| [1] |
Waadt R, Seller CA, Hsu PK, Takahashi Y, Munemasa S, et al. 2022. Plant hormone regulation of abiotic stress responses. |
| [2] |
Waadt R, Hitomi K, Nishimura N, Hitomi C, Adams SR, et al. 2014. FRET-based reporters for the direct visualization of abscisic acid concentration changes and distribution in Arabidopsis. |
| [3] |
Jones AM, Danielson JA, Manojkumar SN, Lanquar V, Grossmann G, et al. 2014. Abscisic acid dynamics in roots detected with genetically encoded FRET sensors. |
| [4] |
Herud-Sikimić O, Stiel AC, Kolb M, Shanmugaratnam S, Berendzen KW, et al. 2021. A biosensor for the direct visualization of auxin. |
| [5] |
Bukhamsin AH, Shetty SS, Fakeih E, Martinez MS, Lerma C, et al. 2025. In vivo dynamics of indole- and phenol-derived plant hormones: Long-term, continuous, and minimally invasive phytohormone sensor. |
| [6] |
Yoshida T, Fernie AR. 2024. Hormonal regulation of plant primary metabolism under drought. |
| [7] |
Yu Z, Duan X, Luo L, Dai S, Ding Z, et al. 2020. How plant hormones mediate salt stress responses. |
| [8] |
Castroverde CDM, Dina D. 2021. Temperature regulation of plant hormone signaling during stress and development. |
| [9] |
Hussain S, Brookbank BP, Nambara E. 2020. Hydrolysis of abscisic acid glucose ester occurs locally and quickly in response to dehydration. |
| [10] |
Cutler SR, Rodriguez PL, Finkelstein RR, Abrams SR. 2010. Abscisic acid: emergence of a core signaling network. |
| [11] |
Raghavendra AS, Gonugunta VK, Christmann A, Grill E. 2010. ABA perception and signalling. |
| [12] |
Saruhashi M, Kumar Ghosh T, Arai K, Ishizaki Y, Hagiwara K, et al. 2015. Plant Raf-like kinase integrates abscisic acid and hyperosmotic stress signaling upstream of SNF1-related protein kinase2. |
| [13] |
Katsuta S, Masuda G, Bak H, Shinozawa A, Kamiyama Y, et al. 2020. Arabidopsis Raf-like kinases act as positive regulators of subclass III SnRK2 in osmostress signaling. |
| [14] |
Lin Z, Li Y, Zhang Z, Liu X, Hsu CC, et al. 2020. A RAF-SnRK2 kinase cascade mediates early osmotic stress signaling in higher plants. |
| [15] |
Soma F, Takahashi F, Suzuki T, Shinozaki K, Yamaguchi-Shinozaki K. 2020. Plant Raf-like kinases regulate the mRNA population upstream of ABA-unresponsive SnRK2 kinases under drought stress. |
| [16] |
Takahashi Y, Zhang J, Hsu PK, Ceciliato PHO, Zhang L, et al. 2020. MAP3Kinase-dependent SnRK2-kinase activation is required for abscisic acid signal transduction and rapid osmotic stress response. |
| [17] |
Lin Z, Li Y, Wang Y, Liu X, Ma L, et al. 2021. Initiation and amplification of SnRK2 activation in abscisic acid signaling. |
| [18] |
Soma F, Takahashi F, Kidokoro S, Kameoka H, Suzuki T, et al. 2023. Constitutively active B2 Raf-like kinases are required for drought-responsive gene expression upstream of ABA-activated SnRK2 kinases. |
| [19] |
Boudsocq M, Barbier-Brygoo H, Laurière C. 2004. Identification of nine sucrose nonfermenting 1-related protein kinases 2 activated by hyperosmotic and saline stresses in Arabidopsis thaliana. |
| [20] |
Kobayashi Y, Yamamoto S, Minami H, Kagaya Y, Hattori T. 2004. Differential activation of the rice sucrose nonfermenting1-related protein kinase2 family by hyperosmotic stress and abscisic acid. |
| [21] |
Fujita Y, Yoshida T, Yamaguchi-Shinozaki K. 2013. Pivotal role of the AREB/ABF-SnRK2 pathway in ABRE-mediated transcription in response to osmotic stress in plants. |
| [22] |
Hsu PK, Dubeaux G, Takahashi Y, Schroeder JI. 2021. Signaling mechanisms in abscisic acid-mediated stomatal closure. |
| [23] |
Soma F, Mogami J, Yoshida T, Abekura M, Takahashi F, et al. 2017. ABA-unresponsive SnRK2 protein kinases regulate mRNA decay under osmotic stress in plants. |
| [24] |
Kawa D, Meyer AJ, Dekker HL, Abd-El-Haliem AM, Gevaert K, et al. 2020. SnRK2 protein kinases and mRNA decapping machinery control root development and response to salt. |
| [25] |
Shahzad Z, Tournaire-Roux C, Canut M, Adamo M, Roeder J, et al. 2024. Protein kinase SnRK2.4 is a key regulator of aquaporins and root hydraulics in Arabidopsis. |
| [26] |
Krzywińska E, Bucholc M, Kulik A, Ciesielski A, Lichocka M, et al. 2016. Phosphatase ABI1 and okadaic acid-sensitive phosphoprotein phosphatases inhibit salt stress-activated SnRK2.4 kinase. |
| [27] |
Ruschhaupt M, Mergner J, Mucha S, Papacek M, Doch I, et al. 2019. Rebuilding core abscisic acid signaling pathways of Arabidopsis in yeast. |
| [28] |
Yuan XP, Zhao Y. 2025. SnRK2 kinases sense molecular crowding and form condensates to disrupt ABI1 inhibition. |
| [29] |
McLoughlin F, Galvan-Ampudia CS, Julkowska MM, Caarls L, van der Does D, et al. 2012. The Snf1-related protein kinases SnRK2.4 and SnRK2.10 are involved in maintenance of root system architecture during salt stress. |
| [30] |
Ding Y, Lv J, Shi Y, Gao J, Hua J, et al. 2019. EGR2 phosphatase regulates OST1 kinase activity and freezing tolerance in Arabidopsis. |
| [31] |
Ding Y, Li H, Zhang X, Xie Q, Gong Z, et al. 2015. OST1 kinase modulates freezing tolerance by enhancing ICE1 stability in Arabidopsis. |
| [32] |
Bohn L, Huang J, Weidig S, Yang Z, Heidersberger C, et al. 2024. The temperature sensor TWA1 is required for thermotolerance in Arabidopsis. |
| [33] |
Xu X, Liu H, Praat M, Pizzio GA, Jiang Z, et al. 2025. Stomatal opening under high temperatures is controlled by the OST1-regulated TOT3-AHA1 module. |
| [34] |
Harb A, Krishnan A, Ambavaram MMR, Pereira A. 2010. Molecular and physiological analysis of drought stress in Arabidopsis reveals early responses leading to acclimation in plant growth. |
| [35] |
Mahmud S, Ullah C, Kortz A, Bhattacharyya S, Yu P, et al. 2022. Constitutive expression of JASMONATE RESISTANT 1 induces molecular changes that prime the plants to better withstand drought. |
| [36] |
Marquis V, Smirnova E, Graindorge S, Delcros P, Villette C, et al. 2022. Broad-spectrum stress tolerance conferred by suppressing jasmonate signaling attenuation in Arabidopsis JASMONIC ACID OXIDASE mutants. |
| [37] |
Aleman F, Yazaki J, Lee M, Takahashi Y, Kim AY, et al. 2016. An ABA-increased interaction of the PYL6 ABA receptor with MYC2 transcription factor: a putative link of ABA and JA signaling. |
| [38] |
Jaffe MJ. 1973. Thigmomorphogenesis: The response of plant growth and development to mechanical stimulation. |
| [39] |
Chehab EW, Yao C, Henderson Z, Kim S, Braam J. 2012. Arabidopsis touch-induced morphogenesis is jasmonate mediated and protects against pests. |
| [40] |
Darwish E, Ghosh R, Ontiveros-Cisneros A, Tran HC, Petersson M, et al. 2022. Touch signaling and thigmomorphogenesis are regulated by complementary CAMTA3- and JA-dependent pathways. |
| [41] |
Shih HW, Miller ND, Dai C, Spalding EP, Monshausen GB. 2014. The receptor-like kinase FERONIA is required for mechanical signal transduction in Arabidopsis seedlings. |
| [42] |
Wang L, Ma C, Wang S, Yang F, Sun Y, et al. 2024. Ethylene and jasmonate signaling converge on gibberellin catabolism during thigmomorphogenesis in Arabidopsis. |
| [43] |
Zhu T, Herrfurth C, Xin M, Savchenko T, Feussner I, et al. 2021. Warm temperature triggers JOX and ST2A-mediated jasmonate catabolism to promote plant growth. |
| [44] |
Ortigosa A, Fonseca S, Franco-Zorrilla JM, Fernández-Calvo P, Zander M, et al. 2020. The JA-pathway MYC transcription factors regulate photomorphogenic responses by targeting HY5 gene expression. |
| [45] |
Agrawal R, Sharma M, Dwivedi N, Maji S, Thakur P, et al. 2022. MEDIATOR SUBUNIT17 integrates jasmonate and auxin signaling pathways to regulate thermomorphogenesis. |
| [46] |
Monte I, Ishida S, Zamarreño AM, Hamberg M, Franco-Zorrilla JM, et al. 2018. Ligand-receptor co-evolution shaped the jasmonate pathway in land plants. |
| [47] |
Kneeshaw S, Soriano G, Monte I, Hamberg M, Zamarreño ÁM, et al. 2022. Ligand diversity contributes to the full activation of the jasmonate pathway in Marchantia polymorpha. |
| [48] |
Schmidt V, Skokan R, Depaepe T, Kurtović K, Haluška S, et al. 2024. Phytohormone profiling in an evolutionary framework. |
| [49] |
Senaratna T, Touchell D, Bunn E, Dixon K. 2000. Acetyl salicylic acid (Aspirin) and salicylic acid induce multiple stress tolerance in bean and tomato plants. |
| [50] |
Chu W, Chang S, Lin J, Zhang C, Li J, et al. 2024. Methyltransferase TaSAMT1 mediates wheat freezing tolerance by integrating brassinosteroid and salicylic acid signaling. |
| [51] |
Rossi FR, Gárriz A, Marina M, Pieckenstain FL. 2021. Modulation of polyamine metabolism in Arabidopsis thaliana by salicylic acid. |
| [52] |
Miura K, Okamoto H, Okuma E, Shiba H, Kamada H, et al. 2013. SIZ1 deficiency causes reduced stomatal aperture and enhanced drought tolerance via controlling salicylic acid-induced accumulation of reactive oxygen species in Arabidopsis. |
| [53] |
Castro PH, Couto D, Santos MÂ, Freitas S, Lourenço T, et al. 2022. SUMO E3 ligase SIZ1 connects sumoylation and reactive oxygen species homeostasis processes in Arabidopsis. |
| [54] |
Li S, He L, Yang Y, Zhang Y, Han X, et al. 2024. INDUCER OF CBF EXPRESSION 1 promotes cold-enhanced immunity by directly activating salicylic acid signaling. |
| [55] |
Chinnusamy V, Ohta M, Kanrar S, Lee BH, Hong X, et al. 2003. ICE1: a regulator of cold-induced transcriptome and freezing tolerance in Arabidopsis. |
| [56] |
Kidokoro S, Kim JS, Ishikawa T, Suzuki T, Shinozaki K, Yamaguchi-Shinozaki K. 2020. DREB1A/CBF3 is repressed by transgene-induced DNA methylation in the Arabidopsis ice1-1 mutant. |
| [57] |
Kanaoka MM, Pillitteri LJ, Fujii H, Yoshida Y, Bogenschutz NL, et al. 2008. SCREAM/ICE1 and SCREAM2 specify three cell-state transitional steps leading to Arabidopsis stomatal differentiation. |
| [58] |
Dubois M, Skirycz A, Claeys H, Maleux K, Dhondt S, et al. 2013. ETHYLENE RESPONSE FACTOR6 acts as a central regulator of leaf growth under water-limiting conditions in Arabidopsis. |
| [59] |
Bailey-Serres J, Fukao T, Gibbs DJ, Holdsworth MJ, Lee SC, et al. 2012. Making sense of low oxygen sensing. |
| [60] |
Xie Z, Jin L, Sun Y, Zhan C, Tang S, et al. 2024. OsNAC120 balances plant growth and drought tolerance by integrating GA and ABA signaling in rice. |
| [61] |
Van De Velde K, Ruelens P, Geuten K, Rohde A, Van Der Straeten D. 2017. Exploiting DELLA signaling in cereals. |
| [62] |
Feng X, Xiong J, Zhang W, Guan H, Zheng D, et al. 2022. ZmLBD5, a class-II LBD gene, negatively regulates drought tolerance by impairing abscisic acid synthesis. |
| [63] |
Band LR, Nelissen H, Preston SP, Rymen B, Prinsen E, et al. 2022. Modeling reveals posttranscriptional regulation of GA metabolism enzymes in response to drought and cold. |
| [64] |
Zheng L, Hu Y, Yang T, Wang Z, Wang D, et al. 2024. A root cap-localized NAC transcription factor controls root halotropic response to salt stress in Arabidopsis. |
| [65] |
Zhang Y, Li Y, de Zeeuw T, Duijts K, Kawa D, et al. 2024. Root branching under high salinity requires auxin-independent modulation of LATERAL ORGAN BOUNDARY DOMAIN 16 function. |
| [66] |
Duan E, Lin Q, Wang Y, Ren Y, Xu H, et al. 2023. The transcriptional hub SHORT INTERNODES1 integrates hormone signals to orchestrate rice growth and development. |
| [67] |
Waidmann S, Béziat C, Ferreira Da Silva Santos J, Feraru E, Feraru MI, et al. 2023. Endoplasmic reticulum stress controls PIN-LIKES abundance and thereby growth adaptation. |
| [68] |
Ai H, Bellstaedt J, Bartusch KS, Eschen-Lippold L, Babben S, et al. 2023. Auxin-dependent regulation of cell division rates governs root thermomorphogenesis. |
| [69] |
Sun Y, Zheng Y, Wang W, Yao H, Ali Z, et al. 2025. VvFHY3 links auxin and endoplasmic reticulum stress to regulate grape anthocyanin biosynthesis at high temperatures. |
| [70] |
Yamauchi T, Nakazono M. 2022. Mechanisms of lysigenous aerenchyma formation under abiotic stress. |
| [71] |
Tivendale ND, Belt K, Berkowitz O, Whelan J, Millar AH, et al. 2021. Knockdown of succinate dehydrogenase assembly factor 2 induces reactive oxygen species-mediated auxin hypersensitivity causing pH-dependent root elongation. |
| [72] |
El Arbi N, Nardeli SM, Šimura J, Ljung K, Schmid M. 2024. The Arabidopsis splicing factor PORCUPINE/SmE1 orchestrates temperature-dependent root development via auxin homeostasis maintenance. |
| [73] |
Zhao Q, Zhao PX, Wu Y, Zhong CQ, Liao H, et al. 2023. SUE4, a novel PIN1-interacting membrane protein, regulates acropetal auxin transport in response to sulfur deficiency. |
| [74] |
Noureddine J, Mu B, Hamidzada H, Mok WL, Bonea D, et al. 2024. Knockout of endoplasmic reticulum-localized molecular chaperone HSP90.7 impairs seedling development and cellular auxin homeostasis in Arabidopsis. |
| [75] |
Liu X, Wei J, Li S, Li J, Cao H, et al. 2025. MdHY5 positively regulates cold tolerance in apple by integrating the auxin and abscisic acid pathways. |
| [76] |
Zhang P, Sharwood RE, Carroll A, Estavillo GM, von Caemmerer S, et al. 2025. Systems analysis of long-term heat stress responses in the C4 grass Setaria viridis. |
| [77] |
Liu Y, Xie Y, Xu D, Deng XW, Li J. 2025. Inactivation of GH3.5 by COP1-mediated K63-linked ubiquitination promotes seedling hypocotyl elongation. |
| [78] |
Wu F, Yahaya BS, Gong Y, He B, Gou J, et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize. |
| [79] |
Renziehausen T, Chaudhury R, Hartman S, Mustroph A, Schmidt-Schippers RR. 2025. A mechanistic integration of hypoxia signaling with energy, redox, and hormonal cues. |
| [80] |
Gomez-Roldan V, Fermas S, Brewer PB, Puech-Pagès V, Dun EA, et al. 2008. Strigolactone inhibition of shoot branching. |
| [81] |
Umehara M, Hanada A, Yoshida S, Akiyama K, Arite T, et al. 2008. Inhibition of shoot branching by new terpenoid plant hormones. |
| [82] |
Li Q, Martín-Fontecha ES, Khosla A, White ARF, Chang S, et al. 2022. The strigolactone receptor D14 targets SMAX1 for degradation in response to GR24 treatment and osmotic stress. |
| [83] |
Wang X, Li Z, Shi Y, Liu Z, Zhang X, et al. 2023. Strigolactones promote plant freezing tolerance by releasing the WRKY41-mediated inhibition of CBF/DREB1 expression. |
| [84] |
Seto Y, Kameoka H, Yamaguchi S, Kyozuka J. 2012. Recent advances in strigolactone research: chemical and biological aspects. |
| [85] |
Yuan K, Zhang H, Yu C, Luo N, Yan J, et al. 2023. Low phosphorus promotes NSP1−NSP2 heterodimerization to enhance strigolactone biosynthesis and regulate shoot and root architecture in rice. |
| [86] |
Marzec M, Daszkowska-Golec A, Collin A, Melzer M, Eggert K, et al. 2020. Barley strigolactone signalling mutant hvd14.d reveals the role of strigolactones in abscisic acid-dependent response to drought. |
| [87] |
Lv S, Zhang Y, Li C, Liu Z, Yang N, et al. 2018. Strigolactone-triggered stomatal closure requires hydrogen peroxide synthesis and nitric oxide production in an abscisic acid-independent manner. |
| [88] |
Ha CV, Leyva-González MA, Osakabe Y, Tran UT, Nishiyama R, et al. 2014. Positive regulatory role of strigolactone in plant responses to drought and salt stress. |
| [89] |
Zheng X, Zhang J, Zhao M, Su Z, Li H, et al. 2025. Strigolactones, ROS and ABA regulate systemic salt-tolerance priming signals between dodder-connected tobacco plants. |
| [90] |
Zhao M, Zheng X, Su Z, Shen G, Xu Y, et al. 2025. MicroRNA399s and strigolactones mediate systemic phosphate signaling between dodder-connected host plants and control association of host plants with rhizosphere microbes. |
| [91] |
Chi C, Chen X, Zhu C, Cao J, Li H, et al. 2025. Strigolactones positively regulate HY5-dependent autophagy and the degradation of ubiquitinated proteins in response to cold stress in tomato. |
| [92] |
Zhang Y, Li J, Guo K, Wang T, Gao L, et al. 2024. Strigolactones alleviate AlCl3 stress by vacuolar compartmentalization and cell wall blocking in apple. |
| [93] |
Nagatoshi Y, Ikazaki K, Kobayashi Y, Mizuno N, Sugita R, et al. 2023. Phosphate starvation response precedes abscisic acid response under progressive mild drought in plants. |
| [94] |
Rivero RM, Kojima M, Gepstein A, Sakakibara H, Mittler R, et al. 2007. Delayed leaf senescence induces extreme drought tolerance in a flowering plant. |
| [95] |
Nishiyama R, Watanabe Y, Fujita Y, Le DT, Kojima M, et al. 2011. Analysis of cytokinin mutants and regulation of cytokinin metabolic genes reveals important regulatory roles of cytokinins in drought, salt and abscisic acid responses, and abscisic acid biosynthesis. |
| [96] |
Nishiyama R, Watanabe Y, Leyva-Gonzalez MA, Ha CV, Fujita Y, et al. 2013. Arabidopsis AHP2, AHP3, and AHP5 histidine phosphotransfer proteins function as redundant negative regulators of drought stress response. |
| [97] |
Nguyen KH, Ha CV, Nishiyama R, Watanabe Y, Leyva-González MA, et al. 2016. Arabidopsis type B cytokinin response regulators ARR1, ARR10, and ARR12 negatively regulate plant responses to drought. |
| [98] |
Abdelrahman M, Nishiyama R, Tran CD, Kusano M, Nakabayashi R, et al. 2021. Defective cytokinin signaling reprograms lipid and flavonoid gene-to-metabolite networks to mitigate high salinity in Arabidopsis. |
| [99] |
Yan Z, Wang J, Wang F, Xie C, Lv B, et al. 2021. MPK3/6-induced degradation of ARR1/10/12 promotes salt tolerance in Arabidopsis. |
| [100] |
Kieber JJ, Schaller GE. 2014. Cytokinins. |
| [101] |
Hussain A, Black CR, Taylor IB, Roberts JA. 1999. Soil compaction. A role for ethylene in regulating leaf expansion and shoot growth in tomato? |
| [102] |
Pandey BK, Huang G, Bhosale R, Hartman S, Sturrock CJ, et al. 2021. Plant roots sense soil compaction through restricted ethylene diffusion. |
| [103] |
Li XK, Huang YH, Zhao R, Cao WQ, Lu L, et al. 2024. Membrane protein MHZ3 regulates the on-off switch of ethylene signaling in rice. |
| [104] |
Ma B, Zhou Y, Chen H, He SJ, Huang YH, et al. 2018. Membrane protein MHZ3 stabilizes OsEIN2 in rice by interacting with its Nramp-like domain. |
| [105] |
Dubois M, Van den Broeck L, Claeys H, Van Vlierberghe K, Matsui M, et al. 2015. The ETHYLENE RESPONSE FACTORs ERF6 and ERF11 antagonistically regulate mannitol-induced growth inhibition in Arabidopsis. |
| [106] |
Hao D, Jin L, Wen X, Yu F, Xie Q, et al. 2021. The RING E3 ligase SDIR1 destabilizes EBF1/EBF2 and modulates the ethylene response to ambient temperature fluctuations in Arabidopsis. |
| [107] |
Shao Z, Bai Y, Huq E, Qiao H. 2024. LHP1 and INO80 cooperate with ethylene signaling for warm ambient temperature response by activating specific bivalent genes. |
| [108] |
Huang J, Zhao X, Bürger M, Wang Y, Chory J. 2021. Two interacting ethylene response factors regulate heat stress response. |
| [109] |
Shao Z, Bian L, Ahmadi SK, Daniel TJ, Belmonte MA, et al. 2024. Nuclear pyruvate dehydrogenase complex regulates histone acetylation and transcriptional regulation in the ethylene response. |
| [110] |
Cho HY, Chou MY, Ho HY, Chen WC, Shih MC. 2022. Ethylene modulates translation dynamics in Arabidopsis under submergence via GCN2 and EIN2. |
| [111] |
Huang YH, Han JQ, Ma B, Cao WQ, Li XK, et al. 2023. A translational regulator MHZ9 modulates ethylene signaling in rice. |
| [112] |
Kagale S, Divi UK, Krochko JE, Keller WA, Krishna P. 2007. Brassinosteroid confers tolerance in Arabidopsis thaliana and Brassica napus to a range of abiotic stresses. |
| [113] |
Eremina M, Unterholzner SJ, Rathnayake AI, Castellanos M, Khan M, et al. 2016. Brassinosteroids participate in the control of basal and acquired freezing tolerance of plants. |
| [114] |
Sahni S, Prasad BD, Liu Q, Grbic V, Sharpe A, et al. 2016. Overexpression of the brassinosteroid biosynthetic gene DWF4 in Brassica napus simultaneously increases seed yield and stress tolerance. |
| [115] |
Feng Y, Yin Y, Fei S. 2015. Down-regulation of BdBRI1, a putative brassinosteroid receptor gene produces a dwarf phenotype with enhanced drought tolerance in Brachypodium distachyon. |
| [116] |
Ye H, Liu S, Tang B, Chen J, Xie Z, et al. 2017. RD26 mediates crosstalk between drought and brassinosteroid signalling pathways. |
| [117] |
Chen J, Nolan TM, Ye H, Zhang M, Tong H, et al. 2017. Arabidopsis WRKY46, WRKY54, and WRKY70 transcription factors are involved in brassinosteroid-regulated plant growth and drought responses. |
| [118] |
Fàbregas N, Lozano-Elena F, Blasco-Escámez D, Tohge T, Martínez-Andújar C, et al. 2018. Overexpression of the vascular brassinosteroid receptor BRL3 confers drought resistance without penalizing plant growth. |
| [119] |
Fontanet-Manzaneque JB, Laibach N, Herrero-García I, Coleto-Alcudia V, Blasco-Escámez D, et al. 2024. Untargeted mutagenesis of brassinosteroid receptor SbBRI1 confers drought tolerance by altering phenylpropanoid metabolism in Sorghum bicolor. |
| [120] |
Albertos P, Dündar G, Schenk P, Carrera S, Cavelius P, et al. 2022. Transcription factor BES1 interacts with HSFA1 to promote heat stress resistance of plants. |
| [121] |
Luo J, Jiang J, Sun S, Wang X. 2022. Brassinosteroids promote thermotolerance through releasing BIN2-mediated phosphorylation and suppression of HsfA1 transcription factors in Arabidopsis. |
| [122] |
Gupta A, Rico-Medina A, Lozano-Elena F, Marqués-Bueno M, Fontanet JB, et al. 2023. Brassinosteroid receptor BRL3 triggers systemic plant adaptation to elevated temperature from the phloem cells. |
| [123] |
Cai Z, Tang Q, Song P, Tian E, Yang J, et al. 2024. The m6A reader ECT8 is an abiotic stress sensor that accelerates mRNA decay in Arabidopsis. |
| [124] |
Šimura J, Antoniadi I, Široká J, Tarkowská D, Strnad M, et al. 2018. Plant hormonomics: multiple phytohormone profiling by targeted metabolomics. |