Biomedical Engineer & Medical Research Scientist
Ph.D. in Biomedical Engineering with hands-on research experience in neuromodulation, electrophysiology, and medical device development. Seeking opportunities in biomedical engineering, medical device R&D, or translational research.
I am a Ph.D. in Biomedical Engineering with hands-on research experience in neuromodulation, electrophysiology, and medical device development. My doctoral work focused on developing and optimizing non-invasive electrical stimulation techniques to study neurotransmitter release with high temporal resolution.
I bring a strong foundation in experimental design, data analysis, and interdisciplinary collaboration, along with a solid understanding of engineering principles applied to biological systems. With over 6 years of research experience, I have conducted groundbreaking experiments using fluorescence microscopy and electrophysiology techniques.
I'm currently seeking opportunities in biomedical engineering, medical device R&D, or translational research where I can contribute my technical expertise and continue to grow in a fast-paced, innovation-driven environment. My work focuses on the intersection of engineering and medicine, applying computational modeling, 3D design, and experimental techniques to solve real-world healthcare challenges.
Specialization: Bioelectromagnetics/Neuroscience
Coursework: Molecular Pharmacology, Neurobiology, Biomicrofluidics
Coursework: Immunology, Biomedical Instrumentation, Bioinformatics, Imaging and Optics, Deep Learning, Distributed Antenna Systems
Foundation in biomedical engineering principles, medical device design, and healthcare technology
Developed and optimized non-invasive electrical stimulation techniques to study neurotransmitter release with high temporal resolution. Created comprehensive system for precise neuromodulation with real-time monitoring capabilities.
Implemented convolutional neural network for classifying BreakHis breast cancer histopathology dataset, achieving high accuracy in distinguishing between benign and malignant tissue samples.
Designed and manufactured microfluidic chip with integrated concentration gradients to emulate physiological microenvironments for 3D cancer cell culture and drug screening applications.
Engineered custom switching system for electrical isolation between cell monitoring and pulse delivery, enabling precise amperometric measurements during electrical stimulation experiments.
Developed NEBG (non-invasively estimated blood glucose) model using infrared thermometry achieving AUC of 0.783 in risk discrimination compared to traditional scoring methods for diabetes screening.
Designed and simulated bionic glove system for rehabilitation of paralytic patients, incorporating sensor feedback and motor control for assisted hand movement and therapy applications.