博士申请攻略 | 悉尼大学 生物机械学方向博导介绍

本期老师就来为大家介绍悉尼大学 生物机械学方向Professor Arnold Lining Ju。

博导信息

Professor Arnold Lining Ju

• BSc Peking University, China
• PhD Georgia Tech and Emory Uni, USA
• Snow Fellow and Australian Heart Foundation Future Leader Fellow, School of Biomedical Engineering
• Sir Zelman Cowen Investigator, Heart Research Institute

导师主页：https://www.sydney.edu.au/engineering/about/our-people/academic-staff/arnold.ju.html

导师介绍

Associate Professor Arnold Ju 美国佐治亚理工学院和埃默里大学生物医学工程博士。2014年加入墨尔本莫纳什大学澳大利亚血液病研究中心，任初级博士后（junior postdoc）；并于2015年搬到悉尼，加入心脏研究所。2020年初，Dr Ju加入悉尼大学（USYD）的新BME学院，担任高级讲师，并启动了机械生物学和生物力学实验室（MBL）。

研究兴趣

Keywords: Mechanobiology, Biomechanics, Organ-on-chip, Biofabrication, Single-molecule biophysics, Thrombosis, Inflammation, Stroke, Haematology

通过将血液流动背后的机械力量及其对血液蛋白和凝血细胞的影响联系起来，Dr Ju建立了一个名为“机械生物学”的新领域。他的工作为帮助诊断、治疗和控制凝血疾病找到了更好的解决方案。

为了研究单细胞到分子尺度的机械生物学，Dr Ju发明了一种纳米工具，称为生物膜力探针（BFP）。它在机械和化学方面提供精确的控制和定量读数，这特别适合于活细胞机械传感研究。他还使用单细胞生物力学纳米工具来研究血小板在复杂的血流动力学微环境中产生血栓的机制。

正在招生的硕博项目

• Acoustic-Driven Platforms for Cellular and Molecular Mechanobiology in Thrombosis, Cancer, and Immunity
• Develop single-cell mechanobiological methods for discovering molecular mechanisms of cardiovascular and neuronal mechanical force sensing
• Establishing an RNA Sequencing and Bioinformatics Framework for Analysing Gene Expression in Organ-on-a-Chip Models
• Automated 3D microprinting of movable type microvasculature-on-a-chip using AI algorithm development in the study of patient-specific vessel models for thrombosis assessment
• Artificial Intelligence (AI) assisted single-cell biomechanical nanotools for cardiovascular mechanobiology
• Harnessing Ancient Chinese Movable Type 3D Printing for Point-of-Care Microfluidic Diagnostics in Cardiovascular and Cerebrovascular Diseases
• Artificial Intelligence (AI) assisted novel design and molecular dynamics simulation of anti-thrombotic peptides and experimental validation by nanomedicine delivery
• Exploring Tumor-Endothelium Mechanobiology: Development of Advanced Imaging Technologies for 3D Cancer-Induced Thrombosis