Savannah River Nuclear Solutions, LLC

W.a.t. Sports, LLC

Battelle Savannah River Alliance, LLC

Matthew D Folsom

John Thomas Bobbitt, Iii

David M Immel

Jean R Plummer

Donald W Benza

Michael G Serrato

Karl E Harrar

Steven M Serkiz

Aaron L Washington, Ii

Klaehn W Burkes

Josef A Velten

Nicholas F Deroller

John T Bobbit, Iii

John P Perkins

John T Bobbitt

The present disclosure is directed to an antenna that includes a substrate and a graphene or graphite layer positioned on at least a portion of the substrate. The graphene or graphite layer includes a first zone having a first thickness along a vertical direction of the antenna and a second zone having a second thickness along the vertical direction of the antenna. The second thickness is less than the first thickness such that the second zone has a greater electrical resistance than the first zone.

Laser-induced graphene/graphite antenna

Laser induced graphene/graphite antenna

The present invention is directed to a method of manufacturing a three-dimensional carbon structure. The method requires graphene layers and/or graphene oxide layers. The layers can be provided such that they correspond to the cross-section of a pre-defined shape. In this regard, the method of the present invention can be employed to manufacture a three-dimensional carbon structure having a custom shape.

Method of manufacturing a three-dimensional carbon structure

Devices, systems and methods for use of an autonomously powered inductive time domain reflectometer sensor device are provided. A sensor device for a power line can include a first induction coil and a second induction coil coupled to the power line and a control device. The first induction coil can be configured to inject a first signal on a power line by inducing a first current on the power line. The second induction coil can be configured to inject a second signal on the power line by inducing a second current on the power line. The control device can be configured to control the second induction coil to inject the second signal to cancel a portion of the first signal. As a result of the second signal cancelling a portion of the first signal, the first signal can be configured to propagate in a single direction on the power line.

Autonomously powered inductively coupled time domain reflectometer sensor device

A radiation imaging system includes a casing and a camera disposed inside the casing. A first field of view through the casing exposes the camera to light from outside of the casing. An image plate is disposed inside the casing, and a second field of view through the casing to the image plate exposes the image plate to high-energy particles produced by a radioisotope outside of the casing. An optical reflector that is substantially transparent to the high-energy particles produced by the radioisotope is disposed with respect to the camera and the image plate to reflect light to the camera and to allow the high-energy particles produced by the radioisotope to pass through the optical reflector to the image plate.

Radiation imaging system

A magnetometer and magnet are incorporated into a glove in order to measure the magnetic field between the two carrying an athletic movement such as a golf swing. The resulting magnetic field can be related to the distance between the magnet and the magnetometer in the wrist-joint angle, allowing a real time receptacle signal to be transmitted to the user when a proper wrist angel in achieved.

Load and lag golf glove

Growing community of inventors

Aiken, SC, United States of America

Matthew D Folsom