Brijesh K. Mehta

Dr. Brijesh K. Mehta


Research Focus & Metrics

Academic Career Length

35Years (1992-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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8 February 2022 in Plant Stress
Verified
Journal Article
Open access
DSDebanjana Saha
Debanjana Saha
PCPrince Choyal
Prince Choyal
UMUdit Nandan Mishra
Udit Nandan Mishra
Prajjal DeyPrajjal Dey
Prajjal Dey
BBBandana Bose
Bandana Bose
Rajesh Kumar SinghalRajesh Kumar Singhal
Rajesh Kumar Singhal

1 April 2022 in Journal of Food Composition and Analysis
Verified
Journal Article
Closed access
GCGulab Chand
Gulab Chand
VMVignesh Muthusamy
Vignesh Muthusamy
TATanu Allen
Tanu Allen
RZRajkumar U. Zunjare
Rajkumar U. Zunjare
SMSubhra J. Mishra
Subhra J. Mishra
HFHossain Firoz
Hossain Firoz

17 March 2022 in Journal of Cereal Science
Verified
Journal Article
Closed access
ZTZahirul A. Talukder
Zahirul A. Talukder
VMVignesh Muthusamy
Vignesh Muthusamy
RCRashmi Chhabra
Rashmi Chhabra
VBVinay Bhatt
Vinay Bhatt
SRShashidhar B. Reddappa
Shashidhar B. Reddappa
HFHossain Firoz
Hossain Firoz

1 September 1992 in Journal of Irrigation and Drainage Engineering
Verified
Journal Article
Closed access
BMBrijesh K. Mehta
Brijesh K. Mehta
AGAkira Goto
Akira Goto
On‐farm storage facilities can be useful in satisfying the variable diurnal irrigation demand during a day and, at the same time, can prevent waste of water. In this study, an irrigation pond (IP) model is developed for the determination of required minimum storage capacity at a desired reliability level with a given intake operating rule to meet the fluctuating water demands. This IP model is applied to determine the storage capacities of several lateral canals of the Mae‐Taeng Irrigation Project in Chiang Mai Province, Thailand. Simulations are carried out to analyze effects of different cropping patterns and hourly irrigation demand patterns at various reliability levels on the storage capacities of irrigation ponds. The determined storage capacities of irrigation ponds for various lateral canals having different cropping patterns varies from about 1,870m3 to 2,525m3 for a 100 ha command area at 90% reliability. It is observed that introduction of on‐farm irrigation ponds can reduce both water waste an...

27 March 2022
Verified
Book Chapter
Closed access
PDF file
HAHarikrishna
Harikrishna
PSP. Shashikumara
P. Shashikumara
RGRAHUL GAJGHATE
RAHUL GAJGHATE
NDNarayana Bhat Devate
Narayana Bhat Devate
Aalok ShivAalok Shiv
Aalok Shiv
GSGyanendra Singh
Gyanendra Singh

27 March 2026 in Plants
Verified
Journal Article
Open access
PDF file
SPShashikumara P
Shashikumara P
MSMANJANAGOUDA SANNAGOUDAR
MANJANAGOUDA SANNAGOUDAR
CNChandra Nayak
Chandra Nayak
VKVinod Kumar
Vinod Kumar
BMBrijesh K. Mehta
Brijesh K. Mehta
SGS.K. Gupta
S.K. Gupta
The development of stable and high-yielding fodder pearl millet genotypes with improved quality traits is crucial for enhancing livestock productivity under diverse environments. In this study, twenty-six elite genotypes, including brown midrib (bmr) lines and two check cultivars, were evaluated across four locations, which fall broadly under two agro-climatic zones of India, during the summer season of 2024 to assess their stability for yield and fodder quality traits. Significant genotypic differences and genotype × environment interactions (GEIs) were observed for all traits, indicating substantial genetic variability and environmental influence on trait expression. Additive Main Effects and Multiplicative Interaction (AMMI) and Weighted Average of Absolute Scores (WAAS) analyses identified IGPM 100 as a high-yielding and stable genotype across environments, whereas Baif Bajra 1 and IGBV 97 exhibited specific adaptation. Among quality traits, ICMbmr 2401, ICMbmr 2402, and ICMbmr 2404 recorded consistently low lignin content, confirming their potential for improving forage digestibility. Further, ICFPM 05 recorded high tillering and longer leaves, while ICMFV 2308 exhibited late flowering across locations, indicating their potential for use in developing leafy, late-flowering genotypes. The multi-trait stability index (MTSI) efficiently identified IGPM 100, ICFPM 02, ICMbmr 2404, and IGBV 9 as superior and stable genotypes across multiple traits. High selection differentials for green fodder yield and negative differentials for lignin and fibre fractions highlight the possibility of a simultaneous improvement in yield and quality traits. Overall, the integration of AMMI, WAAS, and MTSI models facilitated the identification of broadly adapted and trait-specific genotypes, which, after evaluating their combining ability, can be used for developing fodder pearl millet composites and hybrids.