Our lab focuses on embedded system and ultrasound technologies with applications in medical instrumentation. Embedded system is a highly specialized computing system performing device specific task. It contains microcontrollers or Field Programmable Gate Array (FPGA) as the computing core. Our lab specialize in LabVIEW, a cross platform graphic programming language from National Instruments and is equipped with the latest hardware from National Instruments including multi-function data acquisition hardware, compactRIO system, PXI system with modular instruments and multi-functional FPGA, and LabVIEW robotics kit for fast prototype development. Our projects include:
- Wireless healthcare:
wireless healthcare provides help in chronic care management, real time diagnostic monitoring, medication management and senior independent living. This research focuses on the establishment of a wireless sensor network platform based on IEEE 801.15.4 standard that can monitor the patient vital signals (ECG, temperature, blood pressure) in real time. The system includes low cost, light-weighted mobile units capable of collect biosignals and backend data processing station. It can provide a complete history as well as real time monitoring of the patient medical conditions and help doctor in diagnosis of diseases and detection of early warning signs of major medical events such as stroke and heart attack. The system is scalable and can be used either in home or hospital settings.
- Vision Prosthesis:
Our research focuses on the evaluation of the performance of implanted vision prosthesis and related assistive technology. We have built vision prosthesis simulator platform to avoid the risk of using volunteers with true vision implant. Current projects include information delivery through phosphene image and potable navigation assistant device for the vision impaired patients.
- Ultrasound Assessment of Skeleton System:
Current research focuses on the modulated ultrasound in both diagnostic and therapeutic applications in muscular skeletal system. Our study has demonstrated that frequency modulated ultrasound is a promising ultrasound signal format in the assessment of bone properties. Amplitude modulated ultrasound also demonstrated that it can deliver mechanical stimualtion to enhance bone healing. Further research will seek the optimal modulated ultrasound signals for diagnostics and treatment of muscular skeleton diseases.
- High Performance Computing:
High performance computing (HPC)
usually relies on supercomputers to solve complex problems. Recent technology has enabled us to build HPC system with low cost off shelf components. Current research focuses on the use of LabVIEW FPGA to accelerate biological computation problems.
- 2001.5: Ph.D. Mechanical Engineering, Stony Brook University
- 1989.1: M.S. Mechanical Engineering, Shanghai Jiaotong University
- 1986.7: B.S. Biomedical Engineering and Instrumentation, Shanghai Jiaotong University
- 2004.12: Research Assistant Professor, Department of Biomedical Engineering, Stony Brook University
- 2002.6.-2004.12: Research Associate, Department of Biomedical Engineering, Stony Brook University
- 2001.6-2002.5: Postdoctoral Research Associate, Department of Biomedical Engineering, Stony Brook University
- 1993.6-1995.8: Lecturer , Department of Mechanical Engineering, Fudan University, Shanghai, PR China.
- 1989.1-1993.5: Assistant Professor, Department of Mechanical Engineering, Fudan University, Shanghai, PR China
Selected Peer Reviewed Papers:
- Uddin, S., Cheng, J., Lin, W. Yi-Xian Qin, Low-Intensity Amplitude Modulated Ultrasound Increases Osteoblastic Mineralization, Cellular and Molecular Bioengineering, 4(1), p81-90, 2011
- Cheng JQ, Lin W, Qin YX, Extension of the distributed point source method for ultrasonic field modeling, Ultrasonics, 51(5)P571-580,JUL 2011
- Cheng, J, Lu, J-Y, Lin, W, Qin, Y-X, A new algorithm for spatial impulse response of rectangular planar transducers, Ultrasonics, 51(2), 229-237, Feb. 2011
- Lin W, Xia Y, Qin Y, Characterization of the trabecular bone structure using frequency modulated ultrasound pulse, Journal of Acoustic Society of America, 125(6), 4071-4077, June 2009
- Xia, Y., Lin, W and Qin, Y-X., Bone surface topology mapping and its role in trabecular bone quality assessment using scanning confocal ultrasound, Osteoporosis International, 18, 905-913, March 2007
- Lin, W., Mittra, E., Qin, Y-X., Determination of Ultrasound Phase Velocity in Trabecular Bone Using Time Dependent Phase Tracking Technique, ASME Journal of Biomedical Engineering, 128(2), 24-29, Feb, 2006
- Xia, Y., Lin, W, Qin, Y-X., The Influence of Cortical end-plate on Broadband Ultrasound Attenuation Measurements at the Human Calcaneus Using Scanning Confocal Ultrasound, Journal of Acoustic Society of America, 118 (3), 1801-1807. Sept. 2005
- Qin Y-X., Lin W., Rubin C. The pathway of bone fluid flow as defined by in vivo intramedullary pressure and streaming potential measurements. Annals of Biomedical Engineering, 30 (5): 693-702 MAY 2002
- Rubin C., Turner AS., Muller R., Mittra E., McLeod K., Lin W., Qin Y-X. Quantity and quality of trabecular bone in the femur are enhanced by a strongly anabolic, noninvasive mechanical intervention. Journal of Bone and Mineral Research. 17 (2): 349-357 FEB 2002
- Lin W., Qin Y-X., Rubin C. Ultrasonic Wave propagation in trabecular bone predicted by the stratified model. Annals of Biomedical Engineering, 29 (9): 781-790 SEP 2001