The patent discloses a method for modifying silicon (Si) surfaces to reduce reflections and enhance absorption across a broadband wavelength range (200 nm to 3300 nm).

The patent describes a method for fabricating a three-terminal resistive random-access memory (3T-RRAM) device.

The invention relates to a magnetron apparatus with an innovative strapping design that enhances mode separation by increasing the capacitance between straps.

This invention addresses the problem by characterizing the stochastic Set in PCMO RRAMs, leveraging the device's internal state (resistance) and external input (voltage pulse) for control.

This innovation is an inductor-less Low-Noise Amplifier (LNA) designed for low power, wideband applications, incorporating dual-stage noise cancellation and linearity modes.

These proposed innovative systems and methods are for making radar radio waves travel better through different materials, like those found in the atmosphere or other substances.

Methods and systems for predicting weather events and their extremes using deep learning are disclosed.

The invention pertains to a method and electronic device designed to create a non-uniformly thick matching layer for 3D components in vehicles, such as bumpers, that house radar modules.

This invention explores ways to make Organic Light Emitting Diodes (OLEDs) emit more light and be more efficient. OLEDs create light through particles called singlet excitons.

This invention details a method and system for fabricating an Ultra-Violet (UV) photo detector using a process called Chemical Vapor Deposition (CVD). It involves growing a Zinc Oxide (ZnO) layer on a Gallium Nitride (p-GaN) substrate.