Pulse Brain · Growing Health Evidence Index
Tier 1 — Meta-analysis / systematic reviewPeer-reviewedConventional

Unravelling the effects of climate change on the soil-plant-atmosphere interactions: A critical review

Maria Nahin Oishy, Nigar Ahmmad Shemonty, Sadia Islam Fatema, Sadika Mahbub, Ebadunnahar Lukhna Mim, Maimuna Binte Hasan Raisa, Amit Hasan Anik

Soil & Environmental Health · 2025

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Summary

This systematic review synthesises the complex interactions between soil, plants, and atmosphere under climate change, emphasising how altered precipitation, temperature increases, and extreme weather events degrade soil structure and disrupt nutrient cycles, ultimately threatening agricultural productivity and ecosystem stability. The analysis reveals that whilst elevated atmospheric CO2 enhances photosynthesis, this benefit is undermined by nutrient limitations and phenological mismatches. Critically, positive feedback loops—particularly reduced carbon sequestration driving further greenhouse gas emissions—amplify climate impacts, necessitating integrated mitigation and adaptation strategies including climate-resilient farming practices and renewable energy transitions.

Regional applicability

UK agriculture faces similar climate stressors (increased precipitation intensity, temperature fluctuations, extreme weather) that disrupt soil health and crop performance; the review's emphasis on climate-resilient agricultural practices and soil management aligns with UK policy priorities around sustainable farming and net-zero commitments. However, UK-specific soil types, rainfall patterns, and existing farming infrastructure may require localised adaptation of the globally-derived recommendations.

Key measures

Soil structure integrity; nutrient cycling efficiency; plant physiological responses; carbon sequestration rates; greenhouse gas emissions; phenological timing; biodiversity impacts; photosynthetic performance under elevated CO2

Outcomes reported

The review synthesised evidence on how climate change disrupts soil structure, nutrient cycling, and plant growth through altered precipitation, elevated temperatures, and extreme weather events. It evaluated feedback mechanisms linking decreased carbon sequestration to increased greenhouse gas emissions and identified critical gaps in understanding system resilience under climatic stressors.

Theme
Climate & resilience
Subject
Climate & greenhouse gas mitigation
Study type
Systematic Review
Study design
Systematic review
Source type
Peer-reviewed study
Status
Published
Geography
Global
System type
Mixed farming
DOI
10.1016/j.seh.2025.100130
Catalogue ID
SNmojqlyf0-j4g353

Topic tags

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