Sciperio, Inc

The Penn State Reserach Foundation

Michael John Wilhelm

Kenneth H Church

Douglas H Werner

Robert M Taylor

Pingjuan L Werner

Hao Dong

Yanzhong Li

Ryan T Salisbury

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

An optimal configuration for at least one antenna and/or at least one frequency selective surface is generated. A configuration of elements is generated by selecting a simple configuration of at least one element and applying a genetic algorithm to the simple configuration to generate a configuration optimized for various characteristics. A stochastic process may be used to randomly select an arrangement of elements as the simple antenna configuration and to select elements that connect the randomly selected elements to produce a stochastic configuration to which the genetic algorithm is then applied. Alternatively, an iterated or semi-iterated process may be applied to the simple antenna configuration to produce a fractal or a semi-fractal configuration, respectively, to which the genetic algorithm is then applied. Also, the elements may be optimized independently.

System and method for generating a genetically engineered configuration for at least one antenna and/or frequency selective surface

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

An antenna system includes an antenna element and an electromagnetic bandgap element proximate the antenna element wherein the electromagnetic bandgap element is optimized for narrow bandwidth operation thereby providing radiofrequency selectivity to the antenna system. Preferably the electromagnetic bandgap element is tunable such as through use of a bias-alterable dielectric substrate or other tuning mechanism. The design approach also provides a means of creating an ultra-thin low-profile narrowband tunable channel selective antenna system suitable for low frequency applications.

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Stillwater, OK, United States of America

Michael John Wilhelm