| Literature DB >> 32836824 |
Dominique Bounie1, Jayashree Arcot2, Martin Cole3, Florence Egal4, Pablo Juliano5, Carla Mejia6, Donna Rosa7, Jay Sellahewa2,8.
Abstract
BACKGROUND: In humanitarian contexts, ensuring access to safe, nutritious, good quality and culturally appropriate food in the right quantity at the right time and place during an emergency or a protracted crisis is an enormous challenge, which is likely to increase given uncertainties such as climate change, global political and economic instability and emerging pandemics like COVID-19. Several international organizations and non-government organizations have well established systems to respond to food security emergencies. However, the role of food science and technology in humanitarian response is not well understood and is seldom considered in humanitarian circles. SCOPE AND APPROACH: The role of food science and technology in humanitarian response and the importance of addressing the requirements of the local consumers within the local food systems are discussed. KEY FINDINGS ANDEntities:
Keywords: Food policies; Food science and technology; Food security; Humanitarian food aid; Local food systems; Resilience
Year: 2020 PMID: 32836824 PMCID: PMC7309806 DOI: 10.1016/j.tifs.2020.06.006
Source DB: PubMed Journal: Trends Food Sci Technol ISSN: 0924-2244 Impact factor: 12.563
Fig. 1Methodology used in making the recommendations in this study.
Contribution of Food Science and Technology in the development of nutritious local foods.
| Objectives | Examples of local adaptability | References |
|---|---|---|
| Development of new nutritious foods/improving existing foods | Reformulation: Replacing peanut paste in ready-to-use supplementary foods (RUSF) with locally available nuts or pulses (almonds or chickpea - WFP, Pakistan); cashew nuts (Ivory Coast) and Bambara nuts. Replacing soy proteins or animal proteins with under-exploited plant proteins (chickpea - WFP RUSF ‘Wawa Mum’); leaf proteins Evaluating plant proteins; pseudocereals (quinoa, teff and amaranth grains, leaves) | |
| Adapting to local food habits and varying the taste of common Ready to Use Supplementary Foods (RUSFs) and blended flours; adding aroma and spices | Equinut project; Nutriset ‘(Plumpynut’); developing new textures (extruded pillows filled with nutritious paste made by Nutriset; gellified bars) Producing locally RUSF adapted to local resources and tastes Developing RUSFs with intermediate water activity and improved osmolality, minimizing diarrheal side effects; decrease need to drink safe water when eating lipid-based RUSFs | |
| Improving the nutritional and health value of Special Nutritious Foods (SNFs) | Improving bioavailability by reducing phytase activity; improving nutrient density of fortified blended flours using appropriate processes (extrusion cooking, germination, use of alpha-amylase) to reduce consistency improving swallowing ability to achieve fullness in the stomach in infants | |
| Improving shelf-life of SNFs using traditional antioxidant products or antioxidant rich natural ingredients or new combined processes | Kemin Industries Inc. operates in more than 60 countries with manufacturing facilities in Belgium, Brazil, China, India, Singapore, South Africa, Thailand and the United States providing advice on health and nutritional solutions to agrifoods, food ingredients, pet food and human health and pharmaceutical industries | |
| Improving convenience of SNFs i.e. reduced re-humidification during storage, auto heating products, design of more ready-to-use foods | WFP has provided ‘Specialized Nutritious foods' sheet as a reference for the various types of formulated foods made available to address undernutrition. | |
| Understanding and better control of the operating conditions when producing SNFs locally | Control and optimisation of degree of cooking (which affects digestibility) when producing precooked extruded blended flours; selecting the appropriate process for efficiently cooking blended flours; extrusion cooking vs. drum drying or Infra-Red roasting | |
| Designing and developing appropriate equipment (low cost, easy to operate and maintain, resistant to wear) | Containerized food processing units, using alternative energy (solar energy, biogas from waste, biochar) | |
| Improving the safety and quality of foods: Use of Hazard Analysis Critical Control Points (HACCP) methodology, traceability systems, rapid-analysis system for on-site quality assessment | The ‘Blue Box’ to assess in the field the aflatoxin content of maize developed for WFP |
Fig. 2Conceptual framework for Humanitarian Food Systems.
Fig. 3HFST at the intersection of Products, Processes, People and Systems.