Page last updated: 2024-08-22

cadmium and abscisic acid

cadmium has been researched along with abscisic acid in 60 studies

Research

Studies (60)

Timeframe	Studies, this research(%)	All Research%
pre-1990	0 (0.00)	18.7374
1990's	0 (0.00)	18.2507
2000's	5 (8.33)	29.6817
2010's	30 (50.00)	24.3611
2020's	25 (41.67)	2.80

Authors

Authors	Studies
Erdei, L; Fediuc, E; Lips, SH	1
Humbeck, K; Kuschk, P; Ouelhadj, A	1
Huang, YX; Liao, BH; Liu, SC; Wang, ZK; Xiao, LT	1
Dunham, SJ; Jiang, RF; McGrath, SP; Zhao, FJ	1
Sivaci, A; Sivaci, ER; Sökmen, M	1
Lian, C; Liu, X; Peng, K; Shen, Z; Wang, A	1
Albacete, A; Barba-Espín, G; Cantero-Navarro, E; Díaz-Vivancos, P; Han, RM; Hernández, JA; Lefèvre, I; Lutts, S; Pérez-Alfocea, F; Quinet, M; Ruan, CJ	1
Aksoy, E; Jeong, IS; Koiwa, H	1
Abollino, O; Bogani, P; Buiatti, M; Capodaglio, G; Del Bubba, M; Doumett, S; Fuoco, R; Giannarelli, S; Muscatello, B; Spiriti, MM; Turetta, C; Zangrando, R; Zelano, V	1
Coates, KE; Emery, RJ; Galer, AL; Hayward, AR; Hutchinson, TC	1
Repkina, NS; Talanova, VV; Titov, AF; Topchieva, LV	1
Bezrukova, MV; Fatkhutdinova, RA; Murzabaev, AR; Shakirova, FM; Yuldashev, RA	1
Feng, L; Leng, Y; Li, SW; Zeng, XY	1
Jung, HY; Khan, AL; Kim, DH; Kim, JG; Kim, KM; Kim, YH; Lee, IJ; Lee, SY; Shin, JH; Waqas, M	1
Ding, JJ; Li, L; Liu, SL; Pan, YZ	1
Chiatante, D; De Zio, E; Delfine, S; Grosso, A; Lomaglio, T; Marra, M; Morabito, D; Rocco, M; Scippa, GS; Trupiano, D	1
Campos, ML; Carvalho, RF; D'Amico-Damião, V; Gavassi, MA; Sneideris, LC	1
Lai, Y; Liang, D; Liao, M; Lin, L; Luo, L; Lv, X; Tang, Y; Wang, J; Wang, X; Wang, Z; Xia, H	1
Abdelly, C; Corrales, I; Ghnaya, T; Gunsè, B; Llugany, M; Poschenrieder, C; Wali, M	1
Azevedo, RA; Carvalho, RF; Gratão, PL; Martinelli, AP; Pompeu, GB; Rossi, ML; Vilhena, MB	1
Berezhneva, Z; Chemeris, A; Kudoyarova, G; Kuluev, B; Mikhaylova, E; Nikonorov, Y; Postrigan, B	1
Chen, Y; Cheng, D; Hong, C; Tan, M; Zhang, G; Zhu, D	1
Deng, Z; Niu, J; Shen, G	1
Ge, Y; Xu, Z; Yang, G; Zhang, W; Zhao, Y	1
Du, S; Lu, Q; Pan, W; Song, B; Wu, C; Xu, Q; Xue, W; Zhang, R	1
Jupa, R; Kováč, J; Li, B; Li, J; Li, Q; Li, T; Liang, Y; Liu, Y; Luo, J; Lux, A; Tao, Q; Wang, C; Wu, K	1
Chen, X; Jiang, M; Li, L; Tan, M; Yu, H; Zhang, G; Zhang, J; Zhu, Q	1
Gao, W; Guo, J; Li, C; Liu, H; Nie, Z; Qin, S; Rengel, Z; Zhao, P	1
Ju, Q; Li, W; Tran, LP; Wang, R; Xu, J; Zhang, P	1
Chen, W; He, X; Li, B; Li, P; Li, Y; Wang, Y; Xu, S; Yan, K	1
Du, ST; Li, HY; Liu, HJ; Lu, Q; Pan, W; Xu, QR; Yang, YH; Zhang, RR	1
Baigorri, R; Brady, SM; Casimiro, I; Castellano, MM; de Lorenzo, L; Del Pozo, JC; González-García, MP; Hunt, AG; Manzano, C; Navarro-Neila, S; Saez, A; Silva-Navas, J; Téllez-Robledo, B; Toribio, R	1
Fu, X; Gao, J; Han, H; Huang, Y; Li, Z; Peng, R; Tian, Y; Wang, B; Wang, L; Xu, J; Yao, Q; Zhang, F; Zhu, Y	1
Cui, G; Dailly, H; Ghnaya, T; Han, R; Lutts, S; Vanpee, B; Zhou, M	1
Al-Shwyeh, HA; Almahasheer, H; Alosaimi, AA; Bilal, S; Imran, M; Khan, AL; Lee, IJ; Rehman, S; Shahzad, R	1
Chen, S; Gu, M; He, B; Li, Y; Lu, Q; Zheng, F	1
Amee, M; Chen, K; Chen, L; Du, D; Hou, H; Niu, H; Ran, S; Sun, J; Tang, D; Wassie, M; Wei, Z; Xing, W; Yao, J; Zhu, H	1
Du, ST; Liu, HJ; Pan, W; Shentu, JL; Wang, ST; Weng, YN; Xu, QR; You, Y	1
Han, M; Shi, S; Song, G; Wang, B	1
He, LF; Leng, Y; Li, SW; Li, Y; Ma, YH	1
Bai, J; Gu, S; Sun, M; Wang, M; Wang, X; Wei, T; Wei, W; Zhao, Y; Zhu, L	1
Dong, Q; Jupa, R; Li, B; Li, T; Liu, Y; Tao, Q; Wang, C; Xu, Q; Yang, X; Yin, J; Yuan, S	1
Grabowska, A; Michniewska, B; Orzechowski, S; Zdunek-Zastocka, E	1
Leng, Y; Li, SW; Li, Y; Song, YJ	1
Du, S; Li, Z; Liu, H; Liu, L; Sun, X; Wang, Y; Wu, J	1
Chen, J; Chen, K; Chen, P; Gao, G; Qiu, X; Wang, X; Yu, C; Zhu, A	1
Cao, Y; Fan, J; Guo, M; Li, C; Li, T; Ma, X; Zhu, Y	1
Guo, J; Jiang, M; Li, N; Li, S; Li, X; Liu, L	1
Du, S; Guo, EY; Liu, H; Sun, X; Wang, Y; You, Y; Zhang, S	1
Hu, N; Li, B; Ma, X; Meng, Y; Shang, X; Si, E; Wang, H; Wang, J; Yang, K; Yao, L	1
Huang, J; Jing, H; Meng, Y; Shen, R; Wu, Q; Zhu, X	1
Dong, X; Fan, J; Li, C; Li, T; Ruan, Y; Zhang, A; Zhou, L; Zhu, J; Zhu, Y	1
Chao, H; Chen, H; Cui, Q; Cui, Y; Duan, C; Fang, L; Liu, D; Qiu, T; Wang, J; Wang, Y; Zhao, S; Zhu, X	1
Dang, DH; Emery, RJN; Nguyen, NH; Nguyen, QT	1
Fan, C; Gao, S; Hu, J; Jiang, B; Jiang, M; Lei, T; Li, X; Liu, Y; Pan, Y; Wang, Z; Xiao, X; Yang, L; Yu, X; Zheng, Y; Zhou, Y	1
Du, S; Fang, Z; Liu, H; Liu, L; Wang, H; Wang, Y; Xiang, X; Xie, M; Zheng, H; Zhu, Y	1
Du, S; Fang, Z; Liu, H; Liu, L; Sun, X; Tian, J; Tian, Z; Wang, S; Xiang, X; Zheng, H; Zhu, Y	1
Agathokleous, E; Chen, M; Fan, D; Han, J; Sun, Y; Zhu, F; Zhu, Y	1
Chen, J; He, Y; Li, B; Liang, X; Wang, L; Zhan, F	1
Du, S; Fang, Z; Liu, H; Wang, H; Wang, Y; Xie, M; Zhu, Y	1

Reviews

1 review(s) available for cadmium and abscisic acid

Article	Year
Proteomic analysis reveals molecular mechanism of Cd Journal of proteomics, 2022, Oct-30, Volume: 269 Topics: Abscisic Acid; Cadmium; Chenopodiaceae; Glutathione; Phosphoenolpyruvate; Plant Leaves; Proteome; Proteomics; Salt-Tolerant Plants; Seedlings; Transferases	2022

Other Studies

59 other study(ies) available for cadmium and abscisic acid

Article	Year
O-acetylserine (thiol) lyase activity in Phragmites and Typha plants under cadmium and NaCl stress conditions and the involvement of ABA in the stress response. Journal of plant physiology, 2005, Volume: 162, Issue:8 Topics: Abscisic Acid; Cadmium; Carbon-Oxygen Lyases; Enzyme Activation; Plant Leaves; Plant Roots; Poaceae; Sodium Chloride; Species Specificity; Typhaceae	2005
Heavy metal stress and leaf senescence induce the barley gene HvC2d1 encoding a calcium-dependent novel C2 domain-like protein. The New phytologist, 2006, Volume: 170, Issue:2 Topics: Abscisic Acid; Amino Acid Sequence; Cadmium; Calcium; Chromium; Copper; Gene Expression Regulation, Plant; Hordeum; Molecular Sequence Data; Nuclear Proteins; Paraquat; Phylogeny; Plant Leaves; Plant Proteins; Reactive Oxygen Species; RNA, Messenger; Sequence Alignment; Signal Transduction	2006
[Effects of Cd2+ on seedling growth and phytohormone contents of Glycine max]. Huan jing ke xue= Huanjing kexue, 2006, Volume: 27, Issue:7 Topics: Abscisic Acid; Cadmium; Gibberellins; Glycine max; Indoleacetic Acids; Plant Growth Regulators; Seedlings; Zeatin	2006
Cadmium uptake, translocation and tolerance in the hyperaccumulator Arabidopsis halleri. The New phytologist, 2006, Volume: 172, Issue:4 Topics: Abscisic Acid; Arabidopsis; Cadmium; Cadmium Radioisotopes; Iron; Plant Roots; Plant Shoots; Zinc; Zinc Radioisotopes	2006
Changes in antioxidant activity, total phenolic and abscisic acid constituents in the aquatic plants Myriophyllum spicatum L. and Myriophyllum triphyllum Orchard exposed to cadmium. Ecotoxicology (London, England), 2007, Volume: 16, Issue:5 Topics: Abscisic Acid; Antioxidants; Biodegradation, Environmental; Cadmium; Humans; Inhibitory Concentration 50; Magnoliopsida; Phenols; Water Pollutants, Chemical	2007
Cadmium accumulation and distribution in populations of Phytolacca americana L. and the role of transpiration. Chemosphere, 2010, Volume: 78, Issue:9 Topics: Abscisic Acid; Biodegradation, Environmental; Cadmium; Photosynthesis; Phytolacca americana; Plant Growth Regulators; Plant Leaves; Plant Roots; Plant Shoots; Plant Transpiration; Polyethylene Glycols; Soil Pollutants	2010
Antioxidant enzyme activities and hormonal status in response to Cd stress in the wetland halophyte Kosteletzkya virginica under saline conditions. Physiologia plantarum, 2013, Volume: 147, Issue:3 Topics: Abscisic Acid; alpha-Tocopherol; Amino Acids, Cyclic; Antioxidants; Cadmium; Chlorophyll; Electron Transport; Glutathione; Glutathione Reductase; Malvaceae; Oxidative Stress; Photosynthesis; Photosystem II Protein Complex; Plant Growth Regulators; Plant Leaves; Plant Shoots; Salinity; Salt-Tolerant Plants; Seedlings; Sodium Chloride; Wetlands	2013
Loss of function of Arabidopsis C-terminal domain phosphatase-like1 activates iron deficiency responses at the transcriptional level. Plant physiology, 2013, Volume: 161, Issue:1 Topics: Abscisic Acid; Adaptation, Physiological; Alleles; Arabidopsis; Arabidopsis Proteins; Biological Transport; Cadmium; Cation Transport Proteins; Enzyme Activation; FMN Reductase; Gene Expression Profiling; Gene Expression Regulation, Plant; Genes, Plant; Homeostasis; Iron; Mutation; Phosphoprotein Phosphatases; Plant Roots; Plant Shoots; RNA-Binding Proteins; RNA, Plant; Signal Transduction; Stress, Physiological; Time Factors; Transcription Factors; Transcription, Genetic; Up-Regulation	2013
Response to metal stress of Nicotiana langsdorffii plants wild-type and transgenic for the rat glucocorticoid receptor gene. Journal of plant physiology, 2013, May-01, Volume: 170, Issue:7 Topics: Abscisic Acid; Animals; Cadmium; Chlorogenic Acid; Chromium; Gene Expression Regulation, Plant; Glucocorticoids; Indoleacetic Acids; Metabolomics; Metals, Heavy; Nicotiana; Plant Growth Regulators; Plant Leaves; Plants, Genetically Modified; Polyphenols; Rats; Receptors, Glucocorticoid; Salicylic Acid; Shikimic Acid; Stress, Physiological	2013
Chelator profiling in Deschampsia cespitosa (L.) Beauv. Reveals a Ni reaction, which is distinct from the ABA and cytokinin associated response to Cd. Plant physiology and biochemistry : PPB, 2013, Volume: 64 Topics: Abscisic Acid; Adaptation, Physiological; Azetidinecarboxylic Acid; Cadmium; Chelating Agents; Cytokinins; Nickel; Phytochelatins; Plant Growth Regulators; Plant Roots; Poaceae; Signal Transduction; Stress, Physiological	2013
Cold-responsive COR/LEA genes participate in the response of wheat plants to heavy metals stress. Doklady biological sciences : proceedings of the Academy of Sciences of the USSR, Biological sciences sections, 2013, Volume: 448 Topics: Abscisic Acid; Cadmium; Cold-Shock Response; Gene Expression Regulation, Plant; Genes, Plant; Plant Proteins; Triticum	2013
Involvement of lectin in the salicylic acid-induced wheat tolerance to cadmium and the role of endogenous ABA in the regulation of its level. Doklady biological sciences : proceedings of the Academy of Sciences of the USSR, Biological sciences sections, 2013, Volume: 448 Topics: Abscisic Acid; Cadmium; Drug Resistance; Salicylic Acid; Seedlings; Triticum; Wheat Germ Agglutinins	2013
Involvement of abscisic acid in regulating antioxidative defense systems and IAA-oxidase activity and improving adventitious rooting in mung bean [Vigna radiata (L.) Wilczek] seedlings under cadmium stress. Environmental science and pollution research international, 2014, Volume: 21, Issue:1 Topics: Abscisic Acid; Ascorbate Peroxidases; Ascorbic Acid; Cadmium; Catalase; Fabaceae; Glutathione; Oxidation-Reduction; Peroxidase; Peroxidases; Plant Roots; Seedlings; Soil Pollutants; Stress, Physiological; Superoxide Dismutase	2014
Silicon mitigates heavy metal stress by regulating P-type heavy metal ATPases, Oryza sativa low silicon genes, and endogenous phytohormones. BMC plant biology, 2014, Jan-09, Volume: 14 Topics: Abscisic Acid; Adenosine Triphosphatases; Cadmium; Copper; Cyclopentanes; Metals, Heavy; Oryza; Oxylipins; Plant Proteins; Salicylic Acid; Silicon	2014
[Effects of exogenous AsA and GSH on the growth of Dianthus chinensis seedlings exposed to Cd]. Ying yong sheng tai xue bao = The journal of applied ecology, 2014, Volume: 25, Issue:2 Topics: Abscisic Acid; Antioxidants; Cadmium; Dianthus; Glutathione; Oxidation-Reduction; Plant Roots; Reactive Oxygen Species; Seedlings	2014
Effect of short-term cadmium stress on Populus nigra L. detached leaves. Journal of plant physiology, 2015, Jun-15, Volume: 182 Topics: Abscisic Acid; Cadmium; Cytokinins; Electron Transport; Ethylenes; Gibberellins; Hydrogen Peroxide; Indoleacetic Acids; Photosystem II Protein Complex; Plant Growth Regulators; Populus; Proteome; Stress, Physiological	2015
Effects of hormonal priming on seed germination of pigeon pea under cadmium stress. Anais da Academia Brasileira de Ciencias, 2015, Volume: 87, Issue:3 Topics: Abscisic Acid; Cadmium; Cytokinins; Ethylenes; Germination; Gibberellins; Indoleacetic Acids; Pisum sativum; Plant Growth Regulators; Seeds	2015
The effects of abscisic acid (ABA) addition on cadmium accumulation of two ecotypes of Solanum photeinocarpum. Environmental monitoring and assessment, 2016, Volume: 188, Issue:3 Topics: Abscisic Acid; Biodegradation, Environmental; Biomass; Cadmium; Chlorophyll; Ecotype; Environmental Monitoring; Mining; Soil Pollutants; Solanum	2016
High salinity helps the halophyte Sesuvium portulacastrum in defense against Cd toxicity by maintaining redox balance and photosynthesis. Planta, 2016, Volume: 244, Issue:2 Topics: Abscisic Acid; Aizoaceae; Cadmium; Chlorophyll; Chloroplasts; Cyclopentanes; Glutathione; Oxidation-Reduction; Oxylipins; Photosynthesis; Plant Transpiration; Proline; Salicylic Acid; Salt-Tolerant Plants; Sodium Chloride; Stress, Physiological; Water	2016
Abscisic acid-deficient sit tomato mutant responses to cadmium-induced stress. Protoplasma, 2017, Volume: 254, Issue:2 Topics: Abscisic Acid; Biomass; Cadmium; Catalase; Chlorophyll; Chloroplasts; Genes, Plant; Lipid Peroxidation; Malondialdehyde; Meristem; Mutation; Plant Leaves; Plant Proteins; Plant Shoots; Solanum lycopersicum; Stress, Physiological; Superoxide Dismutase	2017
Expression profiles and hormonal regulation of tobacco NtEXGT gene and its involvement in abiotic stress response. Plant physiology and biochemistry : PPB, 2017, Volume: 111 Topics: Abscisic Acid; Acetates; Adaptation, Physiological; Cadmium; Cold Temperature; Cyclopentanes; Gene Expression Profiling; Gene Expression Regulation, Plant; Genes, Plant; Nicotiana; Oxylipins; Phylogeny; Plant Growth Regulators; Plant Leaves; Plants, Genetically Modified; Pyridones; RNA, Messenger; Seedlings; Sodium Chloride; Stress, Physiological	2017
The role of ZmWRKY4 in regulating maize antioxidant defense under cadmium stress. Biochemical and biophysical research communications, 2017, Jan-22, Volume: 482, Issue:4 Topics: Abscisic Acid; Amino Acid Motifs; Antioxidants; Ascorbate Peroxidases; Cadmium; Cell Nucleus; Gene Expression Regulation, Plant; Gene Silencing; Promoter Regions, Genetic; Reactive Oxygen Species; RNA Interference; RNA, Double-Stranded; Stress, Physiological; Superoxide Dismutase; Transcription Factors; Up-Regulation; Zea mays	2017
Abscisic acid treatment alleviates cadmium toxicity in purple flowering stalk (Brassica campestris L. ssp. chinensis var. purpurea Hort.) seedlings. Plant physiology and biochemistry : PPB, 2017, Volume: 118 Topics: Abscisic Acid; Brassica; Cadmium; Chlorophyll; Hydrogen Peroxide; Plant Proteins; Plant Roots; Seedlings; Superoxide Dismutase	2017
The walnut JrVHAG1 gene is involved in cadmium stress response through ABA-signal pathway and MYB transcription regulation. BMC plant biology, 2018, 01-22, Volume: 18, Issue:1 Topics: Abscisic Acid; Arabidopsis; Cadmium; Cadmium Chloride; Gene Expression Regulation, Plant; Juglans; Plant Leaves; Plant Proteins; Plant Roots; Plants, Genetically Modified; Signal Transduction; Trans-Activators; Vacuolar Proton-Translocating ATPases	2018
Inoculation with Bacillus subtilis and Azospirillum brasilense Produces Abscisic Acid That Reduces Irt1-Mediated Cadmium Uptake of Roots. Journal of agricultural and food chemistry, 2018, May-23, Volume: 66, Issue:20 Topics: Abscisic Acid; Agricultural Inoculants; Arabidopsis; Arabidopsis Proteins; Azospirillum brasilense; Bacillus subtilis; Biological Transport; Cadmium; Cation Transport Proteins; Plant Roots; Soil Pollutants	2018
Abscisic acid-mediated modifications of radial apoplastic transport pathway play a key role in cadmium uptake in hyperaccumulator Sedum alfredii. Plant, cell & environment, 2019, Volume: 42, Issue:5 Topics: Abscisic Acid; Biological Transport; Cadmium; Gene Expression Regulation, Plant; Lipids; Plant Growth Regulators; Plant Roots; Sedum	2019
Comprehensive Analysis of the Cadmium Tolerance of Abscisic Acid-, Stress- and Ripening-Induced Proteins (ASRs) in Maize. International journal of molecular sciences, 2019, Jan-01, Volume: 20, Issue:1 Topics: Abscisic Acid; Cadmium; Cell Nucleus; Cytoplasm; Plant Leaves; Plant Proteins; Stress, Physiological; Zea mays	2019
Cadmium stress increases antioxidant enzyme activities and decreases endogenous hormone concentrations more in Cd-tolerant than Cd-sensitive wheat varieties. Ecotoxicology and environmental safety, 2019, May-15, Volume: 172 Topics: Abscisic Acid; Cadmium; Catalase; Gibberellins; Indoleacetic Acids; Malondialdehyde; Peroxidases; Photosynthesis; Plant Growth Regulators; Plant Leaves; Stress, Physiological; Superoxide Dismutase; Triticum; Zeatin	2019
The R2R3-MYB Transcription Factor MYB49 Regulates Cadmium Accumulation. Plant physiology, 2019, Volume: 180, Issue:1 Topics: Abscisic Acid; Arabidopsis; Arabidopsis Proteins; Basic Helix-Loop-Helix Transcription Factors; Basic-Leucine Zipper Transcription Factors; Cadmium; Feedback, Physiological; Gene Expression Regulation, Plant; Plants, Genetically Modified; Promoter Regions, Genetic; Transcription Factors; Transcription Factors, General	2019
Soil high Cd exacerbates the adverse impact of elevated O Ecotoxicology and environmental safety, 2019, Jun-15, Volume: 174 Topics: Abscisic Acid; Air Pollutants; Biomass; Cadmium; Malondialdehyde; Oxidative Stress; Ozone; Photosynthesis; Populus; Soil Pollutants	2019
Abscisic acid-generating bacteria can reduce Cd concentration in pakchoi grown in Cd-contaminated soil. Ecotoxicology and environmental safety, 2019, Aug-15, Volume: 177 Topics: Abscisic Acid; Antioxidants; Azospirillum brasilense; Bacillus subtilis; Brassica; Cadmium; Environmental Pollution; Hydrogen Peroxide; Malondialdehyde; Soil; Soil Microbiology; Soil Pollutants; Vegetables	2019
The polyadenylation factor FIP1 is important for plant development and root responses to abiotic stresses. The Plant journal : for cell and molecular biology, 2019, Volume: 99, Issue:6 Topics: 5' Untranslated Regions; Abscisic Acid; Alleles; Arabidopsis; Arabidopsis Proteins; Cadmium; Cell Division; Gene Expression Regulation, Plant; mRNA Cleavage and Polyadenylation Factors; Mutation; Phenotype; Plant Roots; Polyadenylation; Protein Biosynthesis; RNA, Messenger; Salt Stress	2019
Overexpression of a trypanothione synthetase gene from Trypanosoma cruzi, TcTrys, confers enhanced tolerance to multiple abiotic stresses in rice. Gene, 2019, Aug-20, Volume: 710 Topics: Abscisic Acid; Amide Synthases; Cadmium; Droughts; Gene Expression Regulation, Plant; Oryza; Plants, Genetically Modified; Protozoan Proteins; Salt Tolerance; Stress, Physiological; Trypanosoma cruzi; Up-Regulation	2019
The cytokinin trans-zeatine riboside increased resistance to heavy metals in the halophyte plant species Kosteletzkya pentacarpos in the absence but not in the presence of NaCl. Chemosphere, 2019, Volume: 233 Topics: Abscisic Acid; Cadmium; Cytokinins; Glutathione; Hibiscus; Photosynthesis; Phytochelatins; Plant Development; Plant Growth Regulators; Salicylic Acid; Salinity; Seedlings; Sodium Chloride; Water Pollutants, Chemical; Wetlands; Zinc	2019
Amelioration of heavy metal stress by endophytic Bacillus amyloliquefaciens RWL-1 in rice by regulating metabolic changes: potential for bacterial bioremediation. The Biochemical journal, 2019, 11-15, Volume: 476, Issue:21 Topics: Abscisic Acid; Bacillus amyloliquefaciens; Biodegradation, Environmental; Cadmium; Chromium; Copper; Endophytes; Lead; Metals, Heavy; Oryza; Seedlings; Soil Pollutants	2019
Exogenous abscisic acid (ABA) promotes cadmium (Cd) accumulation in Sedum alfredii Hance by regulating the expression of Cd stress response genes. Environmental science and pollution research international, 2020, Volume: 27, Issue:8 Topics: Abscisic Acid; Cadmium; Plant Roots; Sedum; Soil Pollutants; Stress, Physiological; Zinc	2020
Phytohormones-induced senescence efficiently promotes the transport of cadmium from roots into shoots of plants: A novel strategy for strengthening of phytoremediation. Journal of hazardous materials, 2020, 04-15, Volume: 388 Topics: Abscisic Acid; Biodegradation, Environmental; Biological Transport; Cadmium; Cellular Senescence; Festuca; Mustard Plant; Plant Growth Regulators; Plant Roots; Plant Shoots; Salicylic Acid; Soil Pollutants	2020
Abscisic acid (ABA)-importing transporter 1 (AIT1) contributes to the inhibition of Cd accumulation via exogenous ABA application in Arabidopsis. Journal of hazardous materials, 2020, 06-05, Volume: 391 Topics: Abscisic Acid; Anion Transport Proteins; Arabidopsis; Arabidopsis Proteins; Cadmium; Cation Transport Proteins; Gene Expression Regulation, Plant; Plant Proteins; Tungsten Compounds	2020
Comparative study of alleviation effects of DMTU and PCIB on root growth inhibition in two tall fescue varieties under cadmium stress. Ecotoxicology and environmental safety, 2020, Jun-15, Volume: 196 Topics: Abscisic Acid; Adaptation, Physiological; Cadmium; Clofibric Acid; Festuca; Hydrogen Peroxide; Indoleacetic Acids; Oxidative Stress; Plant Roots; Soil Pollutants; Thiourea	2020
Abscisic acid modulates differential physiological and biochemical responses of roots, stems, and leaves in mung bean seedlings to cadmium stress. Environmental science and pollution research international, 2021, Volume: 28, Issue:5 Topics: Abscisic Acid; Antioxidants; Cadmium; Catalase; Plant Leaves; Plant Roots; Seedlings; Superoxide Dismutase; Vigna	2021
The kinase CIPK11 functions as a positive regulator in cadmium stress response in Arabidopsis. Gene, 2021, Mar-10, Volume: 772 Topics: Abscisic Acid; Arabidopsis; Arabidopsis Proteins; Cadmium; Gene Expression Regulation, Plant; Mutation; Plant Roots; Plants, Genetically Modified; Protein Serine-Threonine Kinases; Reactive Oxygen Species; Stress, Physiological	2021
Abscisic acid-mediated modifications in water transport continuum are involved in cadmium hyperaccumulation in Sedum alfredii. Chemosphere, 2021, Volume: 268 Topics: Abscisic Acid; Cadmium; Plant Roots; Sedum; Water	2021
Proline Concentration and Its Metabolism Are Regulated in a Leaf Age Dependent Manner But Not by Abscisic Acid in Pea Plants Exposed to Cadmium Stress. Cells, 2021, 04-20, Volume: 10, Issue:4 Topics: Abscisic Acid; Base Sequence; Biological Transport; Cadmium; Chlorophyll; Gene Expression Regulation, Plant; Genes, Plant; Malondialdehyde; Pisum sativum; Plant Leaves; Proline; RNA, Messenger; Stress, Physiological	2021
24-epibrassinolide improves differential cadmium tolerance of mung bean roots, stems, and leaves via amending antioxidative systems similar to that of abscisic acid. Environmental science and pollution research international, 2021, Volume: 28, Issue:37 Topics: Abscisic Acid; Antioxidants; Brassinosteroids; Cadmium; Catalase; Plant Leaves; Plant Roots; Seedlings; Steroids, Heterocyclic; Superoxide Dismutase; Vigna	2021
Abscisic acid-catabolizing bacteria: A useful tool for enhancing phytoremediation. The Science of the total environment, 2022, Mar-15, Volume: 812 Topics: Abscisic Acid; Biodegradation, Environmental; Cadmium; Metals, Heavy; Sedum; Soil; Soil Pollutants	2022
Regulating role of abscisic acid on cadmium enrichment in ramie (Boehmeria nivea L.). Scientific reports, 2021, 11-11, Volume: 11, Issue:1 Topics: Abscisic Acid; Boehmeria; Cadmium; Gene Expression Regulation, Plant; Plant Growth Regulators; Soil Pollutants; Stress, Physiological	2021
Changes in antioxidant system and sucrose metabolism in maize varieties exposed to Cd. Environmental science and pollution research international, 2022, Volume: 29, Issue:43 Topics: Abscisic Acid; Antioxidants; Cadmium; Catalase; Gibberellins; Lipoxygenases; Malondialdehyde; Peroxidases; Proline; Sucrose; Superoxide Dismutase; Superoxides; Zea mays	2022
Low temperature tolerance is depressed in wild-type and abscisic acid-deficient mutant barley grown in Cd-contaminated soil. Journal of hazardous materials, 2022, 05-15, Volume: 430 Topics: Abscisic Acid; Antioxidants; Cadmium; Hordeum; Reactive Oxygen Species; Soil; Temperature	2022
Different pathways for exogenous ABA-mediated down-regulation of cadmium accumulation in plants under different iron supplies. Journal of hazardous materials, 2022, 10-15, Volume: 440 Topics: Abscisic Acid; Cadmium; Down-Regulation; Gene Expression Regulation, Plant; Iron; Plant Roots	2022
Exogenous abscisic acid alleviates Cd toxicity in Arabidopsis thaliana by inhibiting Cd uptake, translocation and accumulation, and promoting Cd chelation and efflux. Plant science : an international journal of experimental plant biology, 2022, Volume: 325 Topics: Abscisic Acid; Adenosine Triphosphatases; Arabidopsis; Arabidopsis Proteins; ATP-Binding Cassette Transporters; Cadmium; Gene Expression Regulation, Plant; Homeodomain Proteins; Plant Roots	2022
Genome-Wide Investigation and Characterization of SWEET Gene Family with Focus on Their Evolution and Expression during Hormone and Abiotic Stress Response in Maize. Genes, 2022, Sep-20, Volume: 13, Issue:10 Topics: Abscisic Acid; Cadmium; Carbon; Gene Expression Regulation, Plant; Hormones; Membrane Transport Proteins; Multigene Family; Phylogeny; Plant Proteins; Sodium Chloride; Stress, Physiological; Sugars; Zea mays	2022
Synergistic interplay between Azospirillum brasilense and exogenous signaling molecule H Journal of hazardous materials, 2023, 02-15, Volume: 444, Issue:Pt B Topics: Abscisic Acid; Azospirillum brasilense; Brassica; Cadmium; Crops, Agricultural; Soil	2023
Phytohormones enhance heavy metal responses in Euglena gracilis: Evidence from uptake of Ni, Pb and Cd and linkages to hormonomic and metabolomic dynamics. Environmental pollution (Barking, Essex : 1987), 2023, Mar-01, Volume: 320 Topics: Abscisic Acid; Cadmium; Cytokinins; Euglena gracilis; Lead; Metals, Heavy; Plant Growth Regulators; Plants	2023
Abscisic acid (ABA) alleviates cadmium toxicity by enhancing the adsorption of cadmium to root cell walls and inducing antioxidant defense system of Cosmos bipinnatus. Ecotoxicology and environmental safety, 2023, Volume: 261 Topics: Abscisic Acid; Adsorption; Antioxidants; Asteraceae; Cadmium; Cell Wall; Plant Roots	2023
N fertilizers promote abscisic acid-catabolizing bacteria to enhance heavy metal phytoremediation from metalliferous soils. The Science of the total environment, 2023, Oct-10, Volume: 894 Topics: Abscisic Acid; Bacteria; Biodegradation, Environmental; Cadmium; Fertilizers; Lead; Metals, Heavy; Nitrogen; Soil; Soil Pollutants	2023
Synergistic interplay between ABA-generating bacteria and biochar in the reduction of heavy metal accumulation in radish, pakchoi, and tomato. Environmental pollution (Barking, Essex : 1987), 2023, Sep-15, Volume: 333 Topics: Abscisic Acid; Bacteria; Cadmium; Humans; Metals, Heavy; Raphanus; Soil; Soil Pollutants; Solanum lycopersicum	2023
The role of the ABF1 gene in regulation of Cd-induced hormesis in Arabidopsis thaliana. Journal of hazardous materials, 2023, 09-15, Volume: 458 Topics: Abscisic Acid; Antioxidants; Arabidopsis; Cadmium; Hormesis	2023
An arbuscular mycorrhizal fungus differentially regulates root traits and cadmium uptake in two maize varieties. Ecotoxicology and environmental safety, 2023, Oct-01, Volume: 264 Topics: Abscisic Acid; Cadmium; Lignin; Minerals; Mycorrhizae; Plant Growth Regulators; Plant Roots; Soil; Soil Pollutants; Zea mays	2023
ABA-metabolizing bacteria and rhamnolipids as valuable allies for enhancing phytoremediation efficiency in heavy metal-contaminated soils. The Science of the total environment, 2023, Dec-20, Volume: 905 Topics: Abscisic Acid; Bacteria; Biodegradation, Environmental; Cadmium; Metals, Heavy; Soil; Soil Pollutants	2023