about
Differential transcriptional expression following thidiazuron-induced callus differentiation developmental shifts in rice.Decoding regulatory landscape of somatic embryogenesis reveals differential regulatory networks between japonica and indica rice subspecies.Transcriptomic and metabolomic shifts in rice roots in response to Cr (VI) stress.Nitric oxide mediated transcriptional modulation enhances plant adaptive responses to arsenic stress.Heterologous expression of Ceratophyllum demersum phytochelatin synthase, CdPCS1, in rice leads to lower arsenic accumulation in grainSalicylic acid modulates arsenic toxicity by reducing its root to shoot translocation in rice (Oryza sativa L.).Expression of Rice CYP450-Like Gene (Os08g01480) in Arabidopsis Modulates Regulatory Network Leading to Heavy Metal and Other Abiotic Stress Tolerance.Arsenomics: omics of arsenic metabolism in plantsComprehensive analysis of regulatory elements of the promoters of rice sulfate transporter gene family and functional characterization of OsSul1;1 promoter under different metal stress.De novo assembly and characterization of root transcriptome in two distinct morphotypes of vetiver, Chrysopogon zizaniodes (L.) RobertyOverexpression of Rice Glutaredoxin OsGrx_C7 and OsGrx_C2.1 Reduces Intracellular Arsenic Accumulation and Increases Tolerance in Arabidopsis thaliana.Elucidation of Complex Nature of PEG Induced Drought-Stress Response in Rice Root Using Comparative Proteomics Approach.Omics and biotechnology of arsenic stress and detoxification in plants: current updates and prospective.Overexpression of rice glutaredoxins (OsGrxs) significantly reduces arsenite accumulation by maintaining glutathione pool and modulating aquaporins in yeast.Application of bioreactor system for large-scale production of Eleutherococcus sessiliflorus somatic embryos in an air-lift bioreactor and production of eleutherosides.Arsenate exposure affects amino acids, mineral nutrient status and antioxidants in rice (Oryza sativa L.) genotypes.Cadmium-induced biochemical responses of Vallisneria spiralis.Genome-wide identification of rice class I metallothionein gene: tissue expression patterns and induction in response to heavy metal stress.Arsenate and arsenite exposure modulate antioxidants and amino acids in contrasting arsenic accumulating rice (Oryza sativa L.) genotypes.AtOPT6 transports glutathione derivatives and is induced by primisulfuron.An improved Agrobacterium-mediated transformation of recalcitrant indica rice (Oryza sativa L.) cultivars.Differential expression and alternative splicing of rice sulphate transporter family members regulate sulphur status during plant growth, development and stress conditions.Effect of arsenic on growth, oxidative stress, and antioxidant system in rice seedlings.Arsenite tolerance is related to proportional thiolic metabolite synthesis in rice (Oryza sativa L.).A novel arsenic methyltransferase gene of Westerdykella aurantiaca isolated from arsenic contaminated soil: phylogenetic, physiological, and biochemical studies and its role in arsenic bioremediation.Selenium ameliorates arsenic induced oxidative stress through modulation of antioxidant enzymes and thiols in rice (Oryza sativa L.).Response of two rice cultivars differing in their sensitivity towards arsenic, differs in their expression of glutaredoxin and glutathione S transferase genes and antioxidant usage.Heavy metals induce oxidative stress and genome-wide modulation in transcriptome of rice root.Transformed yeast (Schizosaccharomyces pombe) overexpressing rice Tau class glutathione S-transferase (OsGSTU30 and OsGSTU41) shows enhanced resistance to hexavalent chromium.Fungal diversity notes 491–602: taxonomic and phylogenetic contributions to fungal taxaComparative transcriptome analysis of arsenate and arsenite stresses in rice seedlingsArsenic tolerances in rice (Oryza sativa) have a predominant role in transcriptional regulation of a set of genes including sulphur assimilation pathway and antioxidant systemDifferential response of oxidative stress and thiol metabolism in contrasting rice genotypes for arsenic toleranceBiological removal of arsenic pollution by soil fungiArsenic affects mineral nutrients in grains of various Indian rice (Oryza sativa L.) genotypes grown on arsenic-contaminated soils of West BengalArsenic affects essential and non-essential amino acids differentially in rice grains: inadequacy of amino acids in rice based dietArsenic accumulation in native plants of West Bengal, India: prospects for phytoremediation but concerns with the use of medicinal plantsExpression of a rice Lambda class of glutathione S-transferase, OsGSTL2, in Arabidopsis provides tolerance to heavy metal and other abiotic stressesArsenite tolerance in rice (Oryza sativa L.) involves coordinated role of metabolic pathways of thiols and amino acidsA protective role for nitric oxide and salicylic acid for arsenite phytotoxicity in rice (Oryza sativa L.).
P50
Q33349491-A8BD3481-91DA-41CC-900B-D0CF2B0C8D50Q33362761-874E40C3-3B48-4013-93E1-DA5FEA447C04Q33751871-43A16B64-C2DE-4021-8F8F-BF8121AF29B2Q33804073-BD0932C6-1CC7-483F-83AE-16B4A943CCFBQ33928857-DFF9E80C-61CF-40BF-84B0-ED3CDF08B02AQ35617024-04BCE086-3669-464A-A704-2301DD54F9BAQ35786423-D16232A7-715E-4F07-9E2D-0897F328A5D0Q36193712-CF7C2E0E-8183-47CC-983E-343973F3FA27Q36213350-2D2B5A66-DC15-4A79-87EA-146171095695Q36382725-6161517C-F55D-4C94-B727-126459E24002Q36952425-AB818779-729D-4F93-AAE1-B156D3C133EEQ37293210-A01DE329-1B72-44EA-AEC3-E5A2ADB57478Q38277982-9FC96314-1D7B-4955-A834-9BF2932DA1AEQ39770415-E59CE7BC-6C58-46FE-8701-D77CB7C1E0EBQ42482549-DC638826-A16D-4099-8A03-1829BED8548DQ42814532-2B0088A7-901D-4C26-BEEA-49DAE6920DC3Q43072527-88FAB155-A334-4DCC-A247-A39E22E77BDAQ43597261-7D9E44CD-9290-4D25-B286-0BD843C3280BQ44634847-74D40B5C-ADD5-4F15-9EA6-4CDED68832B6Q44973385-23EB0751-331F-4D50-86D4-101C341267CBQ45820996-4679191A-95C9-42E0-B9A8-BC09AA91A290Q45966207-17784ED1-66EE-4BE1-8415-025F038EBD8BQ46242769-65C69D07-8CB9-477C-82F6-BA1CF579C958Q46467975-0164EB18-6B8E-4CAF-BEF8-719B4478828FQ50891041-95CC77F8-7B81-4B4D-8411-74E8BDA18188Q51070613-391C9ACB-B2E3-4765-8D26-558EAEBEB34AQ51322001-DD43BC45-E244-404E-BCF7-EAC8681F6E76Q51467913-9FE46069-960F-4216-8EF9-85EEF211CEC1Q54259256-5418EAB6-3040-4E3D-9B9F-092C326ACCF7Q57961214-D3CC9384-DC94-447E-8177-E38CBC3EE313Q79816323-71A4799D-3DEF-433B-B570-59742A440320Q82447756-8B709CB6-CF7D-4E05-A25B-867C9396C0F3Q83395864-007C1152-6A80-43A1-8EDC-C56F773D1F2AQ83768976-932DDB38-2801-48E4-9F86-8ABBCDCE9619Q84274711-E8396A93-B601-4EC1-8B46-78B363E0C910Q84290430-A26850BE-336C-4463-9E75-7681F8263BE4Q84466105-85E8D8B6-A9D0-4F65-9A82-21A9324E851DQ86054484-ECE20960-328C-4E45-82E1-2B4AE7A4B558Q87425889-222380A3-41D3-487A-9D43-4AE0CA39598DQ87739264-AD2F6822-1994-4EA2-873C-4309A3B69762
P50
description
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
name
Debasis Chakrabarty
@ast
Debasis Chakrabarty
@en
Debasis Chakrabarty
@es
Debasis Chakrabarty
@nl
Debasis Chakrabarty
@sl
type
label
Debasis Chakrabarty
@ast
Debasis Chakrabarty
@en
Debasis Chakrabarty
@es
Debasis Chakrabarty
@nl
Debasis Chakrabarty
@sl
altLabel
Debasis
@en
prefLabel
Debasis Chakrabarty
@ast
Debasis Chakrabarty
@en
Debasis Chakrabarty
@es
Debasis Chakrabarty
@nl
Debasis Chakrabarty
@sl
P108
P1053
H-4102-2017
P106
P1153
7102295139
P31
P3829
P496
0000-0003-4795-199X