| Literature DB >> 32466387 |
Sofía Rincón-Gallardo P1, Mi Zhou1, Fabio Da Silva Gomes2, Robin Lemaire3, Valisa Hedrick1, Elena Serrano1, Vivica I Kraak1.
Abstract
There is insufficient evidence that restaurant menu labeling policies are cost-effective strategies to reduce obesity and diet-related non-communicable diseases (NCDs). Evidence suggests that menu labeling has a modest effect on calories purchased and consumed. No review has been published on the effect of menu labeling policies on transnational restaurant chains globally. This study conducted a two-step scoping review to map and describe the effect of restaurant menu labeling policies on menu reformulation. First, we identified national, state, and municipal menu labeling policies in countries from global databases. Second, we searched four databases (i.e., PubMed, CINHAL/EBSCO, Web of Science, and Google Scholar) for peer-reviewed studies and gray-literature sources in English and Spanish (2000-2020). Step 1 identified three voluntary and eight mandatory menu labeling policies primarily for energy disclosures for 11 upper-middle and high-income countries, but none for low- or middle-income countries. Step 2 identified 15 of 577 studies that met the inclusion criteria. The analysis showed reductions in energy for newly introduced menu items only in the United States. We suggesr actions for governments, civil society organizations, and the restaurant businesses to develop, implement, and evaluate comprehensive menu labeling policies to determine whether these may reduce obesity and NCD risks worldwide.Entities:
Keywords: energy; food and nutrition policy; food labeling; menu labeling; nutrition declaration; obesity; reformulation; restaurant chains; serving size
Mesh:
Year: 2020 PMID: 32466387 PMCID: PMC7352298 DOI: 10.3390/nu12061544
Source DB: PubMed Journal: Nutrients ISSN: 2072-6643 Impact factor: 5.717
Systematic search strategy for the scoping review.
| PEO Framework | MeSH Terms and Synonyms |
|---|---|
| Population | “Restaurants”[MeSH] OR “Food Services”[MeSH] OR “Food Supply”[MeSH] OR “Fast Foods”[MeSH] OR “Food Industry”[MeSH] OR “Food-Processing Industry”[MeSH] “Chain restaurant*” OR restaurant or “food retail” OR “food services*” OR “food supply” OR “food supplies” OR “fast food*” NOT Schools [MeSH] AND |
| Exposure | “Policy”[MeSH] OR “Nutrition Policy”[MeSH] OR “Public Policy”[MeSH] OR “Health Policy”[MeSH] OR “Government Regulation”[MeSH] OR “Legislation” [Publication Type] OR “Legislation, Food”[MeSH] OR “Voluntary Programs”[MeSH] OR “Mandatory Programs”[MeSH] OR “Patient Protection and Affordable Care Act”[MeSH] OR “Mandatory Policy” OR “Voluntary Policy” OR “Self-regulation” OR “Nutrition policies” OR Guideline OR “Food Policy” AND “Food Labeling”[MeSH] OR “Product Labeling”[MeSH] OR “Food product label*” OR “Menu label*” OR “Restaurant label*” OR “Restaurant label” OR “Restaurant menu label*” OR “Food calories” OR “Nutrient label*” OR “Food content” NOT “Food Packaging” |
| Outcome | “Food”[MeSH] OR “Beverages”[MeSH] OR “Food and Beverages”[MeSH] OR “Food Ingredients”[MeSH] OR “food product*” OR “Fast food” AND “Food Quality”[MeSH] OR “Food, Formulated”[MeSH] OR “Serving Size”[MeSH] OR “Portion Size”[MeSH] OR “Food reformulation” OR “Reduce* Portion*” OR “Reduce* size*” OR “Product reformulation” |
PEO framework: (P) Population—transnational restaurants; (E) Exposure—voluntary and mandatory policies; (O) Outcome—food reformulation and serving size reductions.
Figure 1PRISMA flow diagram of the systematic study identification, screening, and selection of the studies for the scoping review.
Two-step scoping review results across countries by world region*.
| * World Region | Scoping Review—Step 1 | Scoping Review—Step 2 |
|---|---|---|
| Identify Policies (Policies = 11) | Identify Evidence (Studies | |
| Africa | None identified ( | None identified |
| Americas ( | Canada and US ( | Canada ( |
| South-East Asia | None identified ( | None identified |
| Europe | Ireland and the UK ( | UK ( |
| Eastern Mediterranean | Bahrain, Saudi Arabia, United Arab Emirates ( | None identified |
| Western Pacific | Australia, Malaysia, South Korea, Taiwan ( | Australia ( |
US: United States; UK: United Kingdom. * World Health Organization regional groups [60].
Implemented menu labeling policies across countries worldwide, 2008–2020*.
| Country, Year | Policy Type | Action |
|---|---|---|
| Australia, 2011–2018 | Mandatory, four states and one territory | Restaurant chains with ≥20 outlets in the state, or 50 or more across the country, are required to present the energy content (kilojoules) and include a daily intake statement on menus and menu boards. Similar food businesses are invited to voluntarily implement menu labeling. |
| States of New South Wales, 2011: Food regulation 2011 | ||
| Australia Capital Territory, 2012: Amendments to Food Regulation 2002 | ||
| Australia, South Australia, 2012: Amendments to Food Regulation 2002 | ||
| Australia, Queensland, 2017: Amendments to Food Act 2006 | ||
| Australia, Victoria, 2018: Amendment to Food Act 1984 | ||
| Bahrain, 2010 | Voluntary, national | The Nutrition Section of the Ministry of Health recommends that fast-food chain restaurants display nutrients per serving, including calories, fat, protein, carbohydrates, salt/sodium, and sugar. |
| Canada, Ontario, 2017 | Mandatory, province | In 2015, Ontario’s Healthy Menu Choices Act, part of the Making Healthier Choices Act (Bill 45) in the Ontario Regulation 50/16, requires food service establishments with 20 or more businesses to depict calories for menu items on paper and electronic menus, menu boards, drive-through menus, menu applications, and advertisements or promotional flyers. |
| Ireland, 2015 | Mandatory, national | In 2015, the Health Service Executive approved the implementation of Calorie Posting Policy across health services in all food and beverage facilities (i.e., restaurants, coffee shops, catering services, and vending machines). |
| Malaysia, 2008 | Voluntary, national | In 2008, the Malaysian government released voluntary guidelines for the advertising and nutrition labeling of restaurant chains to display nutrient information on the menu items (i.e., calories, carbohydrates, protein, fat, and sodium for food and total sugar for beverages). |
| Saudi Arabia, 2018 | Mandatory, national | In 2018, the Saudi Food and Drug Authority launched mandatory measures that require calorie labeling on menu items for all food facilities, including cashier desks, menu boards, table menus, drive-through menus, phone, and web applications. |
| South Korea, 2010 | Mandatory, national | In 2010, the South Korean government enforced through the Special Act on Safety Control of Children’s Dietary Life that restaurants with more than 100 outlets are required to report energy, total sugars, protein, saturated fat and sodium on the menus |
| Taiwan, 2015 | Mandatory, national | From 2015, the Taiwanese Act Governing Food Safety and Sanitation that regulates business chains (i.e., convenience stores, drink vendors, and fast-food restaurants) requires the labeling of the sugar and caffeine content of prepared-when-ordered drinks. |
| United Arab Emirates, 2020 | Mandatory, state/emirate | The 2017–2020 National Nutrition Agenda for Dubai requires food retailers to display the calorie content of menu items and a daily intake statement, effective 1 January 2020. |
| United Kingdom, 2011 | Voluntary, national | From 2011–2015, the Out of Home Calorie Labelling pledge, part of the government’s Responsibility Deal (2010 to 2015), established for businesses with 45 or more food establishments the need to provide calorie information on menus in England, Scotland, and Wales. In 2012, the Food Standards Agency worked with Northern Ireland and the local food industry to encourage calorie labeling on menus |
| United States, 2010-2018 | Mandatory, national | In 2010, Section 4205 of the Affordable Care Act, Public Law 111-148 (HR 3590), mandated that restaurant chains and other food retail establishments (i.e., convenience stores, coffee shops, grocery stores, cafeterias) with 20 or more locations would be required to disclose calories and daily intake statements on menus and menu boards and make other nutrition information available to customers upon request. The law became effective on 1 May 2018. |
* Policy is defined as a law, procedure, regulation, rule, or standard that guides how government, businesses, and organizations operate and how citizens live their lives [72].
Summary of articles included in the scoping review.
| Author Year | Country | Study Design | Purpose | Sample | Setting | Data Sources | Menu Items | Nutrition Composition | New vs. Common Menu Items |
|
|---|---|---|---|---|---|---|---|---|---|---|
| Bleich et al. 2015 [ | USA | Observational, longitudinal | Compare differences in calorie counts from menu labeling, 2012–2014 | 23,066 menu items from 66 | Restaurant chains | MenuStat | Food and beverages | Calories. Average per item calories restaurants with voluntary labeling was significantly lower than those without the labeling (−286 kcal: 232 vs. 519) | Lower calorie content for new menu items introduced in 2013 (−182 kcal: 263 vs. 445; and in 2014 (−110 kcal: 309 vs. 419) | Positive |
| Bleich et al. 2016 [ | USA | Observational, longitudinal | Describe trends in calories available in US chain restaurants from 2012 to 2014 to better understand restaurant-driven changes | 23, 066 menu items over 3 years in 66 large chain restaurants | QSR, FCR and FSR chains | MenuStat | Appetizers and sides, main courses, desserts, toppings, beverages, and children’s menu items. New food, beverages, and children’s menu items all had fewer mean calories relative to old menu items (66, 47, 43, and 35 fewer calories, respectively) | Calories. Predicted mean per-item calories in new main course items in 2013 had 85 fewer calories relative to old main course items in 2012. Calories declined in pizza (−120 calories), sandwiches (−82 calories), and salads (−68 calories) | Menu items newly introduced in 2013 and 2014 had significantly fewer calories relative to items on the menu in 2012 (2012 vs. 2013: −71 calories; 2012 vs. 2014, −69 calories) | Positive |
| Bleich et al. 2017 [ | USA | Observational, longitudinal | Understand trends in calories in chain restaurants before and after the passage of the menu labeling rule | 19,391 menu items from chain restaurants | QSR, FCR and FSR chains | MenuStat | Appetizers and sides, fried potatoes, main courses, toppings, beverages, and children’s menu items. Largest differences were found for toppings that reduced from 93 kcal in 2008 to 84 kcal in 2015 | Calories. Overall calories declined from 327 kcal in 2008 to 318 kcal in 2015 | - | Positive |
| Bleich et al. 2018 [ | USA | Observational, longitudinal | Compare mean calories for items that remained on restaurant menus with items dropped from the menu | 27,238 menu items from restaurant chains | Restaurant chains | MenuStat | Appetizers and sides, main courses, desserts, and beverages | Calories. Items that were dropped had 71 more calories | Items that stayed on the menu in all years had fewer calories than those items that were dropped (448 calories vs. 733 calories) | Positive |
| Bleich et al. 2020 [ | USA | Observational, longitudinal | Update calorie and nutrient trends 2012–2018 of menu items across restaurants | 28,238 menu items from chain restaurants | Fast-food, fast-casual, and full-service restaurant chains | MenuStat | Appetizers and sides, main courses, fried potatoes, desserts and baked goods | Calories, saturated fat, sodium, sugar and protein.Significant changes in food (sugar −0.67 g) and beverages (unsaturated fat −1.8 g, protein −2.7 g). Trend in years: calories −120 kcals (−25%), saturated fat −3.4 g (−41%), unsaturated fat −4.5 g (−37%), non-sugar carbohydrates −10.3 g (−40%), and protein −4.3 g (−25%) | Significant changes were found among all newly introduced items. It is possible that the declines in calories and nutrients in this study are related to local or national nutrition policies | Positive |
| Bruemmer et al. 2012 [ | USA | Observational, longitudinal | Evaluated changes in energy, saturated fat, and sodium content of entrees 6 and 18 months that occurred following the implementation of menu labeling regulation | 37 chains | QSR and FSR chains | Personnel visited and recorded energy content from menu labels, and websites | Entrée items. Calorie content decline in overall average entrée calories (41 fewer calories post labeling; 73 fewer calories at full-service restaurants and 19 fewer at QSR) when comparing 6 and 18 months post labeling | Calories and sodium. Decrease in energy, saturated fat, and sodium content between the two study periods following implementation of menu regulation for menu items that were present at both time periods. Saturated fat and sodium levels decreased significantly across all chains and SD chains | - | Positive |
| Namba et al. 2013 [ | USA | Observational, case-control | Evaluate the effect of menu labeling on menu offerings over 7 years, from 2005 through 2011 | 3887 menu items from chain restaurants | Top 50 QSR chains | Restaurant websites | Entrées, sides, and children’s entrées. Case restaurants increased the proportion of healthier entrées after labeling regulations: from 13% during years 2005 through 2008, up to 20% by 2011 with a mean difference of 5% pre–post 2008 in cases relative to controls. The prevalence of healthier side dishes was higher among case restaurants than controls (23% vs. 15%, respectively). Healthier children’s entrées at case restaurants were higher | Calories. Regression models found no statistically significant changes over time in nutrient averages and no statistically significant differences between the nutritional averages of case and control restaurants | 3 of 5 labeled restaurants improved their offerings. Control restaurants had a lower proportion of healthier items than cases. 2 of 5 showed no improvement and even launched new options, that increased average calories by over 20% and cholesterol by almost 140% | Mixed |
| Petimar et al. 2019 [ | USA | Observational, longitudinal | Evaluate calorie labeling in mean calories purchased, pre-2015–2017 and post menu labeling implementation period 2017–2018 | 59 restaurants | Restaurants | Menustat | Entrées, sides, sugar-sweetened beverages | Calories. The top 50 menu offerings purchased in 2017–18 had a median of 350 calories (interquartile range 440–760) pre-implementation and a median of 340 calories (440–760) post-implementation. | - | Positive |
| Saelens et al. 2012 [ | USA | Experimental, quasi-experimental | Examine changes in restaurants from before to after nutrition-labeling regulation in a regulated versus a nonregulated county of Washington state | Top 10 QSR chains | QSR and independent restaurant chains | Nutrition Environment Measures Survey Restaurant (NEMS-R) | Healthy vs. Unhealthy based on 10 items examined by the Nutrition Environment Measures Surveys—Restaurant version (NEMS-R) | The healthfulness of children’s menus improved modestly over time, but not differentially by county. Availability of reduced portions decreased in the regulated county | - | No effect |
| Scourboutakos et al. 2019 [ | Canada | Observational, longitudinal | Investigate the early impact of Canada’s mandatory menu labeling legislation on calorie levels in foods offered on chain restaurant menus before, leading up to, and at the point-of-implementation, 2010 - 2017 | 2988 foods sold by 28 restaurant chains | QSR and FSR chains | Menu-FLIP database | Entrées, pizza, breakfast foods, side dishes, baked goods/desserts, kids’ foods | Calories. The average calories per serving on restaurant menus increased from 306 (SD = 6) kcal to 346 (SD = 6) kcal, between 2010 and 2017. An increase in serving size, from 155 (SD = 3) to 172 (SD = 3) grams, between 2010 and 2017. Calorie density (kcal per 100 g) did not significantly differ between 2010 and 2017. Significant increase in serving sizes among sit-down restaurants of 12 g per serving between 2010 and 2017 | Overall, new foods introduced in 2017 were significantly higher in calories per serving compared with those introduced in 2016. New foods introduced in 2017 had significantly higher serving sizes compared with new foods in 2013 and 2016 | No effect |
| Theis et al. 2019 [ | UK | Observational, cross-sectional | Determine whether there are differences in the energy and nutritional content of menu items served by UK restaurants vs. without voluntary menu labeling | 100 UK chain restaurants | QSR and FSR chains ranked by sales | Restaurant websites | Appetizers and sides, baked goods, beverages, burgers, desserts, fried potatoes, mains, pizza, salads, sandwiches, soup, toppings, and ingredients. Main dishes (i.e., pizza and sandwich) had less sugar and salt. Toppings and ingredients had less fat and protein than items from restaurants without menu labeling. Baked goods items from restaurants with menu labeling had, more energy, fat, saturated fat, sugar but protein and more salt | Calories, saturated fat, sodium, sugar, carbohydrates, and protein. Restaurants with menu labeling had 45% less fat (beta coefficient 0.55; 95% CI 0.32 to 0.96) and 60% less salt (beta coefficient 0.40; 95% CI 0.18 to 0.92) | - | Mixed |
| Tran et al. 2019 [ | USA | Observational, longitudinal | Describe trends in calories among food items sold in US convenience stores and pizza restaurant chains from 2013 to 2017 | 1522 food items from convenience stores and 2085 items from pizza restaurant chains | Pizza restaurant chains | MenuStat | Appetizers and sides, main courses, and desserts. Lower calories among items that stayed on the menu compared to items dropped (overall: −60 kcal; appetizers and sides: −200 kcal | Calories. Reduced calories in menu items (−56 kcal: 390 kcal in 2013 vs. 334 kcal in 2017), appetizers (−230 kcal: 367 kcal in 2013 vs. 137 kcal in 2017) | Calories were lower among items that stayed on the menu compared to items dropped. Lower-calorie pizza options were introduced, but no significant changes | Positive |
| Wellard-Cole et al. 2018 [ | Australia | Observational, longitudinal | Examine the energy content of Australian fast-food menu items before and after menu board labeling | 522 menu items from fast-food chains | 5 of the largest Australian QSR chains | Fast-food websites | Breakfast, burgers, desserts, chicken and seafood, salads, sides, sandwiches and wraps | Calories. No differences in energy per serving items, content per 100 g for burgers was higher after implementation (1040 vs. 999 kJ/100 g before implementation,) | No effect | |
| Wellard-Cole et al. 2019 [ | Australia | Observational, longitudinal | Investigate the nutrient composition of children’s meals offers at fast-food chains, compare with children’s daily requirements and recommendations and determine if results have changed prior to the implementation of menu labeling | 289 children’s meals | Australian QSR and FCR chains | Fast-food websites, email and telephone requests, and personnel visits | Children’s meals per restaurant chain | Calories, saturated fat, sodium and sugar. Minimal changes were found. Meals from Chicken Treat reduced mean energy (−600 kJ/serving), saturated fat (−9·4 g/serving) and Na (−121 mg/serving), and from Red Rooster (−410 kJ/serving) and sugars (−11·8 g/serving), KFC reduced saturated fat (−10·5 g/serving). However, meals from Hungry Jack’s increased in energy (345 kJ/serving), sugars (8·6 g/serving), and Na (187 mg/serving) | - | Mixed |
| Wu et al. 2014 [ | USA | Observational, longitudinal | Track changes in the energy and sodium content of US chain restaurant main entrées between spring 2010 (when the Affordable Care Act was passed) and spring 2011 | 25,256 regular menu entrées from 213 restaurant brands | Top US chain restaurants based on 2008 sales | Restaurant websites, and email request | Regular menu entrées and children’s menu entrées | Calories and sodium. 26 restaurants reduced sodium in newly added items by 707 mg on average. Significant decrease in mean energy (−40 kcal. Two upscale restaurants with children’s menu entrées had a significant increase in mean energy (46 kcal). Items removed from children’s menus were 36 kcal lower | Higher-sodium items decreased by 70 mg ( | Mixed |
* Effect: positive (if results showed a statistically significant p-value), no effect (if results showed no statistically significant p-value or negative effects), and mixed-effects (if results showed both) on menu labeling. QSR: quick-service restaurants; FCR: fast-casual restaurants; FSR: full-service restaurant. kJ: kilojoules.
Recommended actions for stakeholders to develop, implement, and evaluate comprehensive restaurant menu labeling policies.
| Food System Actors | Recommended Actions |
|---|---|
| Governments | Provide enough support for food service restaurant businesses to facilitate a low-cost, sustainable, and accountable policy. Policies could be improved to incentivize more holistic menu changes by requiring the display of energy and other nutrients of concern, including fats, sodium, and added sugars for each item offered by restaurants. |
| World Health Organization | Issue recommendations for governments and transnational restaurants and their franchise businesses, and food service providers to harmonize, standardize, and apply a universal set of healthy dietary standards across countries and regions. |
| Restaurant businesses | Make commitments and increase transparency to meet product profile targets based on WHO- or expert-recommended guidelines |
| Private foundations | Provide technical assistance and incentivize transnational restaurant chains to implement, monitor, and evaluate menu labeling policies across countries and regions. |
| Researchers | Expand external monitoring and evaluation efforts of transnational restaurant chains to assess their compliance with WHO- or expert-recommended guidelines across countries and regions. Examine how digital technology could be used to leverage the effects of restaurant menu labeling policies. |
| Civil society organizations | Use social media advocacy, public awareness campaigns, and shareholder resolutions to encourage governments to implement comprehensive restaurant menu labeling policies for healthy product reformulation and portion size reduction for products sold to customers across countries and regions. |