Analysis of Potato Growth and Yield Changes under Rising Temperature Conditions

In-ha Lee; Wan-Gyu Sang; Dong-won Kwon; Sung-yul Chang; Woo-jin Im; Hyeok-jin Bak; Ji-hyeon Lee; Do-Hyun Kim; Nam-Jin Chung; Woon-Ha Hwang

doi:10.7740/kjcs.2024.69.4.390

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2024 Vol.69, Issue 4 Preview Page Next Page

Analysis of Potato Growth and Yield Changes under Rising Temperature Conditions 기온상승에 따른 감자 생육 및 수량 변화 분석

1 December 2024. pp. 390-399

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Abstract

Climate change has led to an increase in temperature over recent years. These changes promote early growth in potato, but may lead to reduced growth and yield in later stages. Therefore, an experiment in a temperature gradient house was conducted to evaluate the effects of temperature on potato growth and yield. The results showed that the growth and SPAD values for the Sumi variety decreased when the temperature rose by 1.6°C, whereas growth showed a positive relationship with high temperatures for variety Jopung and its SPAD value were consistently lower than the control at high temperature. Sumi yield decreased when the temperature rose by 2.4°C, while Jopung yield showed no significant trends when the temperature increase was below 3.5°C. There was no difference in NDVI values between the two varieties. Sumi PRI values decreased when the temperature rise was 1.6°C and its CWSI values remained high regardless of temperature, whereas there was no difference in the PRI values among the temperature treatments for Jopung and its CWSI values increased with temperature. Overall, the results showed that Sumi was more affected by high temperature than Jopung. Comparisons with the responses shown for the treatment where there was no temperature difference between inside and outside confirmed that the PRI values showed a similar trend to growth and yield.

Keywords

heat stress

potato

thermal gradient house

tuber

yield

References

Cao, Z., X. Yao, H. Liu, T. Cheng, Y. Tian, W. Cao, and Y. Zhu. 2019. Comparison of the abilities of vegetation indices and photosynthetic parameters to detect heat stress in wheat. Agric. For. Meteorol. 265 : 121-136.

10.1016/j.agrformet.2018.11.009

Chen, J., Q. Zhang, B. Chen, Y. Zhang, L. Ma, Z. Li, X. Zhang, Y. Wu, S. Wang, and R. A. Mickler. 2020. Evaluating multi-angle photochemical reflectance index and solar-induced fluorescence for the estimation of gross primary production in maize. Remote Sens. 12(17) : 2812.

10.3390/rs12172812

Hancock, R. D., W. L. Morris, L. J. Ducreux, J. A. Morris, M. Usman, S. R. Verrall, J. Fuller, C. G. Simpson, R. Zhang, and P. E. Hedley. 2014. Physiological, biochemical and molecular responses of the potato (Solanum tuberosum L.) plant to moderately elevated temperature. Plant Cell Environ. 37(2) : 439-450.

10.1111/pce.1216823889235

Ierna, A. 2023. Water management in potato. In Potato Production Worldwide (pp. 87-100). Elsevier.

10.1016/B978-0-12-822925-5.00015-3

Jackson, R. D., S. B. Idso, R. J. Reginato, and P. J. Pinter Jr. 1981. Canopy temperature as a crop water stress indicator. Water Resour. Res. 17(4) : 1133-1138.

10.1029/WR017i004p01133

Kim, Y.-U. and B.-W. Lee. 2016. Effect of high temperature, daylength, and reduced solar radiation on potato growth and yield. Korean J. Agric. For. Meteorol. 18(2) : 74-87.

10.5532/KJAFM.2016.18.2.74

Korea Meteorological Administration (KMA). 2020. Korea Climate Change Assessment Report 2020.

Korea Meteorological Administration (KMA). 2024. Temperature data. https://data.kma.go.kr/stcs/grnd/grndTaList.do?pgmNo=70. Last accessed on August 22, 2024.

Korean Statistical Information Service (KOSIS). 2024. Potato Production Volume (Including Rate of Increase/Decrease). https://kosis.kr/statHtml/statHtml.do?orgId=101&tblId=DT_1ET0026&conn_path=I3. Last accessed on August 22, 2024.

Lazarević, B., K. Carović-Stanko, T. Safner, and M. Poljak. 2022. Study of high-temperature-induced morphological and physiological changes in potato using nondestructive plant phenotyping. Plants 11(24) : 3534.

10.3390/plants1124353436559644PMC9783218

Lee, G., J. Choi, Y. Park, G. Jung, D. Kwon, K. Jo, C. Cheon, D. Chang, and Y. Jin. 2022. Changes of yield and quality in potato (Solanum tuberosum L.) by heat treatment. Korean J. Agric. For. Meteorol. 24(3) : 145-154.

Lee, Y.-H., W.-G. Sang, J.-K. Baek, J.-H. Kim, P. Shin, M.-C. Seo, and J.-I. Cho. 2020. The effect of concurrent elevation in CO₂ and temperature on the growth, photosynthesis, and yield of potato crops. PloS one 15(10) : e0241081.

10.1371/journal.pone.024108133085713PMC7577495

Li, L., Y. Qin, Y. Liu, Y. Hu, and M. Fan. 2012. Leaf positions of potato suitable for determination of nitrogen content with a SPAD meter. Plant Prod. Sci. 15(4) : 317-322.

10.1626/pps.15.317

Luo, S., Y. He, Q. Li, W. Jiao, Y. Zhu, and X. Zhao. 2020. Nondestructive estimation of potato yield using relative variables derived from multi-period LAI and hyperspectral data based on weighted growth stage. Plant Methods 16 : 1-14.

10.1186/s13007-020-00693-333292407PMC7654003

Marinus, J. and K. Bodlaender. 1975. Response of some potato varieties to temperature. Potato Res. 18(2) : 189-204.

10.1007/BF02361722

National Institute of Crop Science (NICS). 2021. Field Book of Cultivation Techniques and Research Standards for Major Upland Crops.

National Institute of Meteorological Sciences (NIMS). 2014. Global Climate Change Outlook Report 2014.

Ramírez, D., W. Yactayo, R. Gutiérrez, V. Mares, F. De Mendiburu, A. Posadas, and R. Quiroz. 2014. Chlorophyll concentration in leaves is an indicator of potato tuber yield in water-shortage conditions. Sci. Hortic. 168 : 202-209.

10.1016/j.scienta.2014.01.036

Rural Development Administration (RDA). 2020. Potato - Agricultural Technology Guide 31 (Revised Edition) (Vol. 31).

Romero, A. P., A. Alarcón, R. I. Valbuena, and C. H. Galeano. 2017. Physiological assessment of water stress in potato using spectral information. Front. Plant Sci. 8 : 1608.

10.3389/fpls.2017.0160828979277PMC5611683

Rud, R., Y. Cohen, V. Alchanatis, A. Levi, R. Brikman, C. Shenderey, B. Heuer, T. Markovitch, Z. Dar, and C. Rosen. 2014. Crop water stress index derived from multi-year ground and aerial thermal images as an indicator of potato water status. Precis. Agric. 15 : 273-289.

10.1007/s11119-014-9351-z

Singh, B., S. Kukreja, and U. Goutam. 2020. Impact of heat stress on potato (Solanum tuberosum L.): Present scenario and future opportunities. J. Hortic. Sci. Biotech. 95(4) : 407-424.

10.1080/14620316.2019.1700173

Sun, C., J. Zhou, Y. Ma, Y. Xu, B. Pan, and Z. Zhang. 2022. A review of remote sensing for potato traits characterization in precision agriculture. Front. Plant Sci. 13 : 871859.

10.3389/fpls.2022.87185935923874PMC9339983

Tang, R., S. Niu, G. Zhang, G. Chen, M. Haroon, Q. Yang, O. P. Rajora, and X.-Q. Li. 2018. Physiological and growth responses of potato cultivars to heat stress. Botany 96(12) : 897-312.

10.1139/cjb-2018-0125

Van Loon, C. 1981. The effect of water stress on potato growth, development, and yield. Am. Potato J. 58 : 51-69.

10.1007/BF02855380

Zahra, N., M. B. Hafeez, A. Ghaffar, A. Kausar, M. Al Zeidi, K. H. Siddique, and M. Farooq. 2023. Plant photosynthesis under heat stress: Effects and management. Environ. Exp. Bot. 206 : 105178.

10.1016/j.envexpbot.2022.105178

Information

Publisher :The Korean Society of Crop Science
Publisher(Ko) :한국작물학회
Journal Title :The Korean Journal of Crop Science
Journal Title(Ko) :한국작물학회지
Volume : 69
No :4
Pages :390-399
Received Date : 2024-10-30
Revised Date : 2024-11-18
Accepted Date : 2024-11-19
DOI :https://doi.org/10.7740/kjcs.2024.69.4.390

The Korean Journal of Crop Science ISSN:0252-9777(Print) 2287-8432(Online) 한국작물학회지

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