Ning Qin, PhD

Qilu Young Scholar, Professor

School of Energy and Power Engineering, Shandong University

17923 Jingshi Road, Jinan, Shandong, China 250061

• 2018/05/01-2019/05/03
  美国哈佛大学医学院 (Harvard Medical School)
  Biomedical Engineering
  Postgraduate (Postdoctoral)
• 2012/09/01-2017/05/31
  University of Waterloo
  Mechanical Engineering
  With Certificate of Graduation for Doctorate Study
• 2009/09/01-2012/06/30
  Chinese Academy of Sciences-TIPC
  Refrigeration and Cryogenic Engineering
  With Certificate of Graduation for Study as Master's Candidates
• 2005/09/01-2009/06/30
  Shandong University
  Power Engineering and Engineering Thermophysics
  University graduated

• 2022-03 — Now
  School of Energy and Power Engineering, Shandong University
  Professor
• 2021-06 — 2022-02
  Centre for Ocular Research & Education, University of Waterloo, Canada
  Postdoctoral fellow
• 2020-02 — 2021-05
  School of Optometry & Vision Science, University of Waterloo, Canada
  Research associate
• 2019-06 — 2020-02
  Waterloo Microfluidics Laboratory, University of Waterloo, Canada
  Research associate
• 2018-05 — 2019-04
  Wellman Center for Photomedicine, Harvard Medical School, Massachusetts General Hospital
  Postdoctoral fellow

1. Nano- and micro-scale fluid dynamics

2. Carbon capture, storage, and utilization

3. Microengineering for advanced diagnostics and therapeutics

4. 生物流体力学仿真计算

(1)Ikram Ullah. Recent advances in inorganic oxide semiconductor-based S-scheme heterojunctions for photocatalytic hydrogen evolution .Inorganic Chemistry Frontiers .2024

(2)刘波. Continuous production of bimetallic nanoparticles on carbon nanotubes based on 3D-printed microfluidics .Nanoscale .2024 ,16 (5)

(3)Yinglong Zhang. Comprehensive correlation analysis enabled neural network prediction of heat and mass transfer during gas hydrate decomposition .Fuel .2024 ,382

(4)He Zhennan. Strong effect of often-overlooked initial spilled oil distribution on subsequent soil remediation: A pore-scale perspective .Journal of Cleaner Production .2024 ,478

(5)YInglong Zhang. Microscopic insights into interface characteristics of methane hydrate dissociation under external stimulations and molecular defects .Colloids and Surfaces A: Physicochemical and Engineering Aspects (703)

(6)Ikram Ullah. Emerging Trends in CdS-Based Nanoheterostructures: From Type-II and Z-Scheme toward S-Scheme Photocatalytic H2 Production .The Chemical Record

(7)周东方. 硅基LHP蒸发器传热特性研究 .Kung Cheng Je Wu Li Hsueh Pao/Journal of Engineering Thermophysics .2024 ,45 (01):241-245

(8)Megala Ramasamy. Inexpensive and rapid fabrication of PDMS microfluidic devices for biological testing applications using low cost commercially available 3D printers .Journal of Micromechanics and Microengineering .2023 ,33 :105016

(9)Yinglong Zhang. CO2-on-a-Chip: Current Status and Prospects of Carbon Dioxide Microfluidic Technology .Journal of Refrigeration .2023 ,44 (4):34-43-50

(10)Sahil Kashyap. Effects of surfactant size and concentration on the internal flow fields of moving slug and Disk-like droplets via μ-PIV .Chemical Engineering Science .2022 ,255 :117668

(11)Weijia Cui,Pei Zhao. Reagent free detection of SARS-CoV-2 using an antibody-based microwave sensor in a microfluidic platform .Lab on a Chip .2022 ,22 (12):2307-2314

(12)Wasim Kapadia,Ning Qin. Shear-thinning and Temperature-dependent Viscosity Relationships of Contemporary Ocular Lubricants .Translational Vision Science & Technology .2022 ,11 (3):1

(13)Ning Qin. Microfluidic technology for antibacterial resistance study and antibiotic susceptibility tests: review and perspective .ACS Sensors .2020 ,6 (1):3-21

(14)Pei Zhao,Ning Qin. Surface modification of polyamide meshes and nonwoven fabrics by plasma etching and a PDA/cellulose coating for oil/water separation .Applied Surface Science .2019 ,481 :883-891

(15) Surface modification of polymer filters by etching and a PDA coating for oil-water separation .Abstract reviewed for 2018 Materials Research Study Fall Meeting & Exhibit .2018

(16)Pei Zhao,Ning Qin. Polyamide 6.6 separates oil/water due to its dual underwater oleophobicity/underoil hydrophobicity: Role of 2D and 3D porous structures .Applied Surface Science .2018 ,466 :282-288

(17)Ning Qin. On nonequilirium shrinkage of supercritical CO2 droplets in a water-carrier microflow .Applied Physics Letters .2018 ,113

(18)Ning Qin. Numerical study on single flowing liquid and supercritical CO2 drop in microchannel .Inventions .2018 ,3 (2)

(19)Ning Qin. Hydrodynamic shrinkage of liquid CO2 Taylor drops in a straight microchannel .Journal of Physics: Condensed Matter .2018 ,30

(20)Ning Qin. Highly pressurized partially miscible liquid-liquid flow in a micro T-junction. II. theoretical justifications and modelling .Physical Review E .2017 ,95

(21)Ning Qin. Highly pressurized partially miscible liquid-liquid flow in a micro T-junction. I. experimental observations .Physical Review E .2017 ,95

(22)Pei Zhao. Photocatalytic performances of ZnO nanoparticle film and vertically aligned nanorods in chamber-based microfluidic reactors: reaction kinetics and flow effects .Applied Catalysis B: Environmental .2017 ,209 :468-475

(23) A planar micro-to-mili-photoreactor for photodegradation of organic matters in water .Abstract reviewed for 2016 European Molecular Biology Laboratory Conference: Microfluidics .2016

(24) Application of laser triangulation in piston displacement and PV work measurements of linear compressor in a pulse tube refrigerator .Proceedings of 24th International Cryogenic Engineering Conference .2013

(25)Ning Qin. New method for piston displacement and PV power measurements of linear compressor .Cryogenics .2012 (2):5-10

1. 一种集成取样、制样及检测功能的微流控装置

2. 基于矩形微通道尺寸的胶囊状液滴尺寸估计方法及系统

3. 三维可视化微流控实验系统及相界面重构方法

4. 一种基于微液滴的稀释制冷用微流控芯片及系统

5. 一种适用于气动微流控芯片的按压装置及方法

6. 一种集成取样、制样及检测功能的微流控装置

7. 一种模拟多孔介质的微流控芯片及其制作方法

8. 用于定量混合微升级液体的气动式微流控芯片及工作方法

9. 用于直接空气碳捕集的微气泡塔式反应器、方法及系统

10. 一种基于气体水合物的燃料电池系统及工作方法

11. 一种基于微小空气泡的直接空气碳捕集系统及方法

12. 适用于测量微升级液体样品粘度的微流控芯片及方法

13. 一种用于测量微升级液体样品粘度的系统及方法

14. Microfluidic viscometer for measuring the viscosity of microliter-volume liquid samples

15. A portable device integrated with a microfluidic platform, a microwave sensor, and a palm-sized VNA for detection of virus, antigen, and other pathogens

1. （包干项目）基于“先进功能材料+微波技术+微流控平台”的新型环境检测和即时医疗诊断技术的研究与开发, 2023/01/01-2025/12/31

2. （包干项目）微尺度流体动力学, 2022/03/30-2025/03/31

3. Microscale fluid dynamics and microfluidic methods, 2022/03/01

4. Microscale fluid dynamics, 2022/04/01