In addition to the conventional demands such as faster operation and larger throughput, low power operation for low-carbon emission and robust operation not damaged even in a disaster are required for the development of the next generation information technology. To meet these demands, studies on high functional and high performance Si-based semiconductor devices realized by 3-D nano-processing and large scale integration of such devices are important research subjects. We study the subjects such as new transistors and memories using new materials, new devices based on new principles like quantum effects, and required 3-D processing. Moreover, we develop advanced technologies related to 3-D nano-integration, dependable mixed signal LSI, and non von Neumann architecture.
Nano-Integration Devices (Prof. Sato)
Our short-term research subjects are the development of brain computing device having functionalities such as non-volatile memory, multiplication, and addition, the high-density implementation of these devices, and the development of an intelligent device utilizing quantum mechanical property. Also, we make efforts to apply these device technologies to non-von Neumann computers including a brain computer in future.
- Brain computing hardware.
- Intelligent quantum hardware.
- Brainmorphic visual information processing system.
Group IV Quantum Heterointegration(Assoc. Prof. Sakuraba)
The following researches are being advanced: (1) Atomic-order control of highly strained group IV semiconductor heterostructure formation in a nanometer-order ultrathin region which utilizing plasma CVD reaction at low temperatures without substrate heating, (2) Systematic investigation and control of charge transport phenomena including quantum phenomena in the highly strained group IV semiconductor heterostructures to find out novel electronic properties, (3) Heterointegration of the group IV semiconductor quantum heterostructures and high-performance nanodevices into the Si large-scale integrated circuits.
- Low-damage plasma CVD process without substrate heating for epitaxial growth of highly strained group IV semiconductors
- Large-scale integration process of group IV semiconductor quantum heterostructures
- Fabrication of high-performance nanodevices utilizing group IV semiconductor quantum heterostructures