Ruchi Bansal

Dr. Ruchi Bansal


Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

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

Representative Publications

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10 June 2019 in Plants
Verified
Journal Article
Open access
PDF file
SKSurbhi Kumawat
Surbhi Kumawat
NRNitika Rana
Nitika Rana
RBRuchi Bansal
Ruchi Bansal
GVGautam Vishwakarma
Gautam Vishwakarma
SMSayaji T. Mehetre
Sayaji T. Mehetre
Rupesh DeshmukhRupesh Deshmukh
Rupesh Deshmukh
Fast neutron (FN) radiation mediated mutagenesis is a unique approach among the several induced mutagenesis methods being used in plant science in terms of impacted mutations. The FN mutagenesis usually creates deletions from few bases to several million bases (Mb). A library of random deletion generated using FN mutagenesis lines can provide indispensable resources for the reverse genetic approaches. In this review, information from several efforts made using FN mutagenesis has been compiled to understand the type of induced mutations, frequency, and genetic stability. Concerns regarding the utilization of FN mutagenesis technique for a plant with different level of ploidy and genome complexity are discussed. We have highlighted the utility of next-generation sequencing techniques that can be efficiently utilized for the characterization of mutant lines as well as for the mapping of causal mutations. Pros and cons of mapping by mutation (MutMap), mutant chromosome sequencing (MutChromSeq), exon capture, whole genome sequencing, MutRen-Seq, and different tilling approaches that can be used for the detection of FN-induced mutation has also been discussed. Genomic resources developed using the FN mutagenesis have been catalogued wooing to meaningful utilization of the available resources. The information provided here will be helpful for the efficient exploration for the crop improvement programs and for better understanding of genetic regulations.

22 January 2022 in Environmental Pollution
Verified
Journal Article
Closed access
NKNidhi Kandhol
Nidhi Kandhol
BABharti Aggarwal
Bharti Aggarwal
RBRuchi Bansal
Ruchi Bansal
NPNishat Parveen
Nishat Parveen
VSVijay Singh
Vijay Singh
Durgesh Kumar TripathiDurgesh Kumar Tripathi
Durgesh Kumar Tripathi

26 November 2020 in Genes
Verified
Journal Article
Open access
PDF file
RBRuchi Bansal
Ruchi Bansal
NRNitika Rana
Nitika Rana
Akshay SinghAkshay Singh
Akshay Singh
PDPallavi Dhiman
Pallavi Dhiman
RMRushil Mandlik
Rushil Mandlik
TSTilak Sharma
Tilak Sharma
Metacaspases (MCs), a class of cysteine-dependent proteases found in plants, fungi, and protozoa, are predominately involved in programmed cell death processes. In this study, we identified metacaspase genes in cultivated and wild rice species. Characterization of metacaspase genes identified both in cultivated subspecies of Oryza sativa, japonica, and indica and in nine wild rice species was performed. Extensive computational analysis was conducted to understand gene structures, phylogenetic relationships, cis-regulatory elements, expression patterns, and haplotypic variations. Further, the haplotyping study of metacaspase genes was conducted using the whole-genome resequencing data publicly available for 4726 diverse genotype and in-house resequencing data generated for north-east Indian rice lines. Sequence variations observed among wild and cultivated rice species for metacaspase genes were used to understand the duplication and neofunctionalization events. The expression profiles of metacaspase genes were analyzed using RNA-seq transcriptome profiling in rice during different developmental stages and stress conditions. Real-time quantitative PCR analysis of candidate metacaspase genes in rice cultivars Pusa Basmati-1 in response to Magnaporthe oryzae infection indicated a significant role in the disease resistance mechanism. The information provided here will help to understand the evolution of metacaspases and their role under stress conditions in rice.

10 May 2019 in Preprints.org
Verified
Preprint
Open access
PDF file
SKSurbhi Kumawat
Surbhi Kumawat
NRNitika Rana
Nitika Rana
RBRuchi Bansal
Ruchi Bansal
GVGautam Vishwakarma
Gautam Vishwakarma
SMSayaji Mehetre
Sayaji Mehetre
Rupesh DeshmukhRupesh Deshmukh
Rupesh Deshmukh
Fast neutron (FN) radiation mediated mutagenesis is a unique approach among the several induced mutagenesis methods being used in plant science in terms of impacted mutations. The FN mutagenesis usually creates deletions from a few bases to several million bases (Mb). A library of random deletion generated using FN mutagenesis lines can provide indispensable resources for the reverse genetic approaches. In this review, information from several efforts made using FN mutagenesis has been compiled to understand the type of induced mutations, frequency, and genetic stability. Concerns regarding the utilization of FN mutagenesis technique for a plant with different level of ploidy and genome complexity are discussed. We have highlighted the utility of next-generation sequencing techniques which can be efficiently utilized for the characterization of mutant lines as well as for the mapping of causal mutations. Pros and cons of Mut-map, MutChromSeq, exon capture, whole genome sequencing, MutRen-Seq, and different tilling approaches can be used for the detection of FN-induced mutation has also been discussed. Genomic resources developed using the FN mutagenesis have been catalogued wooing to meaningful utilization of the available resources. The information provided here will be helpful for the efficient exploration for the crop improvement programs and for better understanding of genetic regulations.