Sciperio, Inc

Robert M Taylor

Kenneth H Church

William L Warren

Robert L Parkhill

Michael John Wilhelm

Anatoly M Kachurin

Robert L Stewart

Mark Simpkins

Yanzhong Li

Ryan T Salisbury

Brian K Hargrave

Michael N Nguyen

Hao Dong

Mark L Kargel

A method incorporating an antenna and RF circuitry into the object acting as a substrate includes modeling the object as a three-dimensional object, and designing the antenna and RF circuitry for direct placement on the surface of the object. The step of designing is at least partially based on the size, three-dimensional shape, and material properties of the surface of the object acting as the substrate. The step of designing is preferably performed through use of an evolutionary optimizer implemented using parallel computing devices.

Optimization of unique antenna and RF systems for specific substrates

The invention provides an apparatus and methods for depositing materials on a substrate, and for performing other selected functions, such as material destruction and removal, temperature control, imaging, detection, therapy and positional and locational control. In various embodiments, the apparatus and methods are suitable for use in a tabletop setting, in vitro or in vivo.

Architecture tool and methods of use

A micro-helix antenna. The antenna comprises a helically-shaped conductive element disposed on a dielectric core. The diameter of the helix formed by the conductive element is very small relative to the wavelength of the antenna, preferably no more than about 1/100th of the wavelength. Having such a small diameter, this micro-helix antenna can be further compressed into two- and three-dimensional shapes, such as spirals, helices and meandering or stochastic patterns. The micro-helix antenna can be created by pressing a fine wire into a helical shape. Alternately, the helical conductor can be formed by a laser ablation process or laying down the helical shape using a direct-write process.

Micro-helix antenna and methods for making same

A compact integrated biosensor has an integrated light source and integrated optical detectors made with gratings, dielectric coating, or prism for specific wavelength selection to define signatures that identify elements, biohazardous materials, environmentally hazardous materials, biological substance or any chemical substance on the sample holders. A micropump draws gas, ambient fluids and samples to the sample holders. Electrical signals are provided from the optical detectors on output lines to the microprocessor. A device connected to the microprocessor compares characteristic responses to actual signal parameters. An output indicates the presence (or absence) of particular biological, chemical or environmentally hazardous material. A battery, fuel cell or solar cell operated power supply provides electrical energy to the integrated light source and optical detectors. An ambient detector may provide a sample and hold memory for later releasing qualitative and quantitative information concerning the biosensor's environment and environmental history. Output of the biosensor may be continuous, periodical or on demand, or connected to a read-out device. The biosensor is usable as a badge by personnel or is attached to vehicles or mobile or stationary equipment, or to remote collection vehicles such as drones.

Biosensor

Growing community of inventors

Perkins, OK, United States of America

Robert M Taylor