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Irfan Haidri

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Review Open access Sep 2026

Green metal–organic frameworks for circular soil remediation through pollutant sequestration and nutrient regeneration

Agricultural soils are increasingly threatened by contamination from pesticides, herbicides, and potentially toxic metals, posing significant risks to food security, ecosystem functioning, and long-term agricultural sustainability. Conventional remediation strategies primarily focus on contaminant removal but often fail to promote resource recovery and soil regeneration. Metal–organic frameworks (MOFs) have emerged as versatile materials capable of addressing both environmental remediation and nutrient management challenges within a green and circular chemistry framework. Recent advances demonstrate that MOFs can achieve contaminant removal efficiencies exceeding 90% and pesticide loading capacities of up to 90.79%, highlighting their potential as highly effective remediation materials. Beyond pollutant sequestration, MOFs undergo microbial and environmental transformations that facilitate the gradual release of plant-essential nutrients, including phosphorus and iron, thereby enhancing nutrient-use efficiency, supporting nutrient recycling, and improving plant performance. Unlike previous reviews that primarily discuss MOFs either as adsorbents for environmental remediation or as carriers for agrochemical delivery, this review presents an integrated perspective on MOFs as regenerative materials that connect pollutant sequestration with nutrient regeneration through biologically mediated transformation. It brings together recent developments in the field of MOF–microbiome interactions, microbial degradation pathways, nutrient recycling, and circular soil remediation in a single conceptual framework. Furthermore, this review identifies critical knowledge gaps related to field-scale validation, standardized environmental risk assessment, scalable green synthesis, economic feasibility, and the long-term fate of MOF transformation products. By integrating these emerging research directions, this review may provides a roadmap for developing next-generation MOF technologies for resilient and circular agricultural systems.

Irfan Haidri, Aneeza Ishfaq, Athakorn Promwee et al. · 0 citations
Review Open access Sep 2026

Mechanistic role of biochar as a geobiochemical amendment: Mitigating abiotic stress and enhancing soil–plant interactions

Abiotic stressors, including drought, salinity, and heavy metal contamination, pose escalating threats to global food security, challenges further exacerbated by climate change and progressive soil degradation. As a strategic geochemical amendment, biochar is increasingly proposed to enhance soil resilience and agricultural sustainability, directly supporting sustainable development goal (SDG) 2 (Zero Hunger) and SDG 13 (Climate Action). This review critically evaluates biochar in stress mitigation, focusing on production principles, soil physicochemical adjustments, and changes in the soil‐plant microbiome and soil–plant–microbe interactions. Specifically, we synthesize data demonstrating biochar's multifaceted efficacy: regulating ion homeostasis to reduce Na + uptake by 20%–40% under saline conditions, enhancing water use efficiency by 15%–30% in arid environments, and immobilizing heavy metals to reduce cadmium (Cd) accumulation by 25%–50%. These synergistic soil–plant interactions further contribute to SDG 6 (Clean Water and Sanitation) and SDG 15 (Life on Land). However, significant challenges remain regarding feedstock variability, dosage optimization, and long‐term field stability. Furthermore, performance discrepancies under combined multi‐stress scenarios underscore the urgent need for standardized biochar formulations. Integrating biochar into precision frameworks offers a promising geobiochemical frontier for modulating multi‐stress crop resilience and shifting soil–plant–microbe dynamics toward climate‐adaptive landscapes. Such advancements are essential for ensuring global food security for a projected population of 9.7 billion by 2050.

Waqas Haider, Qudrat Ullah, M. Qasim et al. · 0 citations

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