Tuning the properties of soy protein isolate-based adhesive using various sustainable additives.

This work investigates the adhesive property of Soy Protein Isolate (SPI) polymer solution by studying mechanical properties of composites formed using waste wood granules and SPI solutions. To improve the adhesive strength of SPI solution, Carboxymethyl Cellulose Sodium (NaCMC) was mixed (in the weight ratios of 9:1 and 8:2) due to its strong gel formation capabilities. The adhesive performance of these composites was further investigated in the presence and absence of non-toxic additives, including sorbitol (SOR) and stearic acid (SA).

Small RNA sequencing analysis provides novel insights into microRNA-mediated regulation of defense responses in chickpea against Fusarium wilt infection.

Small RNA sequencing analysis in two chickpea genotypes, JG 62 (Fusarium wilt-susceptible) and WR 315 (Fusarium wilt-resistant), under Fusarium wilt stress led to identification of 544 miRNAs which included 406 known and 138 novel miRNAs. A total of 115 miRNAs showed differential expression in both the genotypes across different combinations. A miRNA, Car-miR398 targeted copper chaperone for superoxide dismutase (CCS) that, in turn, regulated superoxide dismutase (SOD) activity during chickpea-Foc interaction.

Delving into the BURP Super family: A Comprehensive QTL-Assisted Study on RD22 genes and its Role in Salinity Stress Tolerance in Chickpea.

DNA polymorphisms QTL analysis in crops is a valuable tool to study the genetic basis of complex traits in agricultural plants. Candidate gene for abiotic (salinity) stress was spotted in the QTL region spanning CaLG03 and CaLG06 in our previous study. In continuity to the same, we have picked up QTL-associated Cicer arietinum RD22 (CaRD22) gene which belongs to BURP-domain-containing group of proteins (BURPs) and studied its expression patterns in salinity-tolerant (ICCV10) and susceptible (DCP92-3) genotypes of chickpea.

Evaluation and identification of advanced inter-specific derivatives from crosses of with and for agro-morphological, quality traits and disease resistance.

Inter-specific hybridization is a key strategy in modern crop improvement, aiming to integrate desirable traits from wild species into cultivated backgrounds. This study delves into the evaluation and identification of advanced inter-specific derivatives (IDs) derived from crosses of cultivated chickpea with and . The primary aim was to incorporate desirable yield enhancement traits, disease resistance, and nutritional quality traits into cultivated chickpea.