Contribution of Biofertilizers to Pulse Crops: From Single-Strain Inoculants to New Technologies Based on Microbiomes Strategies.
Gustavo Ribeiro XavierEderson de Conceição JesusAnelise DiasMarcia Reed Rodrigues CoelhoYulimar Castro MolinaNorma Gouvêa RumjanekPublished in: Plants (Basel, Switzerland) (2023)
Pulses provide distinct health benefits due to their low fat content and high protein and fiber contents. Their grain production reaches approximately 93,210 × 10 3 tons per year. Pulses benefit from the symbiosis with atmospheric N 2 -fixing bacteria, which increases productivity and reduces the need for N fertilizers, thus contributing to mitigation of environmental impact mitigation. Additionally, the root region harbors a rich microbial community with multiple traits related to plant growth promotion, such as nutrient increase and tolerance enhancement to abiotic or biotic stresses. We reviewed the eight most common pulses accounting for almost 90% of world production: common beans, chickpeas, peas, cowpeas, mung beans, lentils, broad beans, and pigeon peas. We focused on updated information considering both single-rhizobial inoculation and co-inoculation with plant growth-promoting rhizobacteria. We found approximately 80 microbial taxa with PGPR traits, mainly Bacillus sp., B. subtilis , Pseudomonas sp., P. fluorescens , and arbuscular mycorrhizal fungi, and that contributed to improve plant growth and yield under different conditions. In addition, new data on root, nodule, rhizosphere, and seed microbiomes point to strategies that can be used to design new generations of biofertilizers, highlighting the importance of microorganisms for productive pulse systems.
Keyphrases
- plant growth
- microbial community
- climate change
- blood pressure
- antibiotic resistance genes
- human health
- genome wide
- health information
- healthcare
- public health
- adipose tissue
- mental health
- big data
- particulate matter
- staphylococcus aureus
- risk assessment
- fatty acid
- amino acid
- artificial intelligence
- bacillus subtilis
- carbon dioxide
- arabidopsis thaliana
- air pollution
- life cycle
- genome wide analysis