Bulliform Cell‐Induced Leaf Curling Contributes to Water Loss and Water Potential Regulation of Bamboos During Dry Season

ABSTRACT A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water‐u...

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Published inPhysiologia plantarum Vol. 177; no. 4; pp. e70463 - n/a
Main Authors Aritsara, Amy Ny Aina, Cao, Kun‐Fang, Zhang, Yong‐Jiang, Han, Lu, Maenpuen, Phisamai, Zhang, Shu‐Bin, Zhao, Gao‐Juan, Wei, Yang, Liu, Jia‐Bao, Yu, Jia‐Rui, Chen, Ya‐Jun
Format Journal Article
LanguageEnglish
Published Oxford, UK Blackwell Publishing Ltd 01.07.2025
Wiley Subscription Services, Inc
Subjects
Bamboo
bulliform cells
climate change
Dehydration
Desiccation
Drought
Dry season
Environmental regulations
Leaf area
leaf curling
Leaves
Moisture content
Plant anatomy
Plant growth
Plant Leaves - anatomy & histology
Plant Leaves - cytology
Plant Leaves - physiology
Poaceae - physiology
Retention capacity
Seasonal variations
Seasons
Soil - chemistry
Soil depth
Soil water
Tropical forests
Water
Water - metabolism
Water - physiology
Water content
Water deficit
Water depth
Water loss
Water potential
water relations
Water shortages
Water storage
Water stress
Water supply
bamboo
bulliform cells
water potential
water relations
drought
leaf curling
climate change
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Abstract ABSTRACT A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water‐uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co‐occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short‐to‐average leaf dehydration time to 70% of its SWC (T70 = 74.5–250.4 min). They exhibited large interspecific variation in dry‐season midday leaf water potential (Ψdry.md). Higher T70 (i.e., slow desiccation rate) was significantly correlated with less negative Ψdry.md, but Ψdry.md was not related to soil water‐uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψdry.md. This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.
AbstractList A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water-uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co-occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short-to-average leaf dehydration time to 70% of its SWC (T70 = 74.5-250.4 min). They exhibited large interspecific variation in dry-season midday leaf water potential (Ψdry.md). Higher T70 (i.e., slow desiccation rate) was significantly correlated with less negative Ψdry.md, but Ψdry.md was not related to soil water-uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψdry.md. This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water-uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co-occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short-to-average leaf dehydration time to 70% of its SWC (T70 = 74.5-250.4 min). They exhibited large interspecific variation in dry-season midday leaf water potential (Ψdry.md). Higher T70 (i.e., slow desiccation rate) was significantly correlated with less negative Ψdry.md, but Ψdry.md was not related to soil water-uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψdry.md. This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.
ABSTRACT A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water‐uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co‐occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short‐to‐average leaf dehydration time to 70% of its SWC (T70 = 74.5–250.4 min). They exhibited large interspecific variation in dry‐season midday leaf water potential (Ψdry.md). Higher T70 (i.e., slow desiccation rate) was significantly correlated with less negative Ψdry.md, but Ψdry.md was not related to soil water‐uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψdry.md. This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.
A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water-uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co-occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short-to-average leaf dehydration time to 70% of its SWC (T  = 74.5-250.4 min). They exhibited large interspecific variation in dry-season midday leaf water potential (Ψ ). Higher T (i.e., slow desiccation rate) was significantly correlated with less negative Ψ , but Ψ was not related to soil water-uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψ . This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.
A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water‐uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co‐occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short‐to‐average leaf dehydration time to 70% of its SWC (T 70 = 74.5–250.4 min). They exhibited large interspecific variation in dry‐season midday leaf water potential (Ψ dry.md ). Higher T 70 (i.e., slow desiccation rate) was significantly correlated with less negative Ψ dry.md , but Ψ dry.md was not related to soil water‐uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψ dry.md . This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.
A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water regulation mechanisms across bamboo species remain poorly understood. This study quantified the relative contributions of soil water‐uptake depth, leaf water storage and retention capacity, and related anatomical traits to daytime and seasonal variations in leaf water potential across nine co‐occurring bamboo species. The results revealed that the studied bamboos obtained 50% of their water from soil depth shallower than 32 cm. The studied bamboo species have low saturated water content (SWC) and short‐to‐average leaf dehydration time to 70% of its SWC (T70 = 74.5–250.4 min). They exhibited large interspecific variation in dry‐season midday leaf water potential (Ψdry.md). Higher T70 (i.e., slow desiccation rate) was significantly correlated with less negative Ψdry.md, but Ψdry.md was not related to soil water‐uptake depth or leaf water storage. Leaf anatomy, curling rate, and curling intensity analyses demonstrated two complementary water regulation mechanisms: (1) high density of bulliform cells enabled rapid leaf curling under water deficit, resulting in high predawn water potential in the dry season; and (2) large bulliform cell aperture promoted intensive leaf area reduction during water stress, slowing water loss, thus enabling less negative Ψdry.md. This study provides evidence of the synergy between bulliform cell structures and leaf water retention capacity across bamboo species and their contribution to water regulation under drought stress, highlighting structural adaptations in the leaves of bamboos enabling their success in seasonal tropical forests.
Author Chen, Ya‐Jun
Aritsara, Amy Ny Aina
Zhang, Yong‐Jiang
Zhang, Shu‐Bin
Wei, Yang
Yu, Jia‐Rui
Han, Lu
Zhao, Gao‐Juan
Liu, Jia‐Bao
Cao, Kun‐Fang
Maenpuen, Phisamai
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  givenname: Kun‐Fang
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  organization: Guangxi University
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  fullname: Zhang, Yong‐Jiang
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  fullname: Han, Lu
  organization: Chinese Academy of Sciences
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Keywords bamboo
bulliform cells
water potential
water relations
drought
leaf curling
climate change
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This work was supported by the National Natural Science Foundation of China (32371576, 32071735, W2433080, 41861144016); Yunnan Provincial Science and Technology Department (202403AM140010, 202501AT070486, 202501AS070174); Yunnan Revitalization Talents Support Plan (YNWR‐QNBJ‐2019177); Yunnan High‐end Foreign Expert Project to A.N.A.A. (XDYC‐GDWZ‐2024‐0018); the Youth Academic and Technical Leading Talent Reserve Program in Yunnan Province (202405AC350012); China Postdoctoral Science Foundation (2024M753473); and Yunnan “Caiyun” Postdoctoral program to A.N.A.A., P.M. and Y.W. CAS “Light of West China” Program of Chinese Academy of Sciences; the 14th Five‐Year Plan of the Xishuangbanna Tropical Botanical Garden, Chinese Academy of Sciences (XTBG‐1450101 and XTBG‐1450102).
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2018; 6
2020; 4
2010; 24
2017; 37
2000
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2017; 20
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2022; 42
2015; 205
2011; 38
2024; 15
2024; 16
2012; 32
2002; 25
2012; 196
2021; 16
2013; 33
2010; 259
2018; 558
2005; 126
2015; 21
2022; 13
2003; 26
2017
2021; 172
2014
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2016; 171
2024; 47
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SSID ssj0016612
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Snippet ABSTRACT A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the...
A balanced water supply and demand is critical for plant growth and survival. Despite the ecological importance of bamboos in tropical ecosystems, the water...
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crossref
wiley
SourceType Aggregation Database
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StartPage e70463
SubjectTerms Bamboo
bulliform cells
climate change
Dehydration
Desiccation
Drought
Dry season
Environmental regulations
Leaf area
leaf curling
Leaves
Moisture content
Plant anatomy
Plant growth
Plant Leaves - anatomy & histology
Plant Leaves - cytology
Plant Leaves - physiology
Poaceae - physiology
Retention capacity
Seasonal variations
Seasons
Soil - chemistry
Soil depth
Soil water
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Water
Water - metabolism
Water - physiology
Water content
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Title Bulliform Cell‐Induced Leaf Curling Contributes to Water Loss and Water Potential Regulation of Bamboos During Dry Season
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fppl.70463
https://www.ncbi.nlm.nih.gov/pubmed/40831236
https://www.proquest.com/docview/3241766658
https://www.proquest.com/docview/3241318438
Volume 177
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