五年内代表论著（五篇）：

1. Z Guo, F Li, H Li, M Zhao, H Liu, H Wang, H Hu, R Fu, Y Lu, S Hu, H Xie, H Ma* and S Zhang*, Deep Learning-Assisted Label-Free Parallel Cell Sorting with Digital Microfluidics, Advanced Sciences, 12 (1), 2570001

2. Z Yang, K Jin, Y Chen, Q Liu, H Chen, S Hu, Y Wang, Z Pan, F Feng, M Shi, H Xie*, H Ma*, and H Zhou*, "AM-DMF-SCP: Integrated single-cell proteomics analysis on an active matrix digital microfluidic chip", JACS Au, 4 (5), 1811–1823 (2024).

3. Z Jia, C Chang, S Hu, J Li, M Ge, W Dong* and H Ma*, “Artificial intelligence-enabled multipurpose smart detection in active-matrix electrowetting-on-dielectric digital microfluidics” Microsystems & Nanoengineering 10 (1), 139 (2024);

4. B Zhang, J Fu, M Du, K Jin, Q Huang, J Li, D Wang, S Hu, J Li, and H Ma*, "Polar coordinate active-matrix digital microfluidics for high-resolution concentration gradient generation", Lab on a Chip, 24 (8), 2193–2201 (2024).

5. S Hu, J Ye, S Shi, C Yang, K Jin, C Hu, D Wang, and H Ma*, "Large-Area Electronics-Enabled High-Resolution Digital Microfluidics for Parallel Single-Cell Manipulation", Analytical Chemistry (2023);

代表性会议论文

(IEDM2023) J Yu, S Jiang, D Wang, C Chang, Z Jia, M Du, S Shi, J Li, W Dong, H Ma* and A Nathan*, “Field programmable digital microfluidics chip for high-throughput droplet array manipulation” 2023 IEEE International Electron Devices Meeting

(IEDM 2021) C Jiang, C Tsangarides, X Cheng, L Ding, H Ma, and A Nathan, “High Stretchability Ultralow-Power All-Printed Thin Film Transistor Amplifier on Strip-Helix-Fiber”, 2021 IEEE International Electron Devices Meeting

(IEDM2020) H Ma*, S Shi, K Jin, D Wang, S Hu, Y Su, Y Zhang, J Li, Z Liu, C Jiang, L Feng, X Guo and A Nathan, “Large-area manufacturable active matrix digital microfluidics platform for high-throughput bio-sample handling”, 2020 IEEE International Electron Devices Meeting

（microtas）

(1) Siyi Hu, Chao Yang, Yuhan Jie, Haifei Yang, Yang Su and Hanbin Ma*，All-in-One Digital Microfluidic System for Molecular Diagnosis Based on the Loop-Mediated Isothermal Amplification, 2020, MicroTAS (Online).

(2) Siyi Hu, Subao Shi, Jingmin Ye, Chuyu Chen, Dongping Wang and Hanbin Ma*, ACTIVE-MATRIX DIGITAL MICROFLUIDICS PLATFORM FOR SINGLE CELL GENERATION AND MANIPULATION, 2021, MicroTAS (Online).

(3) Siyi Hu, Qi Huang, Jie Yue, Kai Jin, Chenxuan Hu and Hanbin Ma*, ON-CHIP ELECTROPORATION IN EWOD DIGITAL MICROFLUIDICS, 2022, MicroTAS (Hangzhou, China).

(4) Chenxuan Hu, Siyi Hu, Qi Huang, and Hanbin Ma*, Combined Particle sorting and Droplet manipulation on Digital Microfluidic System by Dielectrophoresis and Electrowetting, 2022, MicroTAS (Hangzhou, China).

(5) Siyi Hu, Kai Jin, Chenxuan Hu, Dongping Wang, Mude Shi, Jiahao Li and Hanbin Ma*, Platform Based on Active-matrix Digital Microfluidics for High-throughput Single-cell Processing and Single-cell Proteomics, 2023, MicroTAS (Katowice, Poland)

(6) Siyi Hu, Jianle Huang, Jiahao Li, Mude Shi, Hanbin Ma*, HIGHLY EFFICIENT PHAGE DISPLAY METHOD BASED ON THE ACTIVE-MATRIX DIGITAL MICROFLUIDICS TECHNOLOGY, 2024, MicroTAS (Montreal, Canada)

(7) Zongliang Guo, Fenggang Li, Rongxin Fu, Yao Lu, Siyi Hu, Hanbin Ma, Hang Li, Shuailong Zhang*, AI-DRIVEN DIGITAL MICROFLUIDICS FOR ENHANCED LABEL-FREE CELL SORTING, 2024, MicroTAS (Montreal, Canada)

(8) Zhiqiang Jia, Wenfei Dong, Hanbin Ma*, ARTIFICIAL INTELLIGENCE IN LARGE SCALE ACTIVE-MATRIX DIGITAL MICROFLUIDICS, 2024, MicroTAS (Montreal, Canada)

(9) Kai Jin, Zhicheng Yang, Maolin Zhang, Siyi Hu, Hu Zhou, Hanbin Ma*, AM-DMF-SCP: INTEGRATED SINGLE-CELL PROTEOMICS ANALYSIS ON AN ACTIVE-MATRIX DIGITAL MICROFLUIDIC CHIP, 2024, MicroTAS (Montreal, Canada)

期刊论文

2024

[43] J Liu, R Fu, S Zhang, J Hou, H Ma, S Hu, H Li, Y Zhang, W Wang, B Qiao, B Zang, X Min, F Zhang, J Du, and S Yan, "Rapid and multi-target genotyping of Helicobacter pylori with digital microfluidics", Biosensors and Bioelectronics, 256, 116282 (2024).

[42] D Wang, K Jin, J Ji, C Hu, M Du, Y Belgaid, S Shi, J Li, S Hu, A Nathan, J Yu, and H Ma*, "Active-matrix digital microfluidics design for field programmable high-throughput digitalized liquid handling", iScience, 27 (5), 109324 (2024).

[41] Y Zeng, X Gan, Z Xu, X Hu, C Hu, H Ma, H Tu, B Chai, C Yang, S Hu, and Y Chai, "AIEgens-enhanced rapid sensitive immunofluorescent assay for SARS-CoV-2 with digital microfluidics", Analytica Chimica Acta, 1298, 342398 (2024).

[40] Z Yang, K Jin, Y Chen, Q Liu, H Chen, S Hu, Y Wang, Z Pan, F Feng, M Shi, H Xie, H Ma*, and H Zhou, "AM-DMF-SCP: Integrated single-cell proteomics analysis on an active matrix digital microfluidic chip", JACS Au, 4 (5), 1811–1823 (2024).

[39] J Ji, C Hu, X Pang, J Liang, Q Huang, S Hu, Q Mei, and H Ma*, "Open thermal control system for stable polymerase chain reaction on a digital microfluidic chip", ACS Omega, 9 (9), 10937-10944 (2024).

[38] B Zhang, J Fu, M Du, K Jin, Q Huang, J Li, D Wang, S Hu, J Li, and H Ma*, "Polar coordinate active-matrix digital microfluidics for high-resolution concentration gradient generation", Lab on a Chip, 24 (8), 2193–2201 (2024).

2023

[37] J Wu, M Zhang, J Huang, J Guan, C Hu, M Shi, S Hu, S Wang*, andH Ma*, "Enhanced absorbance detection system for online bacterial monitoring in digital microfluidics", Analyst 148 (19), 4659 (2023);

[36] C Yang, X Gan, Y Zeng, Z Xu, L Xu, C Hu,H Ma, B Chai, S Hu*, and Y Chai*, "Advanced design and applications of digital microfluidics in biomedical fields: An update of recent progress", Biosensors and Bioelectronics, 115723 (2023).

[35] C Hu, K Jin, and H Ma*, "A universal model for continuous “one-to-two” high-efficient droplet generation in digital microfluidics", Applied Physics Letters 122 (18) (2023);

[34] S Hu, J Ye, S Shi, C Yang, K Jin, C Hu, D Wang, and H Ma*, "Large-Area Electronics-Enabled High-Resolution Digital Microfluidics for Parallel Single-Cell Manipulation", Analytical Chemistry (2023);

[33] D Wang, S Wu, Q Huang, C Chang, L Xu, K Jin, S Hu, J Yu*, and H Ma*, "Active-Matrix Digital Microfluidics Design and Optimization for High-Throughput Droplets Manipulation", IEEE Journal of the Electron Devices Society PP, 1 (2023);

[32] Y Wei, D Wang, S Jiang, H Ma*, and J Yu*, "A High-voltage Serial-in-parallel-out Shift Register with Amorphous Silicon TFTs", IEEE Journal of the Electron Devices Society PP, 1 (2023).

2022

[31] D Wang, Z Liu, J Li, W Tang, Y Huang, J Yu, L Xu, Q Huang, Y Song, L Wang, H Jin, K Xi, L Feng, X Guo, A Nathan, and H Ma*, “Thin film transistor arrays for biological sensing systems”, Flexible and Printed Electronics 7 (2022);

[30] S Hu, Y Jie, K Jin, Y Zhang, T Guo, Q Huang, Q Mei, F Ma*, and H Ma*, “All-in-One Digital Microfluidics System for Molecular Diagnosis with Loop-Mediated Isothermal Amplification”, Biosensors 12, 324 (2022);

[29] C Hu, H Zhang, C Jiang, and H Ma*, “A geometrical model of pinch-off in digital microfluidics underpins “one-to-three” droplet generation”, Applied Physics Letters 120 (12), 121602 (2022);

[28] P Zhou, H He, H Ma, S Wang*, and S Hu*, “A Review of Optical Imaging Technologies for Microfluidics”, Micromachines 13, 274 (2022);

[27] X Zhou, L Lu, Y Liu, K Wang, Y Guo, H Ma, J Yu, A Nathan, and J Sin, “Potential of the Amorphous Oxide Semiconductors for Heterogeneous Power Integration Applications”, IEEE Transactions on Electron Devices PP, 1 (2022).

2021

[26] K Jin, C Hu, S Hu, C Hu, J Li, and H Ma*, “One-to-three” droplet-generation-based digital microfluidics enable a parallel on-chip chemiluminescence immunoassay, Lab on a Chip 21 (15), 2892 (2021).

2020

[25] L Xu, C Hu, Q Huang, K Jin, P Zhao, D Wang, W Hou, L Dong, S Hu, and H Ma*, “Trends and recent development of the microelectrode arrays (MEAs)”, Biosensors & bioelectronics, 112854 (2020).

[24] G Yao, H Ma*, S Sambandan, J Robertson and A Nathan, “Indium silicon oxide TFT fully photolithographically processed for circuit integration”, IEEE Journal of the Electron Devices Society,

[23] W Hou, S Hu, K-T Yong, J Zhang* and H Ma*, “Cigarette smoke-induced malignant transformation via STAT3 signalling in pulmonary epithelial cells in a lung-on-a-chip model”, Bio-Design and Manufacturing, 2020

[22] S Hu, B Zhang, S Zeng, L Liu, K-T Yong, H Ma* and Tang Y, “Microfluidic Chips Enabled One-step Synthetization of Biofunctionalized CuInS2/ZnS Quantum Dots”, Lab on a chip, 2020,20,3001

[21] C Zhang, Y Su, S Hu, K Jin, Y Jie, W Li, A Nathan and H Ma*. “An impedance sensing platform for monitoring heterogeneous connectivity and diagnostics in lab-on-a-chip systems”, ACS omega 5 (10), 5098-5104

[20] H Ma*, S Hu, Y Jie, K Jin and Y Su*. “A floating top-electrode electrowetting-on-dielectric system”, RSC Advances 10 (9), 4899-4906

[19] K Jin, P Zhao, W Fang, Y Zhai, S Hu, H Ma and J Li. “An Impedance Sensor in Detection of Immunoglobulin G with Interdigitated Electrodes on Flexible Substrate”. Applied Sciences 10 (11), 4012

2019

[18] K Jin, S Hu, Y Su, C Yang, J Li* and H Ma*. “Disposable impedance-based immunosensor array with direct-laser writing platform”, Analytica chimica acta 1067, 48-55

[17] S Hu, Y Ren, Y Wang, J Li, J Qu, L Liu*, H Ma* and Y Tang. “Surface plasmon resonance enhancement of photoluminescence intensity and bioimaging application of gold nanorod@CdSe/ZnS quantum dots” Beistein Journal of Nanotechnology. 2019, 10, 22-31.

[16] C Jiang, H W Choi, X Cheng, H Ma, D G.Hasko and A Nathan*. “Printed subthreshold organic transistors operating at high gain and ultralow power” Science, 2019, 363(6248), pp 719-723.

[15] W Hou, S Hu, C Li, H Ma, Q Wang, G Meng, T Guo, J Zhang. “Cigarette smoke induced lung barrier dysfunction, EMT, and tissue remodeling: a possible link between COPD and lung cancer”. BioMed research international 2019

Ÿ 2018及更早

[14] C. Day, S. Sopstad, H. Ma, C. Jiang, A. Nathan, S.R. Elliott, F.E. Karet Frankl and T. Hutter*. “Impedance-based sensor for potassium ions” Analytica Chimica Acta, 2018, 1034, pp 39-45.

[13] Y Su, H Li, H Ma, H Wang, J Robertson, A Nathan. “Dye-Assisted Transformation of Cu2O Nanocrystals to Amorphous CuxO Nanoflakes for Enhanced Photocatalytic Performance”. ACS omega 3 (2), 1939-1945

[12] Z Guo, L Zhou, Y Tang, L Li, Z Zhang, H Yang, H Ma, A Nathan, D Zhao. “Surface/Interface Carrier-Transport Modulation for Constructing Photon-Alternative Ultraviolet Detectors Based on Self-Bending-Assembled ZnO Nanowires” ACS applied materials & interfaces 9 (36), 31042-31053

[11] C Jiang, H Ma, D G.Hasko, X Guo and A Nathan. “A Lewis-Acid Monopolar Gate Dielectric for All-Inkjet-Printed Highly Bias-Stress Stable Organic Transistors.” Advanced Electronic Materials, 2017,3,1700029

[10] Y Su, H Li, H Ma, J Robertson, A Nathan*. "Controlling surface termination and facet orientation in Cu2O nanoparticles for high photocatalytic activity: a combined experimental and density functional theory study." ACS Applied Materials & Interfaces, 2017, 9(9), pp 8100-8106.

[9] S Gao, X Wu, H Ma, J Robertson, A Nathan. “Ultrathin multifunctional graphene-PVDF layers for multidimensional touch interactivity for flexible displays” ACS applied materials & interfaces 9 (22), 18410-18416

[8] H Ma, Y Su, C Jiang and A Nathan*. "Inkjet-printed Ag electrodes on paper for high sensitivity impedance measurements." RSC Advances 6 (87), 84547-84552.

[7] L Feng, C Jiang, H Ma, X Guo and A Nathan*. "All ink-jet printed low voltage organic field-effect transistors on flexible substrate." Organic Electronics 38, 186-192

[6] C Jiang, H Ma, D G. Hasko, and A Nathan*. "Influence of polarization on contact angle saturation during electrowetting." Applied Physics Letters 109, no. 21 (2016): 211601.

[5] C Tsangarides, H Ma and A Nathan*. "ZnO nanowire array growth on precisely controlled patterns of inkjet-printed zinc acetate at low-temperatures." Nanoscale 8 (22), 11760-11765

[4] Y Su, A Nathan, H Ma, H Wang. “Precise control of Cu 2 O nanostructures and LED-assisted photocatalysis” RSC advances 6 (81), 78181-78186

[3] H Ma, J Li, X Cheng and A Nathan*. "Heterogeneously integrated impedance measuring system with disposable thin-film electrodes." Sensors and Actuators B: Chemical 211 (2015): 77-82.

[2] H Ma, Y Su and A Nathan*. "Cell constant studies of bipolar and tetrapolar electrode systems for impedance measurement." Sensors and Actuators B: Chemical (2015): 1264-1270.

 [1] H Ma, R Wallbank, R Chaji, J Li, YSuzuki, C Jiggins and A Nathan*. "An impedance-based integrated biosensor for suspended DNA characterization." Scientific Report, Nature Publishing Group, 3:2730.