Vegetation phenology and its ecohydrological implications from individual to global scales
Chen, Shouzhi ; Fu, Yongshuo H. ; Hao, Fanghua ; Li, Xiaoyan ; Zhou, Sha ; Liu, Changming and Tang, Jing LU
(2022)
In Geography and Sustainability
3(4).
p.334-338
- Abstract
The Earth is experiencing unprecedented climate change. Vegetation phenology has already showed strong response to the global warming, which alters mass and energy fluxes on terrestrial ecosystems. With technology and method developments in remote sensing, computer science and citizen science, many recent phenology-related studies have been focused on macrophenology. In this perspective, we 1) reviewed the responses of vegetation phenology to climate change and its impacts on carbon cycling, and reported that the effect of shifted phenology on the terrestrial carbon fluxes is substantially different between spring and autumn; 2) elaborated how vegetation phenology affects ecohydrological processes at different scales, and further listed... (More)
The Earth is experiencing unprecedented climate change. Vegetation phenology has already showed strong response to the global warming, which alters mass and energy fluxes on terrestrial ecosystems. With technology and method developments in remote sensing, computer science and citizen science, many recent phenology-related studies have been focused on macrophenology. In this perspective, we 1) reviewed the responses of vegetation phenology to climate change and its impacts on carbon cycling, and reported that the effect of shifted phenology on the terrestrial carbon fluxes is substantially different between spring and autumn; 2) elaborated how vegetation phenology affects ecohydrological processes at different scales, and further listed the key issues for each scale, i.e., focusing on seasonal effect, local feedbacks and regional vapor transport for individual, watershed and global respectively); 3) envisioned the potentials to improve current hydrological models by coupling vegetation phenology-related processes, in combining with machine learning, deep learning and scale transformation methods. We propose that comprehensive understanding of climate-macrophenology-hydrology interactions are essential and urgently needed for enhancing our understanding of the ecosystem response and its role in hydrological cycle under future climate change.
(Less)
- author
- Chen, Shouzhi
; Fu, Yongshuo H.
; Hao, Fanghua
; Li, Xiaoyan
; Zhou, Sha
; Liu, Changming
and Tang, Jing
LU
- organization
- publishing date
- 2022-12
- type
- Contribution to journal
- publication status
- published
- subject
- keywords
- Carbon balance, Ecohydrology, Global warming, Marcophenology
- in
- Geography and Sustainability
- volume
- 3
- issue
- 4
- pages
- 5 pages
- publisher
- Beijing Normal University Press
- external identifiers
-
- scopus:85141971573
- ISSN
- 2096-7438
- DOI
- 10.1016/j.geosus.2022.10.002
- language
- English
- LU publication?
- yes
- id
- 328a6777-f3da-4fac-af03-dd311d0e3646
- date added to LUP
- 2022-12-27 13:57:30
- date last changed
- 2022-12-28 02:44:37
@article{328a6777-f3da-4fac-af03-dd311d0e3646,
abstract = {{<p>The Earth is experiencing unprecedented climate change. Vegetation phenology has already showed strong response to the global warming, which alters mass and energy fluxes on terrestrial ecosystems. With technology and method developments in remote sensing, computer science and citizen science, many recent phenology-related studies have been focused on macrophenology. In this perspective, we 1) reviewed the responses of vegetation phenology to climate change and its impacts on carbon cycling, and reported that the effect of shifted phenology on the terrestrial carbon fluxes is substantially different between spring and autumn; 2) elaborated how vegetation phenology affects ecohydrological processes at different scales, and further listed the key issues for each scale, i.e., focusing on seasonal effect, local feedbacks and regional vapor transport for individual, watershed and global respectively); 3) envisioned the potentials to improve current hydrological models by coupling vegetation phenology-related processes, in combining with machine learning, deep learning and scale transformation methods. We propose that comprehensive understanding of climate-macrophenology-hydrology interactions are essential and urgently needed for enhancing our understanding of the ecosystem response and its role in hydrological cycle under future climate change.</p>}},
author = {{Chen, Shouzhi and Fu, Yongshuo H. and Hao, Fanghua and Li, Xiaoyan and Zhou, Sha and Liu, Changming and Tang, Jing}},
issn = {{2096-7438}},
keywords = {{Carbon balance; Ecohydrology; Global warming; Marcophenology}},
language = {{eng}},
number = {{4}},
pages = {{334--338}},
publisher = {{Beijing Normal University Press}},
series = {{Geography and Sustainability}},
title = {{Vegetation phenology and its ecohydrological implications from individual to global scales}},
url = {{http://dx.doi.org/10.1016/j.geosus.2022.10.002}},
doi = {{10.1016/j.geosus.2022.10.002}},
volume = {{3}},
year = {{2022}},
}