My research journey is driven by a fundamental question: how can we bridge the gap between biological intelligence and artificial systems? The brain, with its remarkable efficiency and adaptability, offers a blueprint for the next generation of computing architectures.
I am particularly fascinated by the computational principles underlying neural information processing. Through my work in spiking neuron simulations and biophysical modeling, I aim to understand not just what neurons do but also how they do it and how these mechanisms can be translated into efficient neuromorphic and brain-inspired computational systems, with relevance to large-scale neural modeling and adaptive intelligence.
My interdisciplinary background in mathematics and ongoing studies in AI equip me to approach these challenges from both theoretical and applied perspectives.
My research interests focus on computational neuroscience and neuromorphic computing, with an emphasis on brain-inspired models for efficient intelligence. I am interested in understanding how biological principles such as spike-based communication, synaptic plasticity, and neural dynamics can be translated into spiking neural networks and low-power learning systems. My long-term goal is to pursue doctoral research that integrates theoretical modeling with practical neuromorphic and AI applications.