# Integrating electroactive microorganisms into active soil management strategies

## TL;DR

This paper explores using electroactive microorganisms in soil management to improve agriculture and environmental sustainability.

## Contribution

It introduces the concept of 'gardening microorganisms' as programmable agents for regenerative soil systems.

## Key findings

- Electroactive microorganisms drive nutrient cycling and biofertilization while generating bioelectricity.
- Soil microbial fuel cells serve as self-powered biosensors and bioremediation platforms.
- Integrating EAMs supports climate-smart, regenerative agroecosystems with circular nutrient recovery.

## Abstract

Electroactive microorganisms (EAMs) can be incorporated into active soil management as a strategy for regenerative agriculture. Through extracellular electron transfer, they drive nutrient cycling, biofertilization, and pollutant degradation while also producing bioelectricity. Soil microbial fuel cells exemplify their use as self-powered biosensors and platforms for bioremediation. Reframing soils as dynamic bioelectronic interfaces, EAMs enable nutrient recovery, waste valorisation, and resilience. The concept of “gardening microorganisms” integrates them as programmable agents within managed ecosystems. By coupling microbial consortia engineering, bioelectronic scaffolds, and circular nutrient recovery, soils work as intelligent, self-regulating systems. This review positions EAMs as a tool in soil management for shaping climate-smart, regenerative agroecosystems that sustain productivity and ecological balance.