Xiaochi Ma

Dr. Xiaochi Ma

orcid

Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
1 March 2020 in Agricultural Water Management
Verified
Journal Article
Closed access
XMXiaochi Ma
Xiaochi Ma
KSKaren A. Sanguinet
Karen A. Sanguinet
PJPete W. Jacoby
Pete W. Jacoby

1 August 2016 in Pedosphere
Verified
Journal Article
Closed access
LZLing Zhang
Ling Zhang
XMXiaochi Ma
Xiaochi Ma
HWHong Wang
Hong Wang
SLShuwei Liu
Shuwei Liu
ESEvan Siemann
Evan Siemann
JZJianwen Zou
Jianwen Zou

1 July 2019 in Agricultural Water Management
Verified
Journal Article
Closed access
XMXiaochi Ma
Xiaochi Ma
KSKaren A. Sanguinet
Karen A. Sanguinet
PJPete W. Jacoby
Pete W. Jacoby

27 August 2020 in Frontiers in Plant Science
Verified
Journal Article
Open access
PDF file
XMXiaochi Ma
Xiaochi Ma
PJPete W. Jacoby
Pete W. Jacoby
KSKaren A. Sanguinet
Karen A. Sanguinet
Direct root-zone irrigation (DRZ) is a novel subsurface irrigation strategy initially tested in vineyards for economizing water and securing grape production in arid regions with unstable climatic patterns. However, studies are lacking on the responses of grapevine leaf carbon assimilation and deep rooting patterns to the novel irrigation strategy, which are essential for optimizing grapevine growth and alleviating extreme water stress during periods of heat and drought. Thus, a two-year field study was conducted in a commercial vineyard of Cabernet Sauvignon (Vitis vinifera L.) under a semi-arid climate in Washington, USA to compare the differences in leaf gas exchange and root distribution along the 0–160 cm soil profile, combined with measurements of specific leaf area and total carbon and nitrogen content in leaves and shoots to compare DRZ and traditional surface drip irrigation (SD) under three watering regimes. Compared to SD, significantly higher rates of net CO2 assimilation, stomatal conductance and transpiration in leaves, which positively correlated to midday stem water potential, were found in grapevines irrigated through DRZ in both years. Meanwhile, DRZ reduced total root number by 50–60% and root length density (RLD) by 30–40% in the upper 60 cm soil at high (0.75–0.80 crop evapotranspiration) and moderate (0.60–0.65 crop evapotranspiration) irrigation rates, but no significant differences were found at low (0.45–0.50 crop evapotranspiration) irrigation rate between DRZ and SD. Higher root number and RLD were detected under DRZ within 60–160 cm soil depths, accompanied by a decreased ratio of total carbon to nitrogen content in leaves with slightly increased specific leaf area. Decreased rainfall and increased temperature in 2018 possibly amplified the positive effects of DRZ. Our study indicates that grapevines under DRZ could develop deeper roots for water uptake, which helps ameliorate water stress and improve the photosynthetic rate as well as enhance grapevine adaptation to semi-arid climates.

30 June 2017 in Plant, Soil and Environment
Verified
Journal Article
Open access
Zhi LiZhi Li
Zhi Li
LZLing Zhang
Ling Zhang
JCJing Chen
Jing Chen
XZXueling Zhang
Xueling Zhang
YSYu Suqin
Yu Suqin
DNDekui Niu
Dekui Niu
» Articles | Agricultural Journals

21 February 2025 in Chemical Engineering Journal
Verified
Journal Article
Closed access
ZDZixuan Ding
Zixuan Ding
WXWenlong Xu
Wenlong Xu
YFYingchen Feng
Yingchen Feng
YLYuan Li
Yuan Li
XMXiaochi Ma
Xiaochi Ma
ZZZhiyang Zhang
Zhiyang Zhang