ICCK

Chen Zou

Section 01

Academic Profile

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Section 02

Editorial Roles

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Section 03

ICCK Publications

Free Access | Research Article | 01 October 2026
Dual-Layer Adaptation Mechanisms of the Karst Obligate-CAM Epiphytic Dendrobium Loddigesii
Journal of Plant Electrobiology | Volume 1, Issue 2: 153-164, 2026 | DOI: 10.62762/JPE.2026.265468
Abstract
Obligate crassulacean acid metabolism (CAM) plants survive karst drought through daytime stomatal closure, which limits water loss but suspends gas exchange, raising the question of how intracellular metabolism continues under closed stomata. Using a reintroduced population of the orchid \textit{Dendrobium loddigesii} shaped by 15 years of natural selection, we combined a two-season (January and April) between-population comparison with concurrent within-plant comparisons of different-aged leaves, and quantified leaf electrophysiology using an extended Hodgkin-Huxley model. Intracellular water transport rate (WTR) was highly conserved across seasons and leaf ages (overall mean \WTRall, withi... More >

Graphical Abstract
Dual-Layer Adaptation Mechanisms of the Karst Obligate-CAM Epiphytic Dendrobium Loddigesii
Free Access | Research Article | 29 September 2026
Severe Hail-Induced Mechanical Damage Is Associated with a Persistent Maladaptive Electrophysiological State in Bletilla striata Leaves
Journal of Plant Electrobiology | Volume 1, Issue 2: 141-152, 2026 | DOI: 10.62762/JPE.2026.635705
Abstract
Hailstorms cause severe mechanical damage to crops, yet their long-term legacy effects on the physiology of perennial medicinal herbs remain poorly understood. This study examined \textit{Bletilla striata} plants damaged by a severe hailstorm on April 2, 2026. On day 37 post-damage, coinciding with new pseudobulb formation, 44 electrophysiological parameters were measured in leaves of damaged plants ($n = 8$) and undamaged controls ($n = 8$) and compared using Welch's $t$-test. Damaged leaves showed a persistent ``low-resistance, high-capacitance'' pattern: inherent physiological resistance decreased to 25.0% of the control value, whereas inherent capacitance increased 5.6-fold (both $P < 0.... More >