Random quantum circuit easiest way to beat classical computer Researchers suggest modeling chaotic circuits to demonstrate quantum supremacy.

Fig 1. A typical CMOS input circuit comprises a “P” and “N” transistor. One is fully “on” for logic high, and the other is “on” for a logic low. Fig 2. When a CMOS input pin is at ...

The circuit uses the ECLinPS logic family (Reference 1). The MC10EL16 liner receiver converts the incoming noise to a digital signal. Next, a rising clock edge of the first MC10EL31 flip-flop samples ...

Non-volatile bistable memory circuits being developed by Satoshi Sugahara and his team at Tokyo Tech pave the way for highly energy-efficient CMOS logic systems.

Mostly-Analog editor Andy Turudic takes a look at the original 1963 ISSCC paper that described the world’s first CMOS process with planar P- and N-type MOSFETs.

In the world of engineering, “noise” – random fluctuations from environmental sources such as heat – is generally a bad thing. In electronic circuits, it is unavoidable, and as circuits ...

A team of engineers, physicists and quantum specialists at Google Research has found that reducing noise to a certain level allows the company's sycamore quantum chip to beat classical computers ...

Random Logic's technology enhancements will provide the infrastructure for Magma's RTL-to-GDSII flows and will also continue to provide value to other extraction tools via the QuickCap APIs that exist ...

For decades, microprocessor designers have resized transistors as part of full-custom design techniques, tweaking them by hand in arrays, muxes, register files and data flow stacks in critical ...