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.