Other

Comstock IP Holdings LLC

Fluxphoton Corporation

Bioleum Corporation

Craig A Grimes

Kevin Kreisler

Kevin E Kreisler

William R Seitz

Thomas Latempa

Dale M Grimes

Xinjian Feng

Systems for separating and concentrating COfrom air or a gas include a vortex tube designed for separating and concentrating COfrom a gaseous input stream. The vortex tube has an operating design pressure of between 105 psi and 280 psi above atmospheric pressure and produces a concentrated COoutlet stream. The concentrated COoutlet stream is in fluid connection with a conversion system capable of converting the separated COinto another chemical compound.

Systems and methods for separation of COfrom a gaseous mixture, collection, and conversion

An improved apparatus for the separation of gas or gas-vapor, as well as simultaneous product transformation or conversion of one or more of the separated gas or gas-vapor species, includes modification of a Ranque-Hilsch vortex tube to include an electric field internal to the vortex tube, created either by an applied potential or induced by temperature-dependent triboelectric effects, or a combination of both. The electric field is used to enhance separation of gaseous components, with particular emphasis on separation of COfrom a gaseous mixture, and to promote subsequent conversion of the resulting separated gaseous product or products.

Electric field assisted Ranque-Hilsch (EFARH) vortex tube for enhanced product separation and transformation

The present invention relates to the design and fabrication of a device able to efficiently convert broad-spectrum, microwave to X-ray, electromagnetic energy into electricity. Exciton Scavenger fabrication requires intercalation of rare earth ion containing crystallites, quantum-dots, or nanoparticles within a one-dimensional semiconducting material nanoarchitecture, such as arrays of nanowires or nanotubes.

Broadband exciton scavenger device

The present invention relates to the design and fabrication of a device able to efficiently convert broad-spectrum electromagnetic radiation, including but not limited to microwave, millimeter wave, infrared, visible, and ultraviolet, into charge carriers, then separate and direct said charge carriers to promote photosynthetic or photocatalytic reactions, such as the photoconversion of COand water vapor to hydrocarbon fuels. Device fabrication requires intercalation of rare-earth ion containing crystallites, be they nanoparticles or quantum-dots, bound by an electrically insulating organic or inorganic shell, within a one-dimensional semiconducting material nanoarchitecture such as arrays of nanowires or nanotubes.

Photocatalytic device based on rare-earth elements: methods of manufacture and use

Self-powered portable electronic devices are disclosed that have the capacity to generate their own electrical power, store electrical charge, and distribute electrical power to similarly designed devices in close proximity. Devices generate power in part using one or more non-solar thermal energy sources that have increased stability and efficiency compared to current solar cell powered devices. Devices comprise components including, control processors, data storage, energy storage, dedicated energy and power management processors, and thermophotovoltaic cells that convert thermal energy into electrical power. Devices are capable of transmitting and receiving energy, power, voice and data information using standard frequencies associated with portable devices. Additionally, the invention discloses methods, systems, and apparatuses comprising circuitry that can control power generation from multiple thermophotovoltaic cells and traditional power sources.

Self-charging electronic devices

The present invention relates to fabrication and application of compositions, devices, methods and systems for utilizing radiation more efficiently as compared to known systems. A synthesis method provides deposition of titania on a substrate without the use of an electrochemical reaction. An integrated architecture formed by the method of the present invention is comprised of vertically-oriented, one-dimensional, monocrystalline, n-type anatase nanowires in communication with a common transparent conductive substrate, and which are intercalated with a consortia of p-type quantum dots tuned for absorption of infrared and other radiation.

Method to fabricate vertically oriented anatase nanowires on a substrate

The present invention relates to growth of vertically-oriented crystalline nanowire arrays upon a transparent conductive or other substrate for use in 3generation photovoltaic and other applications. A method of growing crystalline anatase nanowires includes the steps of: deposition of titania onto a substrate; conversion of the titania into titanate nanowires; and, treatment of the titanate nanowires to produce crystalline anatase nanowires.

Methods to fabricate vertically oriented anatase nanowire arrays on transparent conductive substrates and applications thereof

A magnetochemical sensor for continuous and in-situ sensing of a given chemical species/stimuli includes two magnetically-soft magnetic film layers and a chemical transduction layer that shrinks or swells in the presence of that given chemical species/stimuli. The magnetic switching characteristics of the sensor are dependent upon the thickness of the chemical transduction layer. A method for remotely interrogating the magnetic switching characteristics of the sensor is also provided. In the method, magnetic flux detecting coils are utilized to monitor the sensor.

Magnetochemical sensor and method for remote interrogation

A resonant antenna suitable for transmission and for reception over a broad range of frequencies combines electric and magnetic multipoles generated by linear and loop elements respectively. The minimum requirement is one electric and one magnetic dipole and one electric and magnetic quadrupole. The electric elements are driven in time quadrature with the magnetic elements. The elements of the minimum requirement lie in the same plane and along the same axis. The minimum number of elements for a free standing antenna is three loops and three dipoles. Maximum transmission and reception occur only in the same direction along the axis. The size of the antenna is reduced by introducing a ground conductor or plane along the antenna axis and eliminating the half elements on one side thereof and is further reduced by introducing a second ground plane normal to the first at the midpoint of its length and eliminating the quarter elements on one side.

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Raleigh, NC, United States of America

Craig A Grimes