The complexity of many biological, social and technological systems stems from the richness
of the interactions among their units. Over the past decades, a variety of complex systems …

The number of network science applications across many different fields has been rapidly
increasing. Surprisingly, the development of theory and domain-specific applications often …

Unravelling the relationships between network complexity and stability under changing
climate is a challenging topic in theoretical ecology that remains understudied in the field of …

The contributions of soil microbial diversity for the multifunctionality of ecosystem functions
remain little understood despite the well-known importance of soil microbial communities for …

Mutualism is commonly observed in nature but not often reported for bacterial communities.
Although abiotic stress is thought to promote microbial mutualism, there is a paucity of …

Network analysis has been used for many years in ecological research to analyze
organismal associations, for example in food webs, plant-plant or plant-animal interactions …

The limited information on microbial interactions and metabolic patterns in denitrification
systems, especially those fed with different carbon sources, has hindered the establishment …

Our planet is changing at paces never observed before. Species extinction is happening at
faster rates than ever, greatly exceeding the five mass extinctions in the fossil record …

Network approaches to ecological questions have been increasingly used, particularly in
recent decades. The abstraction of ecological systems–such as communities–through …

Network science is today established as a backbone for description of structure and function
of various physical, chemical, biological, technological, and social systems. Here we review …