The transition towards a sustainable and healthy food system is one of the major sustainability challenges of today, next to the energy transition and the transition from a linear to circular economy. This paper provides a timely and evidence-based contribution to better understand the complex processes of institutional change and transformative social-ecological innovation that takes place in the food transition, through a case study of an open innovation and food transition network in The Netherlands, the South-Holland Food Family (Zuid-Hollandse Voedselfamilie). This network is supported by the provincial government and many partners, with the ambition to realize more sustainable agricultural and food chains, offering healthy, sustainable and affordable food for everyone in the Province of South-Holland in five to ten years from now. This ambition cannot be achieved through optimising the current food system. A transition is needed – a fundamental change of the food system’s structure, culture and practice. The Province has adopted a transition approach in its 2016 Innovation Agenda for Sustainable Agriculture. This paper provides an institutional analysis of how the transition approach has been established and developed in practice. Our main research question is what interventions and actions have shaped the transition approach and how does the dynamic interplay between actors and institutional structures influence institutional change, by analysing a series of closely related action situations and their context, looking at 'structure' and 'agency', and at the output-outcomes-impact of these action situations. For this purpose, we use the Transformative Social-Ecological Innovation (TSEI)-framework to study the dynamic interplay between actors and institutional structures influencing institutional change. The example of TSEI-framework application in this paper shows when and how local agents change the institutional context itself, which provides relevant insights on institutional work and the mutually constitutive nature of structure and agency. Above institutional analysis also shows the pivotal role of a number of actors, such as network facilitators and provincial minister, and their capability and skills to combine formal and informal institutional environments and logics and mobilize resources, thereby legitimizing and supporting the change effort. The results are indicative of the importance of institutional structures as both facilitating (i.e., the province’s policies) and limiting (e.g. land ownership) transition dynamics.
Making food packaging more sustainable is a complex process. Research has shown that specific knowledge is needed to support packaging developers to holistically improve the sustainability of packaging. Within this study we aim to provide insights in the various tradeoffs designers face with the aim to provide insights for future sustainable food packaging (re)design endeavors. The study consists of analyzing and coding 19 reports in which bachelor students worked on assignments ranging from (1) analyzing the supply chain of a food product-packaging combination to (2) redesigning a specific food packaging. We identified 6 tradeoffs: (1) Perceived Sustainability vs. Achieved Sustainability, (2) Food Waste vs. Sustainability, (3) Branding vs. Sustainability, (4) Product Visibility vs. Sustainability, (5) Costs vs. Sustainability, and (6) Use Convenience vs Sustainability. We compared the six tradeoffs with literature. Two tradeoffs can be seen as additional to topics mentioned within literature, namely product visibility and use convenience. In addition, while preventing food waste is mentioned as an important functionality of food packaging, this functionality seems to be underexposed within practice.
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De wereldbevolking groeit van 7 miljard nu naar 9 miljard in 2040. De productiegroei van voedsel loopt hierop flink achter. Uit onderzoek van de FAO in 2011 komt naar voren dat wereldwijd elk jaar 1,3 miljard ton voedsel verloren gaat, ruim een derde van de voedselproductie. Binnen de EU gooien we 20% van het totaal voor de EU inwoners geproduceerde voedsel weg, inclusief het onvermijdbare verlies. Dat komt neer op 173 kg per EU inwoner per jaar. Ongeveer de helft daarvan wordt weggegooid in de productieketen tot en met de supermarkt. Agri-food reststromen zijn te vinden bij de voedselindustrie, boeren, veilingen, supermarkten etc. Die worden momenteel laagwaardig verwerkt in diervoeder, compost, potgrond, vergisting etc. Hoogwaardig verwerken gebeurt zelden, bv via de Voedselbank of de Verspillingsfabriek (soepen etc.). Dit project heeft primair als doel om reststromen vanuit de food industrie hoogwaardig te verwaarden, met 3D food printing als primaire technologie. 3D food printing is in 2006 ontstaan en sinds 2016 in een stroomversnelling gekomen. (Michelin) chefs, chocolatiers, patissiers, fooddesigners en catering hebben deze nieuwe techniek nu omarmd. Vanuit de voedselindustrie is er ook veel belangstelling, met name voor industriële toepassing en voorgevulde cartridges. Daarmee kan het Nespresso businessmodel voor een doorbraak in 3Dfoodprinting zorgen, een goedkope 3Dprinter voor consumenten waarbij verdiend wordt aan de cartridges. Belangrijk dus om toepassingen te vinden die de mogelijkheden van 3D food printing voor verwaarding van reststromen volop benutten.
Inside Out is an innovative research project that translates cutting-edge microbiome science into immersive, multisensory experiences aimed at long-term behavioral and mental health transformation. Combining extended reality (XR), speculative gastronomy, and narrative therapy, the project enables participants to explore their inner microbiome landscape through taste, smell, touch, and interactive storytelling. This pioneering methodology connects gut-brain science with emotional and sensory engagement. Participants experience their bodies from the inside out, cultivating a visceral understanding of the symbiotic microbial worlds within us. The project includes AI-generated "drinkable memories," microbiome-inspired food designs, haptic-olfactory VR environments, and robotic interactions that choreograph the body as terrain. Developed in collaboration with designers from Polymorf, producer Studio Biarritz, psychiatrist-researcher Anja Lok, and microbiome scientists from Amsterdam UMC and the Amsterdam Microbiome Expertise Center, Inside Out bridges scientific rigor with artistic expression. The project seeks to: • Increase embodied understanding of the microbiome’s role in health and well-being • Shift public perception from hygiene-based fear to ecological thinking • Inspire behavioral change related to food, gut health, and mental resilience The outcomes are designed to reach a large audience and implementation in science museums, art-science festivals, and educational programs, with a view toward future clinical applications in preventive healthcare and mental well-being. By making the invisible microbiome tangible, Inside Out aims not only to inform, but to transform—redefining how we relate to the ecosystems within us.
Zeefier uses seaweed as a sustainable source of colour. Preferably seaweed that is washed up on the shore or seaweed that is cultivated for consumers. Zeefier intends to produce seaweed dye for the textile market. The knowledge of the Centre of Expertise MNEXT from Avans University of Applied Sciences lies in the analysis of natural colours and facilities in non-food applications, such as textile and biopolymers. Creative designer and co-founder of Zeefier, Nienke Hoogvliet, discovered the potential of seaweed as a lightfast textile dye. The objective of the partners Zeefier and Avans/MNEXT is the exploration and development of colouring isolates from seaweed. For this, we focus on the quality and quantity of the pigments present in brown seaweed. At the end of the project, Zeefier will have a process flow diagram of how to obtain colourfast extracts from seaweed. In addition, it is also known which type of isolates and compounds are relevant for the colour. In this way, Zeefier can provide both advice on colour but also the isolates needed. The dyeing method will be applicable in standard industrial dyeing processes. With this companies in the textile industry will have a wider choice in using environmentally friendly products. In the end, this will lead to completely biodegradable products for consumers.
