Since joining the company in 2007, I have worked on image recognition technology and its applications. From early on, my interests have leaned toward applied research rather than pure theory. My doctoral research, for example, focused on detecting vehicles from surveillance camera footage installed along roads to measure traffic flow. I also worked part-time at a startup company, where I was involved in product development using image recognition technology. Our team worked together on everything from algorithm design and performance evaluation to building demo systems, pitching to investors, and ultimately implementing the technology as a product. It was a highly fulfilling and enjoyable experience. Through these experiences, I realized that I am more motivated by seeing my research outcomes implemented and used in society than by pursuing theory alone.
My current focus is model compression—techniques for reducing the computational load of AI models so that they can operate with lower power consumption and reduced memory requirements. As AI models become more accurate, their computational load increases, leading to higher memory and power consumption. However, in-vehicle devices have strict limitations on both memory capacity and power usage. Model compression is therefore essential for bridging the gap between the computational burden of state-of-the-art AI and the performance constraints of in-vehicle devices, enabling outcomes of cutting-edge AI research to be implemented in real vehicles. The challenge of balancing AI performance with power efficiency will become increasingly important across many sectors of society, and techniques that reduce computational load to enable deployment on constrained chips can be applied far beyond automotive systems.