Mechanisms of soil organic carbon (SOC) stabilization have been widely studied due to their
relevance in the global carbon cycle. No‐till (NT) has been frequently adopted to sequester …

Many studies have shown that the microbial biomass content in paddy soils is much higher
than that in upland soils, but a comprehensive review of the underlying mechanisms and …

The impact of increasing amounts of labile C input on priming effects (PE) on soil organic
matter (SOM) mineralization remains unclear, particularly under anoxic conditions and …

Paddy soils, a type of Hydragric Anthrosol, have much greater soil organic C (SOC) and total
N (TN) contents than that in upland soils. However, this fact has never been generalized or …

Paddies contain 78% higher organic carbon (C) stocks than adjacent upland soils, and iron
(Fe) plaque formation on rice roots is one of the mechanisms that traps C. The process …

Subsoils contain> 50% of soil organic carbon (SOC) globally yet remain under‐investigated
in terms of their response to climate changes. Recent evidence suggests that warmer, drier …

The application of biochar and arbuscular mycorrhizal fungi (AMF) is of great significance in
improving soil properties and plant growth. In this study, a pot experiment of rice (Oryza …

Phosphorus (P) is a major limiting nutrient for plant growth implying an often-intensive
competition between microorganisms and plants in the rhizosphere. Increasing the P …

Biochar (BC) and nitrogen (N) fertilizers are frequently applied to improve soil properties and
increase crop productivity. Nonetheless, our mechanistic understanding of plant-soil …

Rice paddy agro-ecosystems play an important role in global carbon (C) sequestration.
Because of flooding management, paddy soil experience periodical changes in oxygen …