Peng Shang
shangpeng@nwpu.edu.cn
Chinese, English
Shaanxi
Northwestern Polytechnical University
Life Science
  • Ph.D. in Engineering
  • Main leader in establishing the School of Life Sciences at Northwestern Polytechnical University
  • Responsible for the development of biomedical engineering and life sciences disciplines
  • Published over 210 papers and books
  • 2018 February, Shenzhen High-level Professional Talent--National Leading Talent
  • 2015 December, Second Prize of Shaanxi Province Science and Technology, 'Study on the Preparation Process and Mechanism of Crystal Materials under Special Physical Environments', No. 14-044 (Ranked 2nd)
  • 2011, Outstanding Talent Award in Cell Biology Scientific Research by the Journal of Chinese Cell Biology
  • 2007 December, First Prize of Shaanxi Province Science and Technology, 'Basic Research on the Application of Angelica Polysaccharides and Rheum Polysaccharides', No. 07-1-21-R5 (Ranked 5th)
  • 2005 November, Second Prize of National Science and Technology Progress, 'Study and Application of Liver Cancer Radioimmunotherapy Drugs and Their Target Molecule HAb18G/CD147', No. 2005-J-235-2-C4-R06 (Ranked 6th)
  • 1994 December, Second Prize of Military Science and Technology Progress, 'Experimental Study on the Application of Monoclonal Antibodies Against Human Melanoma', No. 94-2-41-5 (Ranked 5th)
Space Biology
Magnetobiology
Magnetic Field Biotechnology and Health Engineering
Aerospace Medical Engineering
Protein, Peptide, and Polysaccharide Drug Research and Development
  • The Influence of Electrode Design on Detecting the Effects of Ferric Ammonium Citrate (FAC) on Pre-Osteoblast through Electrical Cell-Substrate Impedance Sensing (ECIS), Zhang ZY, Shang P*, 2023
  • Hypoxia Pathway in Osteoporosis: Laboratory Data for Clinical Prospects, Wang JP, Shang P*, 2023
  • PTH 1-34 promoted bone formation by regulating iron metabolism in unloading-induced bone loss, Che JM, Shang P*, 2023
  • Static magnetic field: A potential tool of controlling stem cells fates for stem cell therapy in osteoporosis, Wang JP, Shang P*, 2022
  • Sleep posture recognition based on machine learning: A systematic review, Li XL, Shang P*, 2023
  • The potential benefits of melatonin in the prevention and treatment of bone loss in response to microgravity, Chen X, Shang P*, 2022
  • Biophysical mechanisms underlying the effects of static magnetic fields on biological systems, Zhang B, Shang P*, 2022
  • 1–2 T static magnetic field combined with Ferumoxytol prevent unloading-induced bone loss by regulating iron metabolism in osteoclastogenesis, Zhang GJ, Shang P*, 2022
  • Evaluating the biological safety on mice at 16 T static magnetic field with 700 MHz radio-frequency electromagnetic field, Wang SH, Shang P*, 2022
  • 12 T high static magnetic field suppresses osteosarcoma cells proliferation by regulating intracellular ROS and iron status, Wang SH, Shang P*, Zhang H*, 2022
  • Biological effects of hypomagnetic field: ground-based data for space exploration, Zhang ZY, Shang P*, 2021
  • Iron chelator induces apoptosis in osteosarcoma cells by disrupting intracellular iron homeostasis and activating the MAPK pathway, Xue YR, Shang P*, 2021
  • Ergonomic Consideration in Pillow Height Determinants and Evaluation, Lei JX, Shang P*, 2021
  • Static magnetic field (0.2-0.4 T) stimulates the self-renewal ability of osteosarcoma stem cells through autophagic degradation of ferritin, Zhao B, Shang P*, 2021
  • HO-1: A new potential therapeutic target to combat osteoporosis, Che JM, Shang P*, 2021
  • Iron overload induces apoptosis of osteoblast cells via eliciting ER stress-mediated mitochondrial dysfunction and p-eIF2α/ATF4/CHOP pathway in vitro, Che JM, Shang P*, 2021
  • Recent advances in paper-based preconcentrators by utilizing ion concentration polarization, Meng ZY, Shang P*, 2021
  • Magnetic fields as a potential therapy for diabetic wounds based on animal experiments and clinical trials, Lv HH, Shang P*, 2021
  • Static magnetic field (2-4 T) improves bone microstructure and mechanical properties by coordinating osteoblast/osteoclast differentiation in mice, Yang JC, Shang P*, 2021
  • Static magnetic field of 0.2 ~ 0.4 T promotes the recovery of hindlimb unloading-induced bone loss in mice, Yang JC, Shang P*, 2021
  • Moderate static magnetic fields prevent bone architectural deterioration and strength reduction in ovariectomized mice, Yang JC, Shang P*, 2021
  • Effect of high static magnetic field (2 T-12 T) exposure on the mineral element content in mice, Wang SH, Shang P*, 2021
  • Effect of high static magnetic fields on biological activities and iron metabolism in MLO-Y4 osteocyte-like cells, Yang JC, Shang P*, 2021
  • Disorder of iron metabolism inhibits the recovery of unloading-induced bone loss in hypomagnetic field, Xue YR, Shang P*, 2020
  • Iron overload-Induced osteocyte apoptosis stimulates osteoclast differentiation through increasing osteocytic RANKL production in vitro, Yang JC, Shang P*, 2020
Space Bone Loss Osteoblasts Osteoclasts Microgravity Radiation Magnetic Fields Cell Signaling Drug Development Tissue Engineering Biological Effects Bone Health Tumor Systems Nanomedicine Drug Delivery Medical Devices Health Maintenance Magnetic Therapy Biomedical Engineering Health Engineering Biomedical Devices Cancer Therapy Biomaterials Medical Technology Innovation Aerospace Space Missions Physiological Effects Health Risks Countermeasures Space Medicine Proteins Peptides Polysaccharides Tumor Metastasis Pharmacology Biotechnology Molecular Biology

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