Hostname: page-component-68c7f8b79f-s5tvr Total loading time: 0 Render date: 2026-01-15T01:10:57.700Z Has data issue: false hasContentIssue false

Exploring sociodemographic and nutrition-related correlates of meal-kit use across five countries: findings from the International Food Policy Study

Published online by Cambridge University Press:  23 December 2025

Liza Boyar
Affiliation:
School of Public Health Sciences, University of Waterloo , Waterloo, ON, Canada
Christine M. White
Affiliation:
School of Public Health Sciences, University of Waterloo , Waterloo, ON, Canada
Lana Vanderlee
Affiliation:
École de Nutrition, Université Laval, Québec City, QC, Canada
Jean Adams
Affiliation:
MRC Epidemiology, University of Cambridge, Cambridge, England
Martin White
Affiliation:
MRC Epidemiology, University of Cambridge, Cambridge, England
Gary Sacks
Affiliation:
School of Health & Social Development, Deakin University, Melbourne, VIC, Australia
Daisy Coyle
Affiliation:
The George Institute for Global Health, Sydney, NSW, Australia
Noah Cooke
Affiliation:
MRC Epidemiology, University of Cambridge, Cambridge, England
David Hammond*
Affiliation:
School of Public Health Sciences, University of Waterloo , Waterloo, ON, Canada
*
Corresponding author: David Hammond; Email: david.hammond@uwaterloo.ca
Rights & Permissions [Opens in a new window]

Abstract

Objective:

To assess the frequency and correlates of meal-kit use across five countries using population-level data.

Design:

Online surveys conducted in 2022 assessed meal-kit use in the past week. Binary logistic regression models examined sociodemographic and nutrition-related correlates of meal-kit use, including self-reported home meal preparation and cooking skills, commercially prepared meal consumption and healthy eating, weight change and sustainability efforts.

Setting:

Canada, Australia, the UK, the USA and Mexico.

Participants:

20,401 adults aged 18–100 years.

Results:

Overall, 14 % of participants reported using meal-kits in the past week. Use was highest in the USA (18 %) and lowest in Canada (9 %). Meal-kit use was greater among individuals who were younger, male, of minority ethnicity, had high educational attainment, had higher income adequacy or had children living in the household (P < 0·01 for all). Use was greater for those who participated in any food shopping (v. none), those who prepared food sometimes (3–4 d/week or less v. never) and those who reported ‘fair’ or better cooking skills (v. poor; P < 0·05 for all). Consuming any ‘ready-to-eat’ food (v. none) and visiting restaurants more recently (v. > 6 months ago; P < 0·001 for all) were associated with greater meal-kit use. Eating fruits/vegetables more than 2 times/d and engaging in diet modification efforts were also associated with increased meal-kit use, as was engaging in weight change or sustainability efforts (P < 0·001 for all).

Conclusions:

Meal-kits tend to be used by individuals who make efforts to support their health and sustainability, potentially valuing ‘convenient’ alternatives to traditional home meal preparation; however, use is concentrated amongst those with higher income adequacy.

Information

Type
Research Paper
Creative Commons
Creative Common License - CCCreative Common License - BY
This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (https://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution and reproduction, provided the original article is properly cited.
Copyright
© The Author(s), 2025. Published by Cambridge University Press on behalf of The Nutrition Society

Dietary risk factors are among the leading causes of non-communicable diseases, including cardiovascular disease and diabetes(Reference Melaku, Renzaho and Gill1). Dietary patterns that are low in fruits, vegetables and whole grains and high in salt, unhealthy fats and refined carbohydrates are major contributors to morbidity and mortality(Reference Melaku, Renzaho and Gill1). Greater home meal preparation frequency is associated with better diet quality among both lower-income and higher-income adults, as indicated by higher Healthy Eating Index scores(Reference Wolfson, Leung and Richardson2,Reference Mills, White and Brown3) , as well as greater adherence to recommended dietary patterns (e.g. Mediterranean and Dietary Approaches to Stop Hypertension) and greater fruit and vegetable intake(Reference Mills, Brown and Wrieden4). Higher intake of food prepared in the home is also associated with markers of cardio-metabolic health, including lower adipose mass and waist circumference(Reference Mills, Brown and Wrieden4,Reference Kim, Hou and Wang5) . In addition to improved health and diet quality, home meal preparation is also associated with family relationship development and the establishment of stronger cultural identities(Reference Gatley, Caraher and Lang6,Reference Glanz, Metcalfe and Folta7) . However, home meal preparation has become increasingly less frequent over time, while the consumption of meals commercially prepared outside the home has increased(Reference McKay8,9) . The reduced consumption of meals prepared at home may reflect many factors, including general declines in cooking skills and confidence, increased marketing of convenience foods, and lower priority due to competing demands on time(Reference Clifford Astbury, Foley and Penney1013).

Meal-kits have emerged as a hybrid between commercially prepared meals and home meal preparation. Meal-kits are predominantly subscription-based services that provide pre-portioned ingredients for a variety of recipes and are usually delivered directly to consumers’ homes(Reference Heard, Bandekar and Vassar14,Reference Oberle, Loth and Schendel15) ; however, in some countries such as the USA and the UK, variations of meal-kits are now also available for purchase at major grocery retail stores. Step-by-step recipe instructions are commonly included with the meal-kits, facilitating and expediting home meal preparation(Reference Oberle, Loth and Schendel15,Reference Bennett, Keeble and Zorbas16) . Subscription-based meal-kits are typically delivered on a weekly basis, permitting fresh ingredients to be included(Reference Fraser, Love and Campbell17,Reference Robinson-Oghogho, Thorpe and Neff18) . Meal-kit companies may additionally have offerings tailored for specific health conditions (e.g. low sodium, low sugar, gluten-free), dietary preferences (e.g. vegan, vegetarian), options for local or organic products, complexity levels, preparation times or cuisines(Reference Lee and Ham19).

The meal-kit industry has been rapidly expanding, with a market size valued at over $20 billion in 2022 in the USA(20). This growth was accelerated by the onset of the COVID-19 pandemic, which saw pronounced increases in meal-kit purchasing and home meal preparation(Reference Lee and Ham19,Reference Jia, Raeside and Sainsbury21,Reference Coulthard, Sharps and Cunliffe22) . This can, in part, be attributed to closures and capacity limits at restaurants, supply chain shortages reflected in reduced grocery availability, and shifts to working from home(Reference Fraser, Love and Campbell17,Reference Robinson-Oghogho, Thorpe and Neff18,Reference Chenarides, Grebitus and Lusk23) . These factors may have increased the time and incentive individuals had to prepare meals at home(Reference Fraser, Love and Campbell17,Reference Bender, Badiger and Roe24) . A recent systematic review described growth in the online food sector following the onset of the pandemic chiefly attributed to contactless delivery modes, which became increasingly valued as consumers looked to reduce the number of visits to grocery stores(Reference Robinson-Oghogho, Thorpe and Neff18,Reference Lee and Ham19,Reference Jia, Raeside and Sainsbury21) . These changes in food acquisition were reflected in online grocery deliveries and meal delivery applications(Reference Jia, Raeside and Sainsbury21,Reference Chenarides, Grebitus and Lusk23) .

Meal-kits may offer several unique benefits compared with grocery store purchases(Reference Robinson-Oghogho, Thorpe and Neff18). Meal-kits may help avoid food waste as consumers can typically indicate the number of portions per meal they wish to be delivered(Reference Heard, Bandekar and Vassar14,Reference Robinson-Oghogho, Thorpe and Neff18) . A Monte Carlo analysis by researchers out of the USA also showed that meal-kits may have lower greenhouse gas emissions than meals made from food purchased at grocery stores, in large part due to reduced food waste, which offsets emissions attributed to additional packaging(Reference Heard, Bandekar and Vassar14). Many meal-kit companies also provide recyclable packaging, though emphasis on sustainable practices varies(25). Further, meal-kits have been positioned as a way to potentially increase home meal preparation frequency by combating a lack of time or knowledge, which can impede meal planning(Reference McKay8,Reference Oberle, Loth and Schendel15,Reference Hertz and Halkier26) . Meal-kits can help reduce the cognitive load of dietary decision making, increasing family members’ participation in home meal preparation and providing an opportunity for building food literacy, cooking skills and confidence(Reference Fraser, Love and Campbell17,Reference Hertz and Halkier26,Reference Halkier27) . Meal-kits may also provide an opportunity to engage children in home meal preparation by making it easier for children to follow along, enhancing their skills and confidence in the kitchen and facilitating inter-generational socialisation(Reference Fraser, Love and Campbell17,Reference Hertz and Halkier26,Reference Farmer, Touchton-Leonard and Ross28) . However, meal-kits may be unaffordable for some consumers, given that their prices are often greater than purchasing equivalent items at grocery stores(Reference Fernandez and Raine29). The cost of purchasing meals-kits is variable based on region, company and food offerings. As of 2025, the cost per serving for meal-kits from leading companies in the USA was on average $10–$12 but ranged as low as $6 to as high as $22 per serving(Reference Watsky30).

Despite the growing popularity of meal-kits and their potential to help address the trend in decreasing home meal preparation, there is little research characterising their use at a population level. Most work to date has examined the nutritional composition of meal-kits(Reference McKay8,Reference Nixon and Ensaff31) or their acceptability and feasibility for improving food access(Reference Robinson-Oghogho, Gittelsohn and Bowie32,Reference Hollis-Hansen, Haskins and Turcios33) and diet quality(Reference Conroy, Young and Errmann34,Reference Fraser, Love and Laws35) . Few studies have explored the frequency of meal-kit use and the correlates of use. One USA-only study used population-level data to examine meal-kit use during the early months of the COVID-19 pandemic and found that most new users were under 55 years of age, had children in the household and reported eating both more fruits/vegetables and more red/processed meat(Reference Robinson-Oghogho, Thorpe and Neff18). A recent cross-country study also found that meal-kit users were more likely to be younger, male and have children present in the home(Reference Bennett, Gomez-Donoso and Zorbas36). While some dichotomous measures of home meal preparation were included, the study largely examined sociodemographic correlates and did not include measures addressing participants’ healthy eating, weight change or sustainability efforts. As such, important questions remain about how meal-kit use relates to broader health and dietary behaviours, as well as the potential role of meal-kits in supporting healthier and more sustainable eating patterns. The present study contributes new evidence by investigating not only the prevalence and correlates of meal-kit use across five countries using self-reported population-level survey data but also associations with dietary behaviours. We examined three primary research questions: (1) How prevalent is meal-kit use, and are there differences in meal-kit use prevalence between countries? (2) What is the sociodemographic profile of meal-kit users, and does it differ by country? and (3) What nutrition-related behaviours are associated with meal-kit use, including home meal preparation and cooking skills, commercially prepared meal consumption, healthy eating efforts, weight change efforts and sustainability efforts?

Methods

The study used data from the 2022 International Food Policy Study (IFPS) adult survey. The IFPS is a cross-sectional survey conducted in five countries: Canada, Australia, the UK, the USA and Mexico. Data were collected using self-completed web-based surveys administered to adults aged 18–100 years. Respondents were recruited through Nielsen Consumer Insights Global Panel and their partners’ panels. The panels were recruited using both probability and non-probability sampling methods. Email and panellist dashboard application invitations with unique survey access links were shared with a random sample of panellists within each country after targeting for demographics. Potential respondents were screened for eligibility (18–100 years, residence in the target country) and quota requirements based on age and sex. Surveys were conducted in English in Australia and the UK, Spanish in Mexico, English or French in Canada and English or Spanish in the USA. English survey measures were translated into French and Spanish by professional translation companies and subsequently reviewed by bilingual content-experts who were native French and Spanish speakers to confirm nutrition-related terminology. Respondents provided consent prior to survey completion. Respondents received remuneration in accordance with their panel’s usual incentive structure (e.g. points-based or monetary rewards, chances to win prizes). The study was reviewed by and received ethics clearance through the University of Waterloo Research Ethics Board (REB# 30829). Further methodological details are available in the 2022 IFPS Technical Report(Reference Hammond37), as well as in the analysis pre-registration published in the Open Science Framework(Reference Boyar, White and Vanderlee38).

Measures

Meal-kit use

Respondents were asked a series of questions about food prepared at home in the past 7 d. Regarding meal-kits, respondents were asked, ‘Was any of the food purchased in the past 7 d from a meal-kit delivery service (e.g. HelloFresh, Goodfood)?’ (Yes/No). Different examples of popular meal-kit delivery services were provided in each country (Canada: HelloFresh, Goodfood; Australia: HelloFresh, Marley Spoon; Mexico: Freshybox; UK: HelloFresh, Gousto; USA: HelloFresh, Blue Apron).

Home meal preparation and cooking skills

Respondents were asked, ‘How much of the food shopping do you do in your household?’ (Most/Share equally with other(s)/Some, but less than other(s)/None). Respondents were also asked, ‘How often do you prepare a main meal for yourself or others?’ (Never/Only for special occasions/Less than once a week/One or 2 d a week/Some days (3–4 a week)/Most days (5–6 a week)/Every day), and ‘Overall, how would you rate your cooking skills?’ (Poor/Fair/Good/Very Good/Excellent).

Commercially prepared meal consumption

Respondents were asked, ‘When was the last time you visited a restaurant (including a fast-food outlet or coffee shop)?’ (Within the last 24 h/Within the last 7 d/ Within the last 3 months/Within the last 6 months/Longer than 6 months ago). Respondents were also asked, ‘Thinking about the meals prepared at home in the past 7 d, what percentage was ‘ready-to-eat’ or ‘box food’ (e.g. microwave, frozen or packaged meals)?’ (numeric: 0–100 %). Responses were grouped into quintiles (0 %/1–25 %/26–50 %/51–75 %/> 75 %).

Healthy eating efforts

Respondents were asked a series of questions to assess their total daily fruit and vegetable intake (including fruit, 100 % fruit juice, green leafy or lettuce salad, non-fried potatoes and other vegetables, but excluding fried potatoes and non-100 % fruit juice beverages). Total daily fruit and vegetable intake was tallied and recoded as ‘Less than 1 time per day’, ‘Between 1 and 2 times per day’ or ‘More than 2 times per day’. Respondents were also asked a series of questions to assess if they have made a conscious effort to consume more vegetables and fruits/protein/whole grains or consume less sugary food/processed foods/salt/red or processed meat (e.g. beef, pork, deli meat). A diet modification efforts index was created by summing affirmative responses (range: 0–7).

Weight change efforts

Using a ‘select all that apply’ format, respondents were asked, ‘During the past 12 months, have you tried to…’ (Lose weight/Gain weight/Stay the same weight/I have not tried to do anything about my weight).

Sustainability efforts

Respondents were asked, ‘Do you make a special effort to eat plant-based protein foods, like beans, lentils, nuts, seeds or soy products like tofu?’ (Yes/No/ I’m not sure what plant-based protein foods are). Respondents were also asked a series of questions about sustainability efforts including if they ‘made a special effort to purchase foods with … low greenhouse gas emissions/organic foods/local foods (food grown in your area)/foods that are in season/fairtrade foods (e.g. fair wages and working conditions)/foods from ethically raised animals/food with less impact on biodiversity (wildlife, habitat loss, soil health)/foods that have less packaging’. A sustainability effort index was created by summing affirmative responses (range: 0–8).

Sociodemographic characteristics

Sociodemographic measures included country of survey, sex at birth (Male/Female), age group (18–29 years old/30–44 years old/45–59 years old/60+ years old), ethnicity (Majority/Minority), highest education level completed (Low/Medium/High), perceived income adequacy (assessed by asking, ‘Thinking about your total monthly income, how difficult or easy is it for you to make ends meet?’ Very difficult/Difficult/Neither easy nor difficult/Easy/Very easy) and presence of dependent children in the household (No children < 18 years in household/Children < 18 years in household). Descriptive frequencies for gender are shown in Table 1; however, gender was not integrated into the models due to small cell sizes not appropriate for modelling. Details regarding country-specific response options for ethnicity and education are available in the 2022 IFPS Technical Report(Reference Hammond37).

Table 1. Sample sociodemographic characteristics, overall and by country, 2022, n 20,401 (weighted estimates)

* Ethnicity categories refer to the following: in Canada, ‘majority’ if ‘White (European descent)’ is only category selected, ‘minority’ if any other category selected; in Australia, ‘majority’ if only speak English at home, ‘minority’ if speak a language other than English at home or indicated they are aboriginal or Torres Straight Islander; in the UK and the USA, ‘majority’ if only ‘White’ category is selected, ‘minority’ if selected any other category; and in Mexico, ‘majority’ if do not consider self Indigenous, ‘minority’ if consider self Indigenous.

Education categories refer to the following: in Canada, ‘low’ if ‘High school diploma/equivalent’ or below, ‘high’ if ‘Bachelor’s degree’ or above; in Australia, ‘low’ if ‘Year 12/ equivalent’ or below, ‘high’ if ‘Bachelor’s degree’ or above; in the UK, ‘low’ if ‘5 + O levels (passes)/CSEs (grade 1)/GCSEs (grades A*-C/9-4), School Certificate, 1 A level/2–3 AS levels/VCEs, Higher Diploma’ or below, ‘high’ if ‘Degree/Higher Degree/ NVQ Level 4–5, HNC, HND, RSA Higher Diploma, BTEC Higher Level/ Professional qualifications’; in the USA, ‘low’ if ‘12th Grade/high school diploma’ or below, ‘high’ if ‘Bachelor’s degree’ or above; and in Mexico, ‘low’ if ‘Normal básica’ or below, ‘high’ if ‘Normal de licenciatura’ or above.

Data analysis

A total of 22,304 adults completed the survey. Respondents were excluded for the following data quality reasons: ineligible region; invalid response to a data quality question; below minimum survey completion time based on median survey time; and/or invalid responses to at least three of twenty open-ended measures (n 1,320). Further, respondents could select ‘Don’t know’ or ‘Refuse to answer’ for all questions except sex at birth and age. ‘Don’t know’ was recoded to ‘No’ for meal-kit use (n 174) to preserve sample size and based on the assumption that uncertainty about recent meal-kit use indicates it likely did not occur. A total of 583 respondents with missing data on key variables were excluded, including ‘Don’t know’, ‘Refuse to answer’ and/or system missing where no feasible interpretations could be made. Due to large proportions of missing responses for fruit and vegetable consumption (16·7 %) and ‘ready-to-eat’ food consumption (14·6 %) (including blank values, ‘Don’t know’, ‘Refuse to answer’ and implausible values deleted during data cleaning), a separate missing data category was retained for both variables. Similarly, ‘Don’t know’ and ‘Refuse to answer’ were retained in a separate ‘Not stated’ category for income adequacy (n 128), ethnicity (n 168) and education (n 65). The final analytic sample included 20,401 respondents (Australia: n 4,086; Canada: n 4,310; Mexico: n 4,091; UK: n 4,078; USA: n 3,836).

Two changes were made to the pre-registered analysis plan(Reference Boyar, White and Vanderlee38): (1) total daily fruit and vegetable intake and frequency of ‘ready-to-eat’ meal consumption were analysed as ordinal rather than continuous data due to the large proportions of missing responses noted above, and (2) plant-based consumption was disaggregated from the sustainability efforts index as plant-based consumption may occur for dietary reasons outside of sustainability. No further changes were made to the pre-registered analytic plans published on the Open Science Framework.

Data were weighted with post-stratification sample weights constructed using a raking algorithm with population estimates from the census in each country based on age group, sex, region, ethnicity (except in Canada) and education (except in Mexico). Weights were rescaled to the unweighted sample size in each country; estimates reported are weighted unless otherwise specified. Descriptive statistics were used to characterise variables. Cross-sectional analysis was conducted using binary logistic regression; two-way interactions were tested between country and sociodemographic variables, with 95 % CI and adjusted odds ratios (AOR) reported. All models were adjusted for country, age, sex at birth, ethnicity, education, income adequacy and presence of dependent children in the household. All statistical analyses were conducted using SAS Studio statistical software, version 9.4.

Results

Sociodemographic characteristics

The sociodemographic characteristics of the sample are shown in Table 1, overall and by country.

Differences in meal-kit use by country and sociodemographic characteristics

As shown in Table 2, 13·7 % of respondents reported using meal-kits in the past 7 d. Meal-kit use was lowest in Canada (8·8 %), followed by the UK (11·6 %), Australia (14·8 %) and Mexico (15·7 %), with use highest in the USA (18·0 %). Use in the UK, Australia and Mexico was not significantly different from each other in unadjusted models; however, after adjusting for covariates, respondents in Australia had greater odds of meal-kit use than those in Mexico (AOR: 1·21, CI: 1·02, 1·42, P = 0·030).

Table 2. Meal-kit use in past 7 d by sociodemographic factors, 2022, n 20,401 (weighted estimates)

* Percentage of respondents who reported using a meal-kit in past 7 d.

Adjusted OR from a logistic regression model adjusted for country, age, sex at birth, ethnicity, education, income adequacy and presence of dependent children in the household.

95 % CI.

Among all countries pooled, past 7 d meal-kit use varied by age and other sociodemographic characteristics. In models adjusting for covariates, there was a stepwise decrease in odds of using meal-kits across the age groups, with respondents aged 18–29 (22·7 %) having the greatest odds of meal-kit use (P < 0·001 for all). Males (17·9 %) reported greater odds of using meal-kits compared with females (9·6 %, AOR: 2·03, CI: 1·83, 2·26, P < 0·001). Compared with those who were of ‘majority’ ethnicity (11·0 %), those who were of ‘minority’ ethnicity (21·9 %) had greater odds of using meal-kits (AOR: 1·54, CI: 1·37, 1·74, P < 0·001). Odds of meal-kit use were also higher for those reporting ‘easy’ (17·7 %, AOR 1·53, CI: 1·23, 1·90) and ‘very easy’ (25·6 %, AOR: 2·52, CI: 2·00, 3·17) income adequacy compared with ‘very difficult’ (10·4 %, P < 0·001 for both). No differences in meal-kit use were observed between those at the middle and lower ends of income adequacy. Those who reported ‘high’ education (19·9 %) had greater odds of meal-kit use compared with those reporting ‘low’ education (9·7 %, AOR: 1·68, CI: 1·47, 1·92, P < 0·001), with no differences between the ‘medium’ and ‘low’ education levels. Finally, odds of meal-kit use were greater for those who had children under 18 years in the household (26·8 %), compared with those who did not have children present (7·5 %, AOR 2·88, CI: 2·56, 3·22, P < 0·001).

In terms of interactions, differences in sociodemographic trends between countries were observed for age (F = 6·17, P < 0·001), sex (F = 6·35, P < 0·001), income adequacy (F = 3·07, P < 0·001), education (F = 3·35, P < 0·001) and presence of children in household (F = 5·92, P < 0·001). As Fig. 1(a) shows, while those aged 18–29 in Canada had greater meal-kit use than those aged 30–44, the opposite was observed in Australia and the USA, and no differences were observed in the UK and Mexico. Across all countries, males had greater odds of using meal-kits than females; however, the magnitude of difference was smallest in Mexico and greatest in the USA and Australia (Fig. 1b). As Fig. 1(c) demonstrates, the difference in meal-kit use between lower and higher income adequacy was most pronounced in the USA and Mexico. In Canada, meal-kit use was low across all income adequacy categories and was largely not significantly different by category. Additionally, in Australia, meal-kit use appeared to peak in the ‘easy’ income adequacy category, as compared with the peak at ‘very easy’ for other countries. Across all countries, meal-kit use was highest for those with ‘high’ education, as shown in Fig. 1(d). The magnitude of difference between the ‘low’ and ‘high’ education levels was most pronounced in the USA and Australia and least pronounced in Mexico. Finally, the trend of those with children present in the household having greater odds of using meal-kits was observed across all countries (Fig. 1e). However, the magnitude of difference was greatest in the USA, and lowest in Canada and Mexico. The interaction of country with ethnicity was not statistically significant (F = 1·76, P = 0·080).

Fig. 1 Interactions of meal-kit use in past 7 d with sociodemographic characteristics, by country, n 20,401 (weighted estimates). (a) Interaction of meal-kit use with age, by country. (b) Interaction of meal-kit use with sex at birth, by country. (c) Interaction of meal-kit use with income adequacy, by country. (d) Interaction of meal-kit use with education, by country. (e) Interaction of meal-kit use with presence of children in household, by country.

Association between meal-kit use and home meal preparation and cooking skills

As shown in Table 3, those who did any shopping had greater odds of using meal-kits than those who did ‘none’ of the shopping (P < 0·01 for all). Those who reported preparing food ‘some days (3–4 per week)’ or less (up to only preparing food for ‘special occasions’) had greater odds of using meal-kits than those who ‘never’ prepared food (P < 0·01 for all). Differences in the frequency of meal-kit use between those who prepared food ‘most days (5–6 per week)’ (9·6 %, P = 0·439) or ‘every day’ (6·4 %, P = 0·580) with those who ‘never’ prepared food (4·9 %) were not statistically significant. Finally, those who rated their cooking skills as ‘fair’ or better had greater odds of using meal-kits compared with those who rated their skills as ‘poor’ (P < 0·05 for all).

Table 3. Meal-kit use in past 7 d by home meal preparation, cooking skills and commercially prepared meal consumption, 2022, n 20,401 (weighted estimates)

* Percent of respondents who reported using a meal-kit in past 7 d.

Adjusted OR from a logistic regression model adjusted for country, age, sex at birth, ethnicity, education, income adequacy and presence of dependent children in the household.

95 % CI.

Association between meal-kit use and commercially prepared meal consumption

As also shown in Table 3, those who last visited a restaurant within the past 6 months or more recently had greater odds of using meal-kits compared with those whose last visit was longer than 6 months ago (P < 0·001 for all). There was a trend of increased meal-kit use across the middle three restaurant visit frequency categories (last 7 d to last 3 months (13·7 % v. 14·7 %, P < 0·001); last 3 months to last 6 months (14·7 % v. 17·3 %, P = 0·054)), wherein use increased with decreasing recency of visit; however, use among those who visited a restaurant within the last 24 h was similar to those who visited in the last 3 months (P = 0·241). In terms of processed ‘ready-to-eat’ meal intake in the past 7 d, those who consumed at least 1 % of intake from ‘ready-to-eat’ meals had greater odds of meal-kit use compared with those who reported not consuming ‘ready-to-eat’ meals (P < 0·001 for all). Those who reported 51–75 % intake from ‘ready-to-eat’ meals (35·2 %) had the greatest odds of using meal-kits, compared with those who reported not consuming ‘ready-to-eat’ meals (AOR: 20·93, CI: 15·52, 28·21, P < 0·001).

Association between meal-kit use and healthy eating efforts

As shown in Table 4, respondents who ate fruits/vegetables ‘more than two times per day’ (14·3 %) had greater odds of using meal-kits compared with those who ate fruits/vegetables ‘less than 1 time per day’ (6·9 %, AOR: 1·95, CI: 1·45, 2·61, P < 0·001). No differences were observed between those who reported eating fruits/vegetables ‘between 1 and 2 times per day’ (8·3 %) and ‘less than 1 time per day’ (P = 0·388). Further, respondents who used meal-kits engaged in an average of 3·97 diet modification efforts (sd: 2·13), compared with an average of 3·80 for those who did not use meal-kits (sd: 2·29, range: 0–7). Respondents who engaged in more diet modification efforts had greater odds of using meal-kits (AOR: 1·06, CI: 1·03, 1·08, P < 0·001).

Table 4. Meal-Kit use in past 7 d by healthy eating, weight change and sustainability efforts, 2022, n 20,401 (weighted estimates)

* Percent of respondents who reported using a meal-kit in past 7 d.

Adjusted OR from a logistic regression model adjusted for country, age, sex at birth, ethnicity, education, income adequacy and presence of dependent children in the household.

95 % CI.

Association between meal-kit use and weight change efforts

As also shown in Table 4, respondents who reported engaging in any weight change efforts had greater odds of meal-kit use, compared with those who ‘did not try to do anything about their weight’ (P < 0·001 for all).

Association between meal-kit use and sustainability efforts

As additionally shown in Table 4, respondents who reported making an effort to consume plant-based food (23·5 %) or were ‘not sure what plant-based foods are’ (16·6 %) had greater odds of using meal-kits than those who did not report making an effort to consume plant-based foods (7·7 %, P < 0·001 for both). Further, respondents who reported using meal-kits engaged in an average of 4·64 sustainability efforts (sd: 2·61), compared with an average of 3·44 for those who did not use meal-kits (sd: 2·70, range: 0–8). Respondents who engaged in more sustainability efforts had greater odds of using meal-kits (AOR: 1·11, CI: 1·09, 1·14, P < 0·001).

Discussion

To our knowledge, this is the first study to examine the prevalence of meal-kit use among countries and in relation to individual correlates of use. Across countries, approximately 14 % of respondents reported using meal-kits in the past 7 d in 2022, with use lowest in Canada (9 %) and highest in the USA (18 %). This aligns with trends reported in USA consumer surveys, wherein 9 % of respondents reported purchasing a meal-kit in 2018 and 25 % indicated they would be interested in purchasing one in the future(Reference Heard, Bandekar and Vassar14). Research out of the UK suggests that up to 30 % of consumers used meal-kits during the early phase of the COVID-19 pandemic, though more recent estimates are unavailable(Reference Melville, Redmond and Baldwin39). The difference in use between countries is surprising given the similarities in food environments and comparable costs per portion (excluding gourmet/specialty meal-kits)(Reference Kovacevic40,Reference Cannon41) . Possible explanations may be related to the variety of meal-kit offerings, delivery reach, and relative cost compared with groceries; further research is needed to examine these factors.

Cost and income adequacy

Across all countries, except Canada, where meal-kit use remained low for all income adequacy categories, pronounced differences in meal-kit use were observed between lower and higher income adequacies. Meal-kit use was associated with higher income adequacy and greater educational attainment. This is in line with research from the USA showing the majority of meal-kit users have incomes above USD $100,000 and college degrees(Reference Robinson-Oghogho, Thorpe and Neff18). Although meal-kits may be more affordable than eating at a restaurant or ordering take-away, they can be more expensive than purchasing the equivalent ingredients in a grocery store and may yield fewer servings due to pre-portioning(Reference Fernandez and Raine29). Meal-kits often include some fresh fruits/vegetables, meaning they may be more expensive than simpler meals or meals using canned, frozen or processed products and were shown to be perceived as expensive in an Australian qualitative study(Reference McKay8,Reference Fraser, Love and Campbell17,Reference Fernandez and Raine29) . These factors may explain why use appears to be more prevalent amongst those with higher income adequacy.

Meal-kit use was also greater among individuals who were of minority ethnicity. Neighbourhoods with greater amounts of minority ethnicity and lower socioeconomic status residents have been found to have lower density of grocery stores and higher density of convenience stores compared with neighbourhoods with majority ethnicity and higher socioeconomic status residents in the USA and Canada(Reference del Canto, Engler-Stringer and Muhajarine42,Reference Chai, Fan and Wen43) . A recent study exploring a USA-based community-led meal-kit business found that individuals of minority ethnicity were more likely to live in areas with fewer healthy food options and were open to using meal-kits as a potential way to fill this gap(Reference Robinson-Oghogho, Gittelsohn and Bowie32). There are several non-governmental organisations in the UK offering meal-kits to low-income consumers at lower prices(Reference Dawkins44). Though meal-kits may play a role in supporting food availability for minority and lower-income populations(Reference Carman, Sweeney and House45,Reference Horning, Hill and Martin46) , there is a need to explore the extent to which access to commercial meal-kits is constrained by cost and how they may be leveraged in improving food access.

Home meal preparation, cooking skills, and convenience

Meal-kit use was more common among younger age groups, in line with previous research with USA populations(Reference Robinson-Oghogho, Thorpe and Neff18). Meal-kits are commonly sold digitally through websites and phone applications, which may have greater appeal for younger consumers(Reference Bennett, Keeble and Zorbas16). Older adults (60+) may also have fewer competing demands for time (due to retirement), facilitating preparation ‘from scratch’. Further, UK adults aged 19–34 years have been found to report lower confidence and less familiarity with home meal preparation compared with older generations who have historically had less access to commercially prepared meals(Reference Adams, Goffe and Adamson47). Younger adults may thus be more inclined to use meal-kits, given that most recipes in meal-kits can be considered ‘easy’ or ‘very easy’ to follow(Reference McKay8). Yet, many meal-kits still require some level of cooking skills and access to relevant equipment(Reference McKay8), as evidenced by the positive association of meal-kit use with cooking skills identified in our study. Younger adults are known to be less likely to have, or have had, children at home, necessitating frequent home meal preparation and subsequently skills development(Reference Adams, Goffe and Adamson47), consistent with the drop in meal-kit use observed for respondents over the age of 45. In our study, meal-kit use was found to be greater among individuals with children living in the household, in line with literature showing that families with children are more likely to prepare meals at home(Reference Mills, White and Brown3,Reference Robinson-Oghogho, Thorpe and Neff18) . As meal-kits are often pre-portioned and contain step-by-step recipe instructions (often times with photos), they may reduce the cognitive load of dietary decision making(Reference Fraser, Love and Campbell17,Reference Hertz and Halkier26) , which may be particularly important for parents of younger children(Reference Fraser, Love and Campbell17,Reference Hertz and Halkier26) .

Although women globally are more likely to be involved in home meal preparation overall(Reference Mills, White and Brown3,Reference Fraser, Love and Campbell17) , in our study, men were more likely to report using meal-kits. On average, men tend to work longer paid hours than women(Reference Canon, Golan and Smith48,49) , while women are more likely to engage in unpaid household work(Reference Sayer50,Reference Vargha, Binder-Hammer and Donehower51) ; those who work longer paid hours have been demonstrated to be less likely to prepare meals(Reference Mills, White and Brown3,Reference Fraser, Love and Campbell17) . Men generally also tend to have less well-developed food preparation skills than women(Reference Tani, Fujiwara and Kondo52). By facilitating the meal preparation process, meal-kits may have the potential to influence traditional gender norms around food preparation roles(Reference Mills, White and Brown3,Reference Fraser, Love and Campbell17) ; it may be possible that women are initiating the purchasing of meal-kits as a way of involving male partners(Reference Fraser, Love and Campbell17).

Notably, meal-kit use was greater among respondents who participated in at least some food shopping but prepared meals less often. Meal-kit use was associated with any processed ‘ready-to-eat’ meal intake (e.g. microwave meals, frozen dinners) and visiting restaurants (including fast-food outlets, coffee shops) within the past half year; meal-kit use was lowest for those who last visited a restaurant longer than 6 months ago. This is in contrast to a recent qualitative study by Fraser et al., wherein Australian participants reported meal-kits displacing commercially prepared takeaway and ready-to-eat foods, particularly during busy periods(Reference Fraser, Love and Campbell17). However, participants in the study noted that during periods of lowered mood or heightened stress, meal-kits were not able to address the common barriers of reduced motivation to prepare meals at home(Reference Fraser, Love and Campbell17). In these scenarios, participants relied on takeaway and processed ready-to-eat foods requiring minimal physical/mental effort(Reference Fraser, Love and Campbell17). These findings highlight a key benefit of meal-kits: convenience, which has the potential to increase both meal-kit and commercially prepared meal intake. A recent USA study characterised meal-kit consumers into five profiles based on their values, among which ‘convenience-oriented’ consumers had the greatest intention to purchase meal-kits (and were more likely to be male, married and 35–44 years)(Reference Choi, Lee and Jeon53). As such, meal-kits may be used in combination with commercially prepared meals by those looking for a more ‘convenient’ alternative to traditional home meal preparation. This hybrid approach to home meal preparation may impart ‘easier’ preparation and cooking skills that could be building blocks for further skill development(Reference Halkier27,Reference Conroy, Young and Errmann34) . This speaks to a potential bidirectional relationship between meal-kit use and home meal preparation, where (1) some meal preparation skills are needed to initiate use and (2) meal-kit use may encourage home meal preparation, potentially developing skills and decreasing out-of-home meal consumption in the long term.

Health and other considerations of use

Meal-kits may appeal to individuals who are health-conscious but may require some assistance in achieving health goals. In our study, meal-kit use was associated with greater fruit/vegetable consumption and greater likelihood of engaging in diet modification efforts, consistent with other literature(Reference Robinson-Oghogho, Thorpe and Neff18). A recent Australian study examining meal-kit use found that the majority of respondents believed meal-kits to be aligned with Australia’s national dietary guidelines and to be relatively nutrient dense(Reference Fraser, Love and Campbell17). This is consistent with research showing that meal-kits generally provide appropriate servings of macro- and micro-nutrients, including servings of fruits and vegetables equivalent to/exceeding average daily consumption for Australian adults in one meal(Reference Gibson and Partridge54,Reference Moores, Bell and Buckingham55) . Owing to the wide range of recipe options available from most meal-kit delivery services(Reference Lee and Ham19), meal-kits may expand users’ agency to prepare and enjoy healthy meals and facilitate transitioning to a healthier diet. As such, it is possible that (1) meal-kits support healthier diets by providing added sources of fruits and vegetables (as demonstrated in previous studies(Reference Conroy, Young and Errmann34)), (2) individuals with healthier diets may seek out meal-kits as part of their diets or (3) meal-kits contribute to a virtuous cycle of improved diet outcomes through both. Indeed, respondents in our study who did not try to do anything about their weight were the least likely to use meal-kits, indicating that meal-kits may be part of a conscious effort to change dietary patterns.

Consuming plant-based products and engaging in sustainability efforts were similarly associated with meal-kit use. While meal-kits have been associated with some negative environmental impacts due to additional packaging and home delivery(Reference Heard, Bandekar and Vassar14), one study out of the USA suggests that meal-kits may have lower life cycle environmental impacts than equivalent items purchased from grocery stores(Reference Heard, Bandekar and Vassar14). This may be due to lower emissions, owing to supply chain logistics, as well as reduced food waste due to pre-portioning and reduced impulse purchasing in stores(Reference McKay8,Reference Heard, Bandekar and Vassar14) . In both the case of meal-kits and grocery stores, one of the largest contributors to emissions was food production itself(Reference Heard, Bandekar and Vassar14). On average, meal-kits were estimated to have 33 % lower emissions per meal compared with the same meal purchased from a grocery store(Reference Heard, Bandekar and Vassar14). A separate USA study produced more mixed findings, highlighting reusable packaging and potential reductions in the number of weekly trips to the grocery store as ways to further reduce the environmental impacts of meal-kits(Reference Gee, Davidson and Speetles56). More research is needed to assess the environmental impact of meal-kits in comparison with not just equivalent grocery store meals but also commercially prepared meals.

Strengths and limitations

This study is subject to limitations common to survey research. First, recruitment was conducted using non-probability-based sampling. As such, the findings are not able to provide nationally representative estimates. Second, meal-kit use was measured as a binary outcome for past 7 d only. This shorter time frame may under-estimate use. Given the relative convenience of meal-kits, individuals may order meal-kits sporadically during particularly busy periods, rather than consistently on a weekly basis. This is particularly likely for low- and middle-income individuals, whereas those with higher income may be able to afford ordering meal-kits weekly. Future research measuring meal-kit use over a more prolonged period may be better able to capture ordering prevalence. Additionally, although the meal-kit measure was not formally validated, it was developed by content-experts and reviewed by investigators in each survey country to ensure relevance. Third, respondents who indicated they did not prepare any food at home were not asked about ‘ready-to-eat’ meal consumption (e.g. frozen meals) and were grouped in with the ‘missing/don’t know/refuse’ category rather than the 0 % category as intake could not be confirmed. This may have potentially underestimated ‘ready-to-eat’ intake as respondents may not have identified ‘ready-to-eat’ meals with home meal preparation. Fourth, nutrition-related behaviours were not assessed in relation to meal-kit use specifically. Due to the cross-sectional nature of the study, the study results are limited to associations, and the direction of causality cannot be interpreted. As such, while we have described associations in light of existing literature, further research is needed to assess differences in nutrition behaviours as a result of meal-kit purchasing directly. Fifth, while this study examined meal-kit use across countries generally, it did not address potential between-country differences in the composition or social meaning of meal-kits. There is thus a need for more international evaluations of meal-kit use and composition to further understand how use may differ between and within countries. Finally, further research is needed to examine changes in meal-kit use over time, given continuing growth in the online food sector.

Conclusions

Meal-kits are an emerging food source across a range of countries, to varying extents. Meal-kits appear to be most commonly purchased by individuals who have a greater interest in sustainable and healthy dietary patterns. Convenience appears to be an important aspect of meal-kits, as meal-kit use is greater for those who purchase commercially prepared meals and prepare meals less frequently, despite some cooking skills. Future research should examine the extent to which meal-kits may be promoting or displacing home meal preparation more widely, including examining home meal preparation from ‘scratch’. Additionally, though meal-kits present a novel way to make eating at home more accessible, they remain relatively expensive and primarily purchased by those with higher income adequacy. Further research is needed to understand the extent to which cost limits access to meal-kits and how access may be improved.

Acknowledgements

None.

Financial support

Funding for the International Food Policy Study was provided by a Canadian Institutes of Health Research project grant (PJT-162167), with additional support from the National Institute of Diabetes and Digestive and Kidney Disorders of the National Institutes of Health (R01 DK128967). The content is solely the responsibility of the authors and does not necessarily represent the official views of the Canadian Institutes of Health Research or the National Institutes of Health. MW, JA and NC were additionally supported by the Medical Research Council (grant number MC_UU_00006/7).

Competing interests

M.W., J.A. and N.C. have a collaboration agreement with a meal-kit company in the UK, which is providing discounted subscriptions for participants in a randomised controlled trial to explore the impact of meal-kits on the healthiness of population diets. No funding is received by the authors from the meal-kit company. D.H. has provided paid expert testimony on behalf of public health authorities in response to legal challenges from the food and beverage industry. No other interests are declared.

Authorship

L.B. formulated research questions, analysed data and drafted the manuscript. D.H. oversaw manuscript writing and data analysis, providing support and supervision of L.B. C.M.W., L.V., J.A., M.W. and G.S. supported study design and, with D.C. and N.C., assisted with manuscript writing and provided editorial support. All authors read and approved the final manuscript.

Ethics of human subject participation

This study was conducted according to the guidelines laid down in the Declaration of Helsinki, and all procedures involving research study participants were approved by the University of Waterloo Research Ethics Board (REB# 30829). Written informed consent was obtained from all participants.

References

Melaku, YA, Renzaho, A, Gill, TK et al. (2019) Burden and trend of diet-related non-communicable diseases in Australia and comparison with 34 OECD countries, 1990–2015: findings from the Global Burden of Disease Study 2015. Eur J Nutr 58, 12991313.Google Scholar
Wolfson, JA, Leung, CW & Richardson, CR (2020) More frequent cooking at home is associated with higher Healthy Eating Index-2015 score. Public Health Nutr 23, 23842394.Google Scholar
Mills, S, White, M, Brown, H et al. (2017) Health and social determinants and outcomes of home cooking: a systematic review of observational studies. Appetite 111, 116134.Google Scholar
Mills, S, Brown, H, Wrieden, W et al. (2017) Frequency of eating home cooked meals and potential benefits for diet and health: cross-sectional analysis of a population-based cohort study. Int J Behav Nutr Phys Act 14, 109.Google Scholar
Kim, D, Hou, W, Wang, F et al. (2019) Factors affecting obesity and waist circumference among US adults. Prev Chronic Dis 16, E02.Google Scholar
Gatley, A, Caraher, M & Lang, T (2014) A qualitative, cross cultural examination of attitudes and behaviour in relation to cooking habits in France and Britain. Appetite 75, 7181.Google Scholar
Glanz, K, Metcalfe, JJ, Folta, SC et al. (2021) Diet and health benefits associated with in-home eating and sharing meals at home: a systematic review. Int J Environ Res Public Health 18, 1577.Google Scholar
McKay, FH (2023) What’s in a commercial meal kit? Structured review of Australian meal kits. Public Health Nutr 26, 12841292.Google Scholar
World Health Organization (2021) The Out-of-Home Food Sector – Exponential Growth in an Unregulated Market (Internet). https://www.who.int/europe/news/item/20-09-2021-the-out-of-home-food-sector-exponential-growth-in-an-unregulated-market (accessed 08 May 2024).Google Scholar
Clifford Astbury, C, Foley, L, Penney, TL et al. (2020) How does time use differ between individuals who do more v. less foodwork? A compositional data analysis of time use in the United Kingdom time use survey 2014–2015. Nutrients 12, 2280.Google Scholar
Clifford Astbury, C, Penney, TL, Foley, L et al. (2022) Foodwork in the United Kingdom from 1983 to 2014: a compositional data analysis of repeat cross-sectional time use surveys. Appetite 168, 105694.Google Scholar
Middleton, G, Golley, R, Patterson, K et al. (2020) What can families gain from the family meal? A mixed-papers systematic review. Appetite 153, 104725.Google Scholar
National Food Strategy (2021) Independent Review: the Evidence (Internet). p. 1–176. https://www.nationalfoodstrategy.org/wp-content/uploads/2021/08/NFS_Evidence-Pack.pdf (accessed 21 April 2025).Google Scholar
Heard, BR, Bandekar, M, Vassar, B et al. (2019) Comparison of life cycle environmental impacts from meal kits and grocery store meals. Resour Conserv Recycl 147, 189200.Google Scholar
Oberle, MM, Loth, KA, Schendel, A et al. (2020) Acceptance of a meal kit programme in an outpatient paediatric weight management clinic: a qualitative pilot study. Clin Obes 10, e12371.Google Scholar
Bennett, R, Keeble, M, Zorbas, C et al. (2024) The potential influence of the digital food retail environment on health: a systematic scoping review of the literature. Obes Rev 25, e13671.Google Scholar
Fraser, K, Love, P, Campbell, KJ et al. (2022) Meal kits in the family setting: impacts on family dynamics, nutrition, social and mental health. Appetite 169, 105816.Google Scholar
Robinson-Oghogho, JN, Thorpe, RJ & Neff, RA (2022) Dietary behaviors among new users of meal-kit services during the early months of the COVID-19 pandemic. Nutrients 14, 3953.Google Scholar
Lee, S & Ham, S (2021) Food service industry in the era of COVID-19: trends and research implications. Nutr Res Pract 15, S22S31.Google Scholar
Grand View Research (2022) Meal Kit Delivery Services Market Size & Share Report (Internet). https://www.grandviewresearch.com/industry-analysis/meal-kit-delivery-services-market (accessed 21 April 2025).Google Scholar
Jia, SS, Raeside, R, Sainsbury, E et al. (2024) Use of online food retail platforms throughout the COVID-19 pandemic and associated diet-related chronic disease risk factors: a systematic review of emerging evidence. Obes Rev 113.Google Scholar
Coulthard, H, Sharps, M, Cunliffe, L et al. (2021) Eating in the lockdown during the COVID-19 pandemic; self-reported changes in eating behaviour, and associations with BMI, eating style, coping and health anxiety. Appetite 161, 105082.Google Scholar
Chenarides, L, Grebitus, C, Lusk, JL et al. (2021) Food consumption behavior during the COVID-19 pandemic. Agribusiness 37, 4481.Google Scholar
Bender, KE, Badiger, A, Roe, BE et al. (2022) Consumer behavior during the COVID-19 pandemic: an analysis of food purchasing and management behaviors in U.S. households through the lens of food system resilience. Socioecon Plann Sci 82, 101107.Google Scholar
U.S. Packaging & Wrapping LLC (2022) The Most Wasteful Meal Kit (Internet). https://uspackagingandwrapping.com/blog/the-most-wasteful-meal-kit.html (accessed 25 September 2025).Google Scholar
Hertz, FD & Halkier, B (2017) Meal box schemes a convenient way to avoid convenience food? Uses and understandings of meal box schemes among Danish consumers. Appetite 114, 232239.Google Scholar
Halkier, B (2021) Hybridity and change in cooking skills in everyday life: conceptual contributions from a study of cooking with meal-box schemes. Appetite 165, 105311.Google Scholar
Farmer, N, Touchton-Leonard, K & Ross, A (2018) Psychosocial benefits of cooking interventions: a systematic review. Health Educ Behav 45, 167180.Google Scholar
Fernandez, MA & Raine, KD (2021) Digital food retail: public health opportunities. Nutrients 13, 3789.Google Scholar
Watsky, D (2025) CNET. Best Meal Delivery Services of 2025: Top Prepared Meals & Meal Kits We Tested. https://www.cnet.com/health/nutrition/best-meal-kit-delivery-service/ (accessed 30 September 2025).Google Scholar
Nixon, N & Ensaff, H (2024) Meal kit delivery services in the UK: an evaluation of the nutritional composition of meals. Nutrition 128, 112538.Google Scholar
Robinson-Oghogho, JN, Gittelsohn, J, Bowie, J et al. (2024) Ours to eat and own: assessing the feasibility of a cooperative meal-kit service to improve food access. Public Health Nutr 27, e17.Google Scholar
Hollis-Hansen, K, Haskins, C, Turcios, J et al. (2023) A pilot randomized controlled trial comparing nutritious meal kits and no-prep meals to improve food security and diet quality among food pantry clients. BMC Public Health 23, 2389.Google Scholar
Conroy, D, Young, J & Errmann, A (2024) Participant insights from a family-based meal kit delivery intervention. J Nutr Educ Behav 56, 162172.Google Scholar
Fraser, K, Love, P, Laws, R et al. (2023) Meal kit subscription services and opportunities to improve family vegetable consumption. Health Promot Int 38, daad155.Google Scholar
Bennett, R, Gomez-Donoso, C, Zorbas, C et al. (2025) Prevalence of online food delivery platforms, meal kit delivery, and online grocery use in five countries: an analysis of survey data from the 2022 International Food Policy Study. Int J Obes 49, 13071316.Google Scholar
Hammond, D (2023) International Food Policy Study. Methods. https://foodpolicystudy.com/methods/ (accessed 23 September 2023).Google Scholar
Boyar, L, White, CM, Vanderlee, L et al. (2024) Dinner Unboxed: Who Uses Meal Kits, Why? Findings from the International Food Policy Study (Internet). https://archive.org/details/osf-registrations-3t7jv-v1 (accessed May 2024).Google Scholar
Melville, NJ, Redmond, EC, Baldwin, JEB et al. (2022) Meal-kit use in the United Kingdom: implications for food safety. Food Prot Trends 42, 564571.Google Scholar
Kovacevic, D (2025) Flavour Network. The Best Canadian Meal Delivery Kits. https://www.flavournetwork.ca/article/canadian-meal-delivery-kits-review/ (accessed 02 March 2025).Google Scholar
Cannon, S (2025) The 16 Best Meal Delivery Kits and Services, Re-Tested for 2025. New York Post (Internet). https://nypost.com/article/the-best-meal-delivery-kits/ (accessed 03 April 2025).Google Scholar
del Canto, S, Engler-Stringer, R & Muhajarine, N (2015) Characterizing Saskatoon’s food environment: a neighbourhood-level analysis of in-store fruit and vegetable access. Can J Urban Res 24, 6277.Google Scholar
Chai, W, Fan, JX & Wen, M (2018) Association of individual and neighborhood factors with home food availability: evidence from the National Health and Nutrition Examination Survey. J Acad Nutr Diet 118, 815823.Google Scholar
Dawkins, M (2024) UK Charities Mimic HelloFresh to Bring Healthier Meals to Needy. Bloomberg UK (Internet). 2024 Feb 14. https://www.bloomberg.com/news/features/2024-02-14/uk-charities-mimic-hellofresh-to-deliver-healthy-meals-to-people-in-food-poverty (accessed 22 April 2025).Google Scholar
Carman, K, Sweeney, LH, House, LA et al. (2021) Acceptability and willingness to pay for a meal kit program for African American families with low income: a pilot study. Nutrients 13, 2881.Google Scholar
Horning, ML, Hill, T, Martin, CL et al. (2021) The East Side Table make-at-home meal-kit program is feasible and acceptable: a pilot study. Appetite 160, 105087.Google Scholar
Adams, J, Goffe, L, Adamson, AJ et al. (2015) Prevalence and socio-demographic correlates of cooking skills in UK adults: cross-sectional analysis of data from the UK National Diet and Nutrition Survey. Int J Behav Nutr Phys Act 12, 99.Google Scholar
Canon, ME, Golan, L & Smith, CA (2021) Understanding the gender earnings gap: hours worked, occupational sorting, and labor market experience. Federal Reserve Bank St. Louis Rev (Internet) 103, 175205.Google Scholar
Statistics Canada (2023) Average Weekly Working Hours, 1976 to 2022 (Internet). https://www150.statcan.gc.ca/n1/en/pub/14-28-0001/2023001/article/00001-eng.pdf?st=Tpelyj-F (accessed December 2024).Google Scholar
Sayer, LC (2005) Gender, time and inequality: trends in women’s and men’s paid work, unpaid work and free time. Social Forces 84, 285303.Google Scholar
Vargha, L, Binder-Hammer, B & Donehower, G (2023) Time transfers by age and gender in 28 countries. Socius: Sociol Res Dynamic World 9, 23780231231153615.Google Scholar
Tani, Y, Fujiwara, T & Kondo, K (2020) Cooking skills related to potential benefits for dietary behaviors and weight status among older Japanese men and women: a cross-sectional study from the JAGES. Int J Behav Nutr Phys Act 17, 82.Google Scholar
Choi, J, Lee, YM & Jeon, H (2024) Values of meal kit delivery services: a segment-based approach. J Foodservice Bus Res 27, 833858.Google Scholar
Gibson, AA & Partridge, SR (2019) Nutritional qualities of commercial meal kit subscription services in Australia. Nutrients 11, 2679.Google Scholar
Moores, CJ, Bell, LK, Buckingham, MJ et al. (2021) Are meal kits health promoting? Nutritional analysis of meals from an Australian meal kit service. Health Promot Int 36, 660668.Google Scholar
Gee, IM, Davidson, FT, Speetles, BL et al. (2019) Deliver Me from food waste: model framework for comparing the energy use of meal-kit delivery and groceries. J Cleaner Prod 236, 117587.Google Scholar
Figure 0

Table 1. Sample sociodemographic characteristics, overall and by country, 2022, n 20,401 (weighted estimates)

Figure 1

Table 2. Meal-kit use in past 7 d by sociodemographic factors, 2022, n 20,401 (weighted estimates)

Figure 2

Fig. 1 Interactions of meal-kit use in past 7 d with sociodemographic characteristics, by country, n 20,401 (weighted estimates). (a) Interaction of meal-kit use with age, by country. (b) Interaction of meal-kit use with sex at birth, by country. (c) Interaction of meal-kit use with income adequacy, by country. (d) Interaction of meal-kit use with education, by country. (e) Interaction of meal-kit use with presence of children in household, by country.

Figure 3

Table 3. Meal-kit use in past 7 d by home meal preparation, cooking skills and commercially prepared meal consumption, 2022, n 20,401 (weighted estimates)

Figure 4

Table 4. Meal-Kit use in past 7 d by healthy eating, weight change and sustainability efforts, 2022, n 20,401 (weighted estimates)