Martin Hartvig

TL;DR: These body-mass- and temperature-scaling models remain useful as a mechanistic basis for predicting the consequences of warming for interaction strengths, population dynamics and network stability across communities differing in their size structure.

TL;DR: The framework allows food web models to include ontogenetic growth and life-history omnivory at the individual level by resolving the population structure of each species as a size-spectrum by synthesising traditional unstructured food webs, allometric body size scaling, trait-based modelling, and physiologically structured modelling.

TL;DR: This work collate and review data on size-based scaling laws for resource acquisition, mobility, sensory range, and progeny size for all pelagic marine life, from bacteria to whales, and divides life in the ocean into seven major realms based on trophic strategy, physiology, and life history strategy.

TL;DR: It is argued that it is crucial to take into account body size as a species trait when analysing the consequences of biodiversity loss for natural ecosystems.

TL;DR: In this paper, Brander et al. presented an analysis of the effects of ocean acidification on ocean ecology and its role in global climate change, using data from the National Institute of Aquatic Resources (DTU-Aqua).