Soil fertility and productivity are severely impacted by exploitation and degradation
processes. These threats, coupled with population growth and climatic changes, compel us …

Soil microorganisms play a crucial role in maintaining the structure and function of soil
ecosystems. This study aims to explore the effects of microbial fertilizers on improving soil …

Fertilization of soil is needed to fulfill the growing demand for livestock feed and human food
requirements. However, fertilization has short and long-term impacts on the soil microbiota …

Intensification of agricultural land and the overuse of inorganic fertilisers has led to soil
acidification, depletion of organic matter, and environmental pollution. Approaches to protect …

At present, the exploitation of biofertilizers is revealing the vast potential for the
advancement of sustainable and organic agriculture and the improvement of arable soil …

Soil-borne diseases cause serious economic losses in agriculture. Managing diseases with
microbial preparations is an excellent approach to soil-borne disease prevention. However …

It is well known that a gram of soil contains thousands of individual microbial taxa including
bacteria, fungi, protists, oomycetes and viruses. Many of them play the main role in …

Under changing climatic conditions, the negative impact on the soil leads to damage and
destruction of soil and plant health. Here, plant microbiome (including both rhizospheric and …

The microbes are ubiquitous in nature. The soil is a natural hotspot of the soil microbiome.
The soil microbiome plays a critical role in the maintenance of global nutrient balance and …

A rapidly increasing human population coupled with climate change and several decades of
over-reliance on synthetic fertilizers has led to two pressing global challenges: food …