)9 (2.5%)362
More87 (61.3%)53 (37.3%)2 (1.4%)142
Less195 (62.3%)114 (36.4%)4 (1.3%)313
The same162 (50.2%)158 (48.9%)3 (0.9%)323
Savoury snacks p=0.946
Not consumed139 (53.9%)114 (44.2%)5 (1.9%)258
More179 (54.7%)143 (43.7%)5 (1.5%)327
Less118 (57.3%)86 (41.7%)2 (1.0%)206
The same184 (52.7%)159 (45.6%)6 (1.7%)349
Frequency of consumption of drinks and carbohydrate-containing foods according to age group. Frequency of consumption of protein-based food according to age group. Frequency of consumption of fat-containing foods according to age group. Table 6 shows the different relationships between the assessment of eating and the variables: modified weight, level of physical activity, amount of food consumed and modified sleep. When diet was assessed in relation to physical activity, there was a positive association (OR = 2.56, 95% CI = 1.96; 3.34), i.e., people who were more physically active were two and a half times more likely to evaluate their diet positively. On the other hand, there was a negative association with regard to quantity eaten (OR = 0.60, 95% CI = 0.46; 0.78), meaning that eating was negatively valued among those who ate more food. The same degree of association holds for both the raw and adjusted data, in such a way that, when corrected for sex and educational level, the OR increased slightly in both cases, and the CIs remained virtually unchanged.
Table 6

Based on food assessment (less or the same vs. more).

Variablen%OR95% CIORa95% CI
Modified weight
Yes50272.51
No31369.90.880.68; 1.140.890.68; 1.16
Level of physical activity
Less–same59178.21
More22458.32.56***1.96; 3.342.63***2.01; 3.45
Amount of food
Less–same41666.91
More39977.00.60***0.46; 0.780.61***0.47; 0.79
Modified sleep
Yes57770.51
No23873.91.180.89; 1.581.210.90; 1.62

Less or the same was taken as the reference. The data are presented as the odds ratio (OR) with 95% confidence intervals (CI) using a logistic regression model.

***p < 0.001.

aOR adjusted for sex and educational level.

Based on food assessment (less or the same vs. more). Less or the same was taken as the reference. The data are presented as the odds ratio (OR) with 95% confidence intervals (CI) using a logistic regression model. ***p < 0.001. aOR adjusted for sex and educational level.

Discussion

The global COVID-19 pandemic led to home isolation measures in many parts of the world. Changes in dietary patterns have been identified as a result of this lockdown, as well as lifestyle changes that affect sleep and physical activity. As in other studies, our data show that a small number of people spent the lockdown alone, which is consistent with other studies [16, 22, 23]. Age is shown to be a determining factor in the changes observed; around 50% of those surveyed who are of working age have seen their income reduced as a result of the shutdown of non-essential activity, as demonstrated by the National Statistics Institute in Spain [24, 25]. With the closure of non-essential activity and the shift to online education, few people had to leave home to go to their workplace. This affected the middle-aged population to the greatest extent, as they have more stable jobs, similarly to that reported in other work [17]. In terms of body weight, most of the participants claim to have undergone changes, coinciding with that described by Cancello et al. [16] in their study on an Italian population. In this sense, the population over 35 years of age considers that they have undergone fewer changes in their eating habits. The Kantar report [26] shows that as the weeks of lockdown passed, consumers became more aware of the importance of healthier, waste-free eating and gained an interest in getting into the kitchen to make healthy dishes, results that are consistent with those from another study conducted in France over the same weeks [27]. In view of our data, it is possible to think that the same phenomenon occurred; a progressive awareness of the importance of food. However, we could also consider that the preparation of healthy dishes served as an escape and a way to keep busy [16, 23, 28, 29]. On a general level, the participants consumed more food as they had more time, quicker access to food and greater stress levels [7, 30–32]. To cope with this high demand for products, all links in the food production chain had to adapt rapidly [4, 33]. Related to this higher level of consumption is the group of 18–35-year olds who claimed to have increased the variety in their diets; they are the most irregular in terms of schedule, and they are the group who showed the greatest increase in the number of meals eaten every day. The Ministry of Agriculture, Fisheries and Food (MAPA) described increased food consumption in Spanish households over the lockdown weeks compared to the same time last year [4], although it did not indicate whether there were age-linked differences. Coinciding with these data, half of our participants snacked more between meals, similarly to that reported in other research [34]; however, in the study by Rodríguez-Pérez et al. [35] also involving a Spanish population, almost half of the participants claimed to have maintained their habits, showing similar patterns to the pre-confinement stage. As for the type of food consumed, almost a third of respondents increased their consumption of fresh food and reduced their purchase of packaged products, which are presented as less perishable and fast food served at home. This may be due to the fact that one of the few activities permitted was going shopping, combined with increased time spent on cooking and a certain fear of being infected by home deliverers [36, 37]. Indeed, in this sense, measures were established for the catering industry to limit the risk of contagion [38]. Around a quarter of the participants increased their consumption of food groups like cereals, tubers, legumes, meats and cold cuts, as well as dairy products, figures that are in line with those published in the Smart Agrifood report [33]. This growth was higher in the 18–35 age group, as reflected in another study conducted on a Polish population [34]. In addition, almost half of the participants increased their intake of so-called comfort foods (sweets and pastries), just as in other populations studied [30], and almost a third increased their consumption of nuts, information that is reflected in the MAPA report [4]. At the same time, we observed a decrease in the consumption of seafood, especially in the 36–65 age group, and among the youngest, we detected a more pronounced decrease in the consumption of precooked foods, stimulant and alcoholic beverages, as well as cereals and whole-grain products. Although purchases of alcohol and spirits rose slightly, this is far less than the number of beverages purchased for consumption outside the home in the pre-pandemic period, coinciding with that reported in other studies [4, 39, 40]. In our study, the greatest drop in consumption was seen in the 18–35-year olds. This trend change could be explained by the impossibility of having interpersonal relationships and doing leisure activities outside the home. Overall, these findings are in line with those described by previous studies [16, 17, 34, 35] that describe decreased alcohol consumption in the general population. On the other hand, more than half of the participants experienced changes in their sleep pattern, again consistent with the results described by other studies [16, 22, 27, 41–43], and which could be explained by changes in lifestyle, the situation of uncertainty generated by the impending economic recession and the social and health crisis in the country. In terms of age, the youngest participants had the most disturbed sleep patterns. In this sense, Mandelkorn et al. [44] in their study of adult populations in 49 countries found that people over 60 years of age are less likely to develop sleep disorders during periods of lockdown. Furthermore, they observed that the sample Spanish population had a much higher rate of sleep disorders than individuals in other countries, and that this could be related to a lack of physical activity. In this context, when the State of Alarm was introduced [3], which prohibited people from leaving their homes for unjustified reasons, the WHO, anticipating a decline in physical activity among citizens, published guidelines advocating the need to maintain daily physical activity during the lockdown period [14]. However, different studies [16, 22, 35, 43] show that during the pandemic few people actually increased their physical activity level. Indeed, studies such as that developed by Mattioli et al. [45] warn of the negative effects of not engaging in physical activity during the pandemic, including the appearance of metabolic disorders that increase cardiovascular risk, impaired aerobic capacity, insulin resistance and decreased muscle performance. However, despite the low expectations, in our study we found that more than two thirds of the respondents maintained or increased their physical activity, and similar values were found in a study of an Italian population, where participants who already engaged in sport prior to lockdown increased the frequency of their training [17]. In addition, in our study we found that the increase in physical activity was significantly higher among the younger age group, coinciding with that described by Pérez-Rodrigo et al. [46] in their study on a Spanish population, in which they observed greater physical activity levels during lockdown among participants aged between 18 and 34. Another study, conducted in northern Italy, concluded that people over 30 years of age were less likely to increase their physical activity during lockdown [16]. Numerous studies have found an association between diet, physical activity and body weight control [31, 47, 48]. In our case, there was a direct relationship between a healthy diet and the practice of regular physical activity. This finding is reflected by Flanagan et al. [49], who reported that study subjects who exhibited less healthy eating during lockdown had more sedentary behaviour. Pérez-Rodrigo et al. [46] showed how people who increased their physical activity were three times more likely to reduce their food intake. The strengths of our study include the online survey, which allowed us to reach a large number of people quickly, at a time when most of the population could not leave their homes. In addition, the results are stratified by age group, which provides a clearer picture of eating behaviour in these populational groups. The limitations of the study include the non-random sampling technique employed to reach the participants. In addition, the majority of the participants were women, something which is very common in research conducted during lockdown [23, 41]. As this was an online survey, it was not possible to find out further details related to the participants’ answers. In conclusion, our results show that, during the lockdown period, study participants from 18 to 35 years of age increased both their physical activity levels and their consumption of fresh food; they also decreased their consumption of fast food at home and reduced their overall alcohol consumption. In the group of over 65s, there were no changes in food consumption or routine despite the lockdown, and we can state that this social group has consolidated habits. Our findings suggest that, in the current social and health crisis, the citizens in southern Spain have become aware of how important maintaining appropriate lifestyles is in staying healthy, a trend that should be used by health authorities to promote strategies and interventions, either in health centres or through the use of digital tools, which allow greater adherence to healthy lifestyle habits, as it could have a positive impact on well-being physical, social and mental of the citizens before possible future home lockdown.
Table 4

Frequency of consumption of protein-based food according to age group.

18–35 years36–65 years>65 yearsTotal
Milk and dairy products (yoghurt, cheese) p<0.05
Not consumed46 (55.4%)36 (43.4%)1 (1.2%)83
More185 (64.7%)99 (34.6%)2 (0.7%)286
Less55 (58.5%)38 (40.4%)1 (1.1%)94
The same334 (49.3%)329 (48.6%)14 (2.1%)677
Dairy-type beverages (soy, almond, oatmeal) p=0.401
Not consumed310 (54.4%)247 (43.3%)13 (2.3%)570
More65 (59.1%)45 (40.9%)0110
Less49 (57.6%)35 (41.2%)1 (1.2%)85
The same196 (52.3%)175 (46.7%)4 (1.1%)375
Dairy desserts (custard, flan, rice pudding, etc.) p<0.05
Not consumed220 (50.6%)166 (42.2%)7 (1.8%)393
More147 (58.6%)103 (41.0%)1 (0.4%)251
Less72 (60.0%)45 (37.5%)3 (2.5%)120
The same181 (48.1%)188 (50.0%)7 (1.9%)376
Fatty meats (pork, beef) p<0.05
Not consumed77 (63.1%)45 (36.9%)0122
More121 (60.5%)76 (38.0%)3 (1.5%)200
Less96 (57.5%)69 (41.3%)2 (1.2%)167
The same326 (50.1%)312 (47.9%)13 (2.0%)651
Lean meats (chicken, turkey, rabbit) p<0.05
Not consumed41 (74.5%)14 (25.5%)055
More156 (58.9%)106 (40.0%)3 (1.1%)265
Less67 (65.7%)34 (33.3%)1 (1.0%)102
The same356 (49.6%)348 (48.5%)14 (1.9%)718
Sausages and cold cuts p<0.05
Not consumed119 (63.6%)61 (32.6%)7 (3.7%)187
More132 (54.1%)110 (45.1%)2 (0.8%)244
Less113 (58.9%)76 (39.6%)3 (1.6%)192
The same256 (49.5%)255 (49.3%)6 (1.2%)517
Oily fish (sardines, salmon, tuna, mackerel) p<0.001
Not consumed79 (75.2%)25 (23.8%)1 (1.0%)105
More143 (62.4%)85 (37.1%)1 (0.4%)229
Less117 (50.2%)110 (47.2%)6 (2.6%)233
The same281 (49.0%)282 (49.2%)10 (1.7%)573
Lean and semi-fatty fish (hake, cod, monkfish, gilt-head bream, sole) p<0.001
Not consumed80 (82.5%)17 (17.5%)097
More159 (62.8%)91 (36.0%)3 (1.2%)253
Less113 (48.1%)116 (49.4%)6 (2.6%)235
The same268 (48.3%)278 (50.1%)9 (1.6%)555
Seafood p<0.001
Not consumed194 (68.1%)87 (30.5%)4 (1.4%)285
More56 (54.9%)44 (43.1%)2 (2.0%)102
Less140 (42.3%)186 (56.2%)5 (1.5%)331
The same230 (54.5%)185 (43.8%)7 (1.7%)422
Eggs p=0.594
Not consumed16 (57.1%)12 (42.9%)028
More220 (55.0%)175 (43.8%)5 (1.2%)400
Less46 (63.0%)25 (34.2%)2 (2.8%)73
The same338 (52.9%)290 (45.4%)11 (1.7%)639
  13 in total

Review 1.  Stress and eating behaviors.

Authors:  Y H C Yau; M N Potenza
Journal:  Minerva Endocrinol       Date:  2013-09       Impact factor: 2.184

Review 2.  The determinants of food choice.

Authors:  Gareth Leng; Roger A H Adan; Michele Belot; Jeffrey M Brunstrom; Kees de Graaf; Suzanne L Dickson; Todd Hare; Silvia Maier; John Menzies; Hubert Preissl; Lucia A Reisch; Peter J Rogers; Paul A M Smeets
Journal:  Proc Nutr Soc       Date:  2016-12-01       Impact factor: 6.297

3.  Escalation of sleep disturbances amid the COVID-19 pandemic: a cross-sectional international study.

Authors:  Uri Mandelkorn; Shir Genzer; Shoham Choshen-Hillel; Joel Reiter; Miguel Meira E Cruz; Hagit Hochner; Leila Kheirandish-Gozal; David Gozal; Alex Gileles-Hillel
Journal:  J Clin Sleep Med       Date:  2021-01-01       Impact factor: 4.062

4.  Quarantine during COVID-19 outbreak: Changes in diet and physical activity increase the risk of cardiovascular disease.

Authors:  Anna V Mattioli; Susanna Sciomer; Camilla Cocchi; Silvia Maffei; Sabina Gallina
Journal:  Nutr Metab Cardiovasc Dis       Date:  2020-05-30       Impact factor: 4.222

5.  Influence of COVID-19 on lifestyle behaviors in the Middle East and North Africa Region: a survey of 5896 individuals.

Authors:  Mohamed Abouzid; Dina M El-Sherif; Nael Kamel Eltewacy; Nesrine Ben Hadj Dahman; Salah A Okasha; Sherief Ghozy; Sheikh Mohammed Shariful Islam
Journal:  J Transl Med       Date:  2021-03-30       Impact factor: 5.531

6.  COVID-19 quarantine: Post-traumatic stress symptomatology among Lebanese citizens.

Authors:  Mirna Fawaz; Ali Samaha
Journal:  Int J Soc Psychiatry       Date:  2020-06-03

7.  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

8.  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

9.  COVID-19 Stress and Food Intake: Protective and Risk Factors for Stress-Related Palatable Food Intake in U.S. Adults.

Authors:  Jennifer R Sadler; Gita Thapaliya; Elena Jansen; Anahys H Aghababian; Kimberly R Smith; Susan Carnell
Journal:  Nutrients       Date:  2021-03-10       Impact factor: 5.717

Review 10.  The psychological impact of quarantine and how to reduce it: rapid review of the evidence.

Authors:  Samantha K Brooks; Rebecca K Webster; Louise E Smith; Lisa Woodland; Simon Wessely; Neil Greenberg; Gideon James Rubin
Journal:  Lancet       Date:  2020-02-26       Impact factor: 79.321

View more
  6 in total

1.  One-Year Impact of COVID-19 Lockdown-Related Factors on Cardiovascular Risk and Mental Health: A Population-Based Cohort Study.

Authors:  Emilie Bérard; Samantha Huo Yung Kai; Nicola Coley; Vanina Bongard; Jean Ferrières
Journal:  Int J Environ Res Public Health       Date:  2022-02-01       Impact factor: 3.390

2.  Pharmacological Adherence Behavior Changes during COVID-19 Outbreak in a Portugal Patient Cohort.

Authors:  Luís Midão; Marta Almada; Joana Carrilho; Rute Sampaio; Elísio Costa
Journal:  Int J Environ Res Public Health       Date:  2022-01-20       Impact factor: 3.390

3.  Impact of Lockdown due to COVID-19 on lifestyle and diet pattern of college students of Eastern India: A cross-sectional survey.

Authors:  Santosh Kumar Nirala; Bijaya Nanda Naik; Rajath Rao; Sanjay Pandey; C M Singh; Neha Chaudhary
Journal:  Nepal J Epidemiol       Date:  2022-03-31

4.  Self-Reported Dietary Choices and Oral Health Care Needs during COVID-19 Quarantine: A Cross-Sectional Study.

Authors:  Elzbieta Paszynska; Szczepan Cofta; Amadeusz Hernik; Justyna Otulakowska-Skrzynska; Daria Springer; Magdalena Roszak; Aleksandra Sidor; Piotr Rzymski
Journal:  Nutrients       Date:  2022-01-13       Impact factor: 5.717

5.  Development of a Web-App for the Ecological Momentary Assessment of Dietary Habits among College Students: The HEALTHY-UNICT Project.

Authors:  Martina Barchitta; Andrea Maugeri; Giuliana Favara; Roberta Magnano San Lio; Paolo Marco Riela; Luca Guarnera; Sebastiano Battiato; Antonella Agodi
Journal:  Nutrients       Date:  2022-01-13       Impact factor: 5.717

6.  Food Habits and Lifestyle of Romanians in the Context of the COVID-19 Pandemic.

Authors:  Valentin Năstăsescu; Magdalena Mititelu; Tiberius Iustinian Stanciu; Doina Drăgănescu; Nicoleta Diana Grigore; Denisa Ioana Udeanu; Gabriela Stanciu; Sorinel Marius Neacșu; Cristina Elena Dinu-Pîrvu; Eliza Oprea; Manuela Ghica
Journal:  Nutrients       Date:  2022-01-24       Impact factor: 5.717

  6 in total

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