Abstract
One of the major challenges in today's agriculture is to achieve enhanced plant growth and biomass even under adverse environmental conditions. Recent advancements in genetics and molecular biology have enabled the identification of a complex signaling network contributing toward plant growth and development on the one hand and abiotic stress response on the other hand. As an outcome of these studies, three major approaches have been identified as having the potential to improve biomass production in plants under abiotic stress conditions. These approaches deal with having changes in the following: (i) plant-microbe interactions; (ii) cell wall biosynthesis; and (iii) phytohormone levels. At the same time, employing functional genomics and genetics-based approaches, a very large number of genes have been identified that play a key role in abiotic stress tolerance. Our Minireview is an attempt to unveil the cross-talk that has just started to emerge between the transcriptional circuitries for biomass production and abiotic stress response. This knowledge may serve as a valuable resource to eventually custom design the crop plants for higher biomass production, in a more sustainable manner, in marginal lands under variable climatic conditions.
Highlights
One of the major challenges in today’s agriculture is to achieve enhanced plant growth and biomass even under adverse environmental conditions
We hope that the recent advances in molecular biology, including tissue-specific or developmental stage-specific gene expression, stringently regulated and induced gene expression, site-specific integration of the transgene, and gene pyramiding will assist us in enhancing the photosynthetic efficiency in plants contributing eventually to produce higher biomass when grown under marginal lands [11]
The focus is on the above three major strategies that can be utilized to mitigate abiotic stress response, besides enhancing biomass production. In this Minireview, we present several examples where plant–microbe partnerships have been utilized to cope with the abiotic stress response leading to higher biomass production
Summary
Our Minireview is an attempt to unveil the cross-talk that has just started to emerge between the transcriptional circuitries for biomass production and abiotic stress response This knowledge may serve as a valuable resource to eventually custom design the crop plants for higher biomass production, in a more sustainable manner, in marginal lands under variable climatic conditions. This is the third article in the Thematic Minireview series “Green biological chemistry.”. Even if we plan to use biofuels to satisfy the 20% of the growing demand for oil products, there will be nothing left to eat Keeping this fact in mind, it is imperative to design our future food crops that will have the potential to give high yield and biomass even under marginal lands.
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Topics from this Paper
Role In Abiotic Stress Tolerance
Abiotic Stress Response In Plants
Abiotic Stress Response
Biomass Production In Plants
Stress Response In Plants
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