Tianpeng Zhang

Dr. Tianpeng Zhang

orcid

Research Focus & Metrics

Academic Career Length

5Years (2022-Present)

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

Representative Publications

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12 February 2022 in Plant Cell Reports
Verified
Journal Article
Closed access
PDF file
DWDandan Wei
Dandan Wei
TZTianpeng Zhang
Tianpeng Zhang
BWBingquan Wang
Bingquan Wang
HZHuiling Zhang
Huiling Zhang
MMMingyang Ma
Mingyang Ma
XYXing-Hong Yang
Xing-Hong Yang

30 April 2025 in Plant Cell Reports
Verified
Journal Article
Closed access
PDF file
RXRuirui Xu
Ruirui Xu
SJShuna Jiang
Shuna Jiang
HGHongjuan Ge
Hongjuan Ge
BZBuhang Zhang
Buhang Zhang
JSJing Shu
Jing Shu
SZShizhong Zhang
Shizhong Zhang

23 June 2025 in Plants
Verified
Journal Article
Open access
PDF file
TZTianpeng Zhang
Tianpeng Zhang
PYPei Pei Yin
Pei Pei Yin
XYXing-Hong Yang
Xing-Hong Yang
YLYunqi Liu
Yunqi Liu
RXRuirui Xu
Ruirui Xu
Non-invasive Micro-test Technology (NMT) represents a pioneering approach in the study of physiological functions within living organisms. This technology possesses the remarkable capability to monitor the flow rates and three-dimensional movement directions of ions or molecules as they traverse the boundaries of living organisms without sample destruction. The advantages of NMT are multifaceted, encompassing real-time, non-invasive assessment, a wide array of detection indicators, and compatibility with diverse sample types. Consequently, it stands as one of the foremost tools in contemporary plant physiological research. This comprehensive review delves into the applications and research advancements of NMT within the field of plant abiotic stress physiology, including drought, salinity, extreme temperature, nutrient deficiency, ammonium toxicity, acid stress, and heavy metal toxicity. Furthermore, it offers a forward-looking perspective on the potential applications of NMT in plant physiology research, underscoring its unique capacity to monitor the flux dynamics of ions/molecules (e.g., Ca2+, H+, K+, and IAA) in real time, reveal early stress response signatures through micrometer-scale spatial resolution measurements, and elucidate stress adaptation mechanisms by quantifying bidirectional nutrient transport across root–soil interfaces. NMT enhances our understanding of the spatiotemporal patterns governing plant–environment interactions, providing deeper insights into the molecular mechanism of abiotic stress resilience.