
Our research targets nitride (AlN, GaN, InN, BN) and diamond semiconductors. Through high-quality crystal growth and device applications, we aim to create technologies that make a meaningful impact on society.

We explore and create novel materials, elucidate emergent physical phenomena unique to low-dimensional systems, and demonstrate next-generation electronic and photonic devices.

Membrane proteins such as nuclear and biological molecules of the body-friendly, brain and interface with potential new device concepts Nanobio-device advocated the realization of the research assignments.

The research target is to realize ultra-low power and high functional devices, high-sensitivity devices, and high-precision devices by utilizing nanometer-scale structures.

We are conducting research aimed at exploring new physical phenomena arising from the interaction between electricity, light, magnetism, and mechanical vibrations, and at creating innovative nanotechnologies based on these phenomena.

For realizing a new generation of optical devices that will bring about a revolution in optical information/transmission technology, we propose new device operating principles to overcome current limits.

We are conducting a unified research of fabrication, theoretical analysis, and evaluation for photonic crystals, with aiming to overcome various limitations in the today's photonics technologies and to realize breakthroughs in photonic information processing.

We aim to revolutionize communication and information processing by harnessing both the quantum nature and analog characteristics of light. Our research includes quantum communication and information processing using networks of optical oscillators.

Our group theoretically investigates fundamental principles of quantum physics and quantum information processing and how they can be applied to the development of quantum-enabled technologies.

We aim to realize novel /quantum systems from Josephson junction based superconducting circuits that are founded on new physical principles and fabricated using cutting edge technologies. The aim of this work is to both study and harness the opportunities arising from quantum phenomena for new fundamental science and applications that cannot be satisfied by existing technologies.

We are conducting research aimed at discovering and controlling novel quantum effects arising from electron correlations in solids. Our goal is to establish a new field called quantum correlated electronics, and to pioneer quantum devices and innovative control technologies.

The Nanophotonics Center utilizes nanophotonics technology to conduct innovative research with the aim of establishing large-scale photonic integration technology that integrates optical devices with various functions in large numbers at high density, and reducing energy consumption of photonic information processing to the absolute minimum.

We are pursuing innovative cutting-edge theoretical research in quantum information science with a focus on understanding its fundamental nature. Our goal is to design quantum enabled technologies exploiting such a nature.

BMC promotes basic and applied research such as biocompatible new materials, biosensing technology, medical care and behavioral information analysis technology, and co-innovation with partners.