Abstract Millimeter-wave (mm-wave) and Terahertz (THz) technologies have shown
applications ranging from high-speed wireless communications to biomedical imaging …

The high millimeter-Wave and Terahertz spectrum above 100 GHz will form the
underpinning of a broad set of game-changing future technology including high resolution …

In order to keep up with rising global demand for bandwidth, future generations of both
wireless and wireline technology will need to exploit the spectral range over 100 GHz-1 …

This paper summarizes our approaches which synthesize the optimum electromagnetic
(EM)-wave environment around various silicon devices, in order to maximize the device …

Silicon-based integrated circuit technology provides a great platform for enabling compact,
efficient, low-power, chip-scale THz systems for new applications in sensing, imaging and …

Unlocking the potential of terahertz (THz) and millimetre (mm) waves for next generation
communications1–4 and imaging 5, 6 applications requires reconfigurable intelligent …

The development of data links between different microchips of an on-board system has
encountered a speed bottleneck due to the excessive transmission loss and dispersion of …

The emergence of Internet of Things (IoT) has brought forth new opportunities by seamlessly
integrating the physical world using computing, sensing, and wireless networks …

Unlocking the potential of terahertz (THz) and millimetre (mm) waves for next generation
communications and imaging applications requires reconfigurable intelligent surfaces (RIS) …

The ability to sense terahertz waves in a chip-scale technology operable at room
temperature has potential for transformative applications in chemical sensing, biomedical …