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Plant membrane transport and signaling

Guest Editors:
Zhonghua Chen, PhD, Western Sydney University, Australia
Sergey Shabala, PhD, University of Western Australia, Australia
Mohsin Tanveer, PhD, Chinese Academy of Sciences, China


 

BMC Plant Biology  presents contributions to the Collection Plant membrane transport and signaling. Plants have evolved sophisticated mechanisms to control transport across membranes and signaling pathways, finely regulated e.g. to sustain growth and development, and respond to biotic and abiotic cues. This collection highlights original research that covers the emerging developments in plant biology, biochemistry, structural biology, molecular biology and genetics applied to plant membrane transport and signaling research.

New Content ItemThis Collection supports and amplifies research related to SDG 2: Zero Hunger

Meet the Guest Editors

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Zhonghua Chen, PhD, Western Sydney University, Australia

Professor Zhonghua Chen is currently an Australian Research Council (ARC) Future Fellow (2022-2026). Professor Chen is also the Associate Dean (Engagement and International) at the School of Science and Education Leader of the National Vegetable Protected Cropping Centre at Western Sydney University. He has an internationally-recognized track record of research excellence in agriculture, plant science and evolutionary biology. Since 2005, his research has resulted in over 180 publications including high-impact research articles. He has obtained research grants from the ARC, HIA, CRDC, GRDC, and AISRF and received a range of research awards. He is the Editor in Chief for Plant Growth Regulation, Editor for a few top international journals and a reviewer for over 80 international journals. He serves as a referee for grant applications to funding bodies such as the ARC, Deutsche Forschungsgemeinschaft, Swiss National Science Foundation.

Sergey Shabala, PhD, University of Western Australia, Australia

Dr Shabala is a distinguished professor in the field of plant physiology, currently serving as the Chair in Plant Physiology at the University of Western Australia. Additionally, he holds the prestigious titles of Distinguished Professor and Director of the International Research Centre for Environmental Membrane Biology at Foshan University in China. His research primarily focuses on plant stress physiology and the mechanisms plants employ to adapt to challenging environmental conditions such as drought, salinity, waterlogging, oxidative stress, and nutritional disorders. Throughout his extensive career, Dr Shabala has made significant contributions, authoring over 400 peer-reviewed papers. Moreover, he has successfully supervised 54 PhD students to completion. Prof Shabala's remarkable impact is evident through his recognition as an ISI Highly Cited researcher for seven consecutive years. In 2019, he was ranked as the most cited researcher in the field of Botany worldwide. His influential work is reflected in his H-index of 103, with his publications cited over 38,000 times.

Mohsin Tanveer, PhD, Chinese Academy of Sciences, China

Dr Tanveer is currently working as an Associate Professor at Xinjiang Institute of Ecology and Geography, Chinese Academy of Sciences Urumqi (China). He has long-standing experience in studying abiotic stress tolerance and ion transport in plants. His research interests focus on examining the electrophysiology of ion transport across cellular membranes in different tissues and cells, under abiotic stress conditions. 
 


About the Collection

BMC Plant Biology presents submissions to the Collection Plant membrane transport and signaling. Plants have evolved sophisticated mechanisms to control transport across membranes and signaling pathways, finely regulated e.g. to sustain growth and development, and respond to biotic and abiotic cues. Revealing the mechanisms that regulate plant membrane transport, as well as sensing and signaling, can affect how we understand, and potentially optimize, processes like transport and uptake of nutrients and metabolites, cellular metabolism, cellular and membrane trafficking, signal perception and transduction, cell-to-cell communication, or stress response and resilience.
 
This collection aligns with the United Nations Sustainable Development Goal 2 (Zero Hunger) and acknowledges the current challenges of global nutrition and food security. Understanding how membrane transport and signaling pathways modulate plant growth, metabolism and stress resilience, has not only fundamental relevance; it could also be leveraged to enhance crop yield and quality by developing novel inter-/multi-disciplinary approaches and biotechnological applications. This collection highlights original research that covers the emerging developments in plant biology, biochemistry, structural biology, and molecular biology and genetics applied to plant membrane transport and signaling research.
 
In support of SDG2 (Zero Hunger), we invited researchers and experts in the field to submit research articles that explore, but are not limited to, the following topics:

  • Plant membrane channels and transporters
  • Nutrient homeostasis and membrane transport of nutrients, elements and metabolites
  • Ion channels and transporters
  • Functional and structural analyses of transport proteins
  • Transport mechanisms and post-translational regulation of transporters
  • Molecular mechanisms and regulation of ion transporters and uptake
  • Cellular and membrane trafficking
  • Crosstalk between signaling pathways
  • Regulation of membrane transport by plant signaling networks
  • Regulation of hormonal and environmental signaling pathways
  • Plant hormone signaling
  • Sensing, signal transduction and intracellular signaling regulation
  • Metabolite sensing and signaling
  • Stress response and membrane signaling
  • ROS signaling
  • Auxin signaling
  • Ligand-receptor interactions
  • Methodological advances (e.g. multi-omics approaches and genome editing) applied to study membrane transport and signaling regulation in plants
     

Image credit: [M] Christoph Burgstedt / Getty Images / iStock

  1. NITRATE TRANSPORTER 1.1 (NRT1.1) functions as a dual affinity nitrate transceptor regulated by phosphorylation at threonine residue 101 (T101). Previous studies have suggested that NRT1.1 is involved in stomatal ...

    Authors: Yuchen Kou, Bodan Su, Shunyao Yang, Wei Gong, Xi Zhang and Xiaoyi Shan
    Citation: BMC Plant Biology 2025 25:95
  2. Mango is a tropical fruit with high economic value. The selection of suitable dwarf mango varieties is an important aspect of mango breeding. However, the mechanisms that regulate mango dwarfing remain unclear.

    Authors: Yu Zhang, Xinhua Pang, Mu Li, Ji Zhang, Ying Zhao, Yujuan Tang, Guodi Huang and Shaolong Wei
    Citation: BMC Plant Biology 2024 24:1025
  3. 2-oxoglutarate-dependent dioxygenase (2ODD) superfamily is the second largest enzyme family in the plant genome and plays diverse roles in secondary metabolic pathways. The medicinal plant Scutellaria baicalensis

    Authors: Sanming Zhu, Mengying Cui and Qing Zhao
    Citation: BMC Plant Biology 2024 24:804
  4. Amino acids are not only the main form of N in rice, but also are vital for its growth and development. These processes are facilitated by amino acid transporters within the plant. Despite their significance, ...

    Authors: Feng Jin, Pengfei Xie, Zhenghan Li, Bowen Wu, Weiting Huang and Zhongming Fang
    Citation: BMC Plant Biology 2024 24:447