Sustainable Delicacy: Variation in Quality and Sensory Aspects in Wild Boar () Meat and Comparison to Pork Meat-A Case Study.

The aim of this study was to evaluate quality and sensory variation in wild boar meat in comparison to pork. Meat quality in wild boar is expected to vary more compared to pork due to different feeding environment, age and gender. In order to be able to promote wild boar meat as a sustainable high-quality product, there is a need to evaluate the variation in meat quality attributes, including technological, compositional and sensory/texture aspects.

Corrigendum: Oleaginous yeast biomass effect on the metabolism of Arctic char ().

[This corrects the article DOI: 10.3389/fmolb.2022.

Oleaginous yeast biomass effect on the metabolism of Arctic char ().

Sustainability issues arise when using fish oil and vegetable oils in fish feed production for aquaculture purposes. Microbial production of single cell oil is a potential alternative as a lipid ingredient in the production of fish feed. In this study, we replaced the vegetable oils with the oleaginous yeast biomass in the diet of Arctic char () and investigated the effects on health and composition.

Comparison of Quality Changes in Eurasian Perch ( L.) Fillets Originated from Two Different Rearing Systems during Frozen and Refrigerated Storage.

The current knowledge on how different Eurasian perch rearing systems impact the final fillet quality is scant. Therefore, two domestic storage conditions were investigated-10 months frozen (-20 °C) and 12 days refrigerated (+4 °C) storage conditions-in order to determine (i) how the choice of rearing system affects fillets quality during different processing conditions and (ii) if oxidative changes and other quality parameters were interactive. For the proposed idea, proteome analysis, oxidative changes, and some quality parameters were considered in this study.

Oleaginous yeasts respond differently to carbon sources present in lignocellulose hydrolysate.

Background: Microbial oils, generated from lignocellulosic material, have great potential as renewable and sustainable alternatives to fossil-based fuels and chemicals. By unravelling the diversity of lipid accumulation physiology in different oleaginous yeasts grown on the various carbon sources present in lignocellulose hydrolysate (LH), new targets for optimisation of lipid accumulation can be identified. Monitoring lipid formation over time is essential for understanding lipid accumulation physiology.