Sri International

Other

Marc Rippen

John W Hodges

Yigal Dov Blum

Winston Kong Chan

Lawrence C Langebrake

John Hubert

David K Hui

David Brent McQueen

Lawrence Bach

Carl Biver, Jr

Mark Schwarzbach

Srinivasan Krishnamurthy

John Hodges, Jr

The mapping of electric power distribution circuits and electric power outlets to breakers in a breaker panel is accomplished by providing a plurality of smart power testing devices and a control device that communicates with each of the smart power testing devices. Each of the smart power testing devices is connected to a respective one of the electric power outlets in a structure. Each smart power testing device can detect the AC voltage level provided at the electric power outlet. A user opens each breaker in the breaker panel, in succession. When a smart power testing device senses loss of AC voltage, it transmits a message to the control device. The control device can then identify which outlets are on a common electric power circuit, and by opening each breaker in succession, the control device can creating a mapping of outlets to breakers.

Electric power circuit testing device, system, and method

The apparatus includes a sensor having a multi-portion dielectric composite. A microstrip transmission line is formed on the dielectric composite and includes an input section, radiator portion, and an output section. The dielectric material adjacent the radiator portion is selected to substantially match that of the certain portions of a live organism being sensed, allowing other constituents of the organism to be sensed. This allow the radiator portion to effectively respond as if it were embedded inside the organism, removing substantial uncertainly from the measurement process. By then applying a plurality of signals to the sensor, the reflected and transmitted components of the signal can be measured and used to determine the amount of certain constituents are present in the organism.

Apparatus for in vivo dielectric spectroscopy

The invention pertains to the field of electronic devices and the preparation thereof. In an aspect is an electronic device comprising a nanocomposite of carbon nanodomains homogeneously embedded in an insulating ceramic matrix, wherein the size and distribution of carbon nanodomains is such that the nanocomposite has a permittivity of greater than or equal to 200.

High permittivity nanocomposites for electronic devices

In certain embodiments, a field effect transistor (FET) can include a substrate, a source electrode, a drain electrode, a ferroelectric material layer, a first gate electrode, and a second gate electrode to maintain an optimal polarization state of the ferroelectric material layer. In other embodiments, a FET can include a film, first and second gates on the film, a ferroelectric material layer covering the film and gates, an insulating layer substantially covering the ferroelectric material layer, a source and a drain on the insulating layer, and a pentacene layer.

Enhanced E-field sensing using negative capacitance FET subthreshold slope enhancement

A method and apparatus for distributing dynamically reconfigurable content to a mobile device is provided. One embodiment of a method for encoding a data stream to enable error correction by a receiver of the data stream includes storing a block of the data stream in a first memory array, processing the first memory array to produce a second memory array, inverting the second memory array, and storing the second memory array, as inverted, as a third memory array.

Method and apparatus for error correction on a mobile device

Growing community of inventors

Clearwater Beach, FL, United States of America

Marc Rippen