| [1] |
Neupane P, Bhatta S, Kafle A, Adhikari M. 2025. Evaluation of foliar application of zinc at different doses on potato (Solanum tuberosum L.) growth, yield, and economic feasibility in Dolpa of Nepal. |
| [2] |
Bradshaw JE, Bonierbale M. 2010. Potatoes. In Root and Tuber Crops. Handbook of Plant Breeding, ed. Bradshaw JE. New York, NY: Springer New York. pp. 1−52 doi: 10.1007/978-0-387-92765-7_1 |
| [3] |
Vilvert E, Stridh L, Andersson B, Olson Å, Aldén L, et al. 2022. Evidence based disease control methods in potato production: a systematic map protocol. |
| [4] |
Hameed A, Zeeshan M, Binyamin R, Alam MW, Ali S, et al. 2024. Molecular characterization of Pectobacterium atrosepticum infecting potato and its management through chemicals. |
| [5] |
van der Wolf JM, Acuña I, De Boer SH, Brurberg MB, Cahill G, et al. 2021. Diseases caused by Pectobacterium and Dickeya species around the world. In Plant Diseases Caused by Dickeya and Pectobacterium Species, eds. Van Gijsegem F, van der Wolf JM, Toth IK. Cham: Springer International Publishing. pp. 215−261 doi: 10.1007/978-3-030-61459-1_7 |
| [6] |
van der Wolf J, Krijger M, Mendes O, Kurm V, Gros J. 2022. Natural infections of potato plants grown from minitubers with blackleg-causing soft rot Pectobacteriaceae. |
| [7] |
Czajkowski R, Pérombelon MCM, van Veen JA, van der Wolf JM. 2011. Control of blackleg and tuber soft rot of potato caused by Pectobacterium and Dickeya species: a review. |
| [8] |
van der Wolf JM, De Boer SH, Czajkowski R, Cahill G, Van Gijsegem F, et al. 2021. Management of diseases caused by Pectobacterium and Dickeya species. In Plant Diseases Caused by Dickeya and Pectobacterium Species, eds. Van Gijsegem F, van der Wolf JM, Toth IK. Cham: Springer International Publishing. pp. 175−214 doi: 10.1007/978-3-030-61459-1_6 |
| [9] |
Dye DW. 1981. A numerical taxonomic study of the genus Erwinia. |
| [10] |
Gardan L, Gouy C, Christen R, Samson R. 2003. Elevation of three subspecies of Pectobacterium carotovorum to species level: Pectobacterium atrosepticum sp. nov., Pectobacterium betavasculorum sp. nov. and Pectobacterium wasabiae sp. nov. |
| [11] |
Wasendorf C, Schmitz-Esser S, Eischeid CJ, Leyhe MJ, Nelson EN, et al. 2022. Genome analysis of Erwinia persicina reveals implications for soft rot pathogenicity in plants. |
| [12] |
Guttman Y, Joshi JR, Chriker N, Khadka N, Kleiman M, et al. 2021. Ecological adaptations influence the susceptibility of plants in the genus Zantedeschia to soft rot Pectobacterium spp. |
| [13] |
Raoul des Essarts Y, Cigna J, Quêtu-Laurent A, Caron A, Munier E, et al. 2016. Biocontrol of the potato blackleg and soft rot diseases caused by Dickeya dianthicola. |
| [14] |
Bisht VS, Bains PS, Letal JR. 1993. A simple and efficient method to assess susceptibility of potato to stem rot by Erwinia carotovora subspecies. |
| [15] |
Rietman H, Finkers R, Evers L, van der Zouwen PS, van der Wolf JM, et al. 2014. A stringent and broad screen of Solanum spp. tolerance against Erwinia bacteria using a petiole test. |
| [16] |
Zhang P, Yuan Z, Wei L, Qiu X, Wang G, et al. 2022. Overexpression of ZmPP2C55 positively enhances tolerance to drought stress in transgenic maize plants. |
| [17] |
Qiu X, Wang G, Abou-Elwafa SF, Fu J, Liu Z, et al. 2022. Genome-wide identification of HD-ZIP transcription factors in maize and their regulatory roles in promoting drought tolerance. |
| [18] |
Xu S, Hu C, Tan Q, Qin S, Sun X. 2018. Subcellular distribution of molybdenum, ultrastructural and antioxidative responses in soybean seedlings under excess molybdenum stress. |
| [19] |
Li L, Guo B, Feng C, Liu H, Lin D. 2022. Growth, physiological, and temperature characteristics in Chinese cabbage pakchoi as affected by Cd-stressed conditions and identifying its main controlling factors using PLS model. |
| [20] |
Liu J, Hasanuzzaman M, Wen H, Zhang J, Peng T, et al. 2019. High temperature and drought stress cause abscisic acid and reactive oxygen species accumulation and suppress seed germination growth in rice. |
| [21] |
Wang Q, Chen X, Chai X, Xue D, Zheng W, et al. 2019. The involvement of jasmonic acid, ethylene, and salicylic acid in the signaling pathway of clonostachys rosea-induced resistance to gray mold disease in tomato. |
| [22] |
Saeed S, Ullah S, Amin F, Al-Hawadi JS, Okla MK, et al. 2024. Salicylic acid and tocopherol improve wheat (Triticum aestivum L.) physio-biochemical and agronomic features grown in deep sowing stress: a way forward towards sustainable production. |
| [23] |
Feng Q, Yang S, Wang Y, Lu L, Sun M, et al. 2021. Physiological and molecular mechanisms of ABA and CaCl2 regulating chilling tolerance of cucumber seedlings. |
| [24] |
Ding H, Ma D, Huang X, Hou J, Wang C, et al. 2019. Exogenous hydrogen sulfide alleviates salt stress by improving antioxidant defenses and the salt overly sensitive pathway in wheat seedlings. |
| [25] |
Stevenson FJ. 1947. New varieties of potatoes. |
| [26] |
Ma D, Sun D, Wang C, Ding H, Qin H, et al. 2017. Physiological responses and yield of wheat plants in zinc-mediated alleviation of drought stress. |
| [27] |
Qin X, Chang Y, Wang Y, Yang J, Nie S, et al. 2023. Aspergillus sp. R3, a new producer for cyclopyazonic acid, inhibits rice sheath blight fungus Rhizoctonia solani Kühn. |
| [28] |
Rai KK. 2023. Revisiting the critical role of ROS and RNS in plant defense. |
| [29] |
Wang P, Liu WC, Han C, Wang S, Bai MY, et al. 2024. Reactive oxygen species: multidimensional regulators of plant adaptation to abiotic stress and development. |
| [30] |
Foreman J, Demidchik V, Bothwell JHF, Mylona P, Miedema H, et al. 2003. Reactive oxygen species produced by NADPH oxidase regulate plant cell growth. |
| [31] |
Tanou G, Molassiotis A, Diamantidis G. 2009. Hydrogen peroxide- and nitric oxide-induced systemic antioxidant prime-like activity under NaCl-stress and stress-free conditions in citrus plants. |
| [32] |
Mansoor S, Ali Wani O, Lone JK, Manhas S, Kour N, et al. 2022. Reactive oxygen species in plants: from source to sink. |
| [33] |
Considine MJ, Foyer CH. 2021. Stress effects on the reactive oxygen species-dependent regulation of plant growth and development. |
| [34] |
Sachdev S, Ansari SA, Ansari MI, Fujita M, Hasanuzzaman M. 2021. Abiotic stress and reactive oxygen species: generation, signaling, and defense mechanisms. |
| [35] |
Shafi A, Chauhan R, Gill T, Swarnkar MK, Sreenivasulu Y, et al. 2015. Expression of SOD and APX genes positively regulates secondary cell wall biosynthesis and promotes plant growth and yield in Arabidopsis under salt stress. |
| [36] |
Mittler R, Zandalinas SI, Fichman Y, Van Breusegem F. 2022. Reactive oxygen species signalling in plant stress responses. |
| [37] |
Temple MD, Perrone GG, Dawes IW. 2005. Complex cellular responses to reactive oxygen species. |
| [38] |
Ninkuu V, Yan J, Fu Z, Yang T, Ziemah J, et al. 2023. Lignin and its pathway-associated phytoalexins modulate plant defense against fungi. |
| [39] |
Jadhav SJ, Mazza G, Salunkhe DK. 1991. Terpenoid phytoalexins in potatoes: a review. |
| [40] |
Chaki M, Begara-Morales JC, Barroso JB. 2020. Oxidative stress in plants. |
| [41] |
Jiang G, Yin D, Zhao J, Chen H, Guo L, et al. 2016. The rice thylakoid membrane-bound ascorbate peroxidase OsAPX8 functions in tolerance to bacterial blight. |
| [42] |
Sheng C, Yu D, Li X, Yu H, Zhang Y, et al. 2022. OsAPX1 positively contributes to rice blast resistance. |