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NIBIOs ansatte publiserer flere hundre vitenskapelige artikler og forskningsrapporter hvert år. Her finner du referanser og lenker til publikasjoner og andre forsknings- og formidlingsaktiviteter. Samlingen oppdateres løpende med både nytt og historisk materiale. For mer informasjon om NIBIOs publikasjoner, besøk NIBIOs bibliotek.

2025

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Sammendrag

The search for renewable and sustainable energy sources is increasing worldwide, urges the identification of biofuels from insects. The possibility of producing biodiesel and biogas from insects has gained significant attention as a better alternative to conventional fossil fuels. This approach is due to the presence of high lipid and protein contents of certain insect species, including black soldier fly larvae, mealworms and crickets, which can be cultivated on organic waste streams. Insects such as black soldier flies and mealworms require minimal water and land for cultivation, and their waste-based diet reduces environmental impacts while promoting waste valorization compared to traditional biofuel feedstocks. Insects’ lipids can be extracted and converted into biodiesel through transesterification, while the remaining biomass, rich in proteins and other organic materials, can be anaerobically digested to produce biogas. This dual production pathway not only maximizes energy output but also generates valuable by-products, such as residual organic fertilizer. This review emphasizes the potential of insect-based biofuel conversion and its recent advances. The challenges in scaling up the process, and optimizing yields are critically evaluated. The environmental and technological parameters of the entire biofuel production process from insects are discussed in terms of their sustainability aspects.

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Sammendrag

Synthetic plastics of petrochemical origin pose serious health risks to humans and animals, along with creating unwarranted stress on the environment. Recent years have witnessed the enormity of the depletion of natural resources to produce synthetic plastics. Of late, biodegradable bio-packaging materials are gaining attention due to stringent regulations against the usage of single-use plastics and microplastic deposition in the environment. This has led to the development of sustainable, eco-friendly, cost-effective biopackaging materials (mainly biodegradable bioplastics). Though certain drawbacks persist, the use of bio-packaging materials in food industries offers a lower carbon footprint, presents an environmentally friendly solution, and is cost-effective, especially when sustainable sources of raw materials are used. In this regard, agri-food industry-generated biomass/feedstock (wastes and processing by-products) has been explored and efficiently valorized to produce biodegradable plastics. Packaging solutions derived from agri-food wastes and by-products represent an innovative approach to address both resource efficiency and environmental-friendliness and support the circular economy concepts. This chapter aims to provide information on current developments in packaging solutions available in food industries, challenges, and opportunities for the future.

Sammendrag

Kelp farming is an essential component of the European blue economy, yet rising ocean temperatures threaten its sustainability. Breeding resistant strains takes several years, and reduces genetic diversity. Priming-induced epigenetic could rapidly enhance stress resilience and performance, but must be adapted from terrestrial plants to kelp and its bi-phasic life-cycle. Research investigating the long-term impacts of nursery conditions at the gametophyte stage on the growth and resilience of sporophytes is scarce. Our research shows that temmperature extremes at the gametophyte stage can significantly influence the growth, productivity, and thermal tolerance at the sporophyte stage, demonstrating transgenerational effects. We propose three aspects to advance biotechnological research to generate resilient kelp without breeding: 1) a mariculture test framework that allows to assess the influence of early life cycle stage treatments on sporophyte characteristics, balancing the operational capacity of commercial-scale farms with the replication in smaller production units; 2) the specificities of kelp epigenetics as a potential mechanism to carry a memory of environmental effects from the gametophyte stage to the sporophyte stage, and an angle point for non-genetic adaptation; 3) a modeling approach to simulate the effects of increasing thermal tolerance on the potential recovery of kelp habitat and farming area under projected climate change. Integrating a mariculture trial framework with molecular biology, and ecological modeling offers a pathway to develop resilient and kelp strains that show enhanced growth without compromising biodiversity or regulatory frameworks.