High Impact Technology, LLC

Other

Lance Allen Hicks

Russell Allen Monk

Thomas S Ohnstad

James Jackson Milham Henry

An embedded-object composite product including a solid-state mass of PET, an object embedded in the PET material mass, and a zone possessing a continuous material-density gradient in the PET material mass, with more-dense PET material residing closely adjacent the embedded object, and less-dense PET material residing more distant from that object. This product is produced effectively by non-destructively heating the PET mass from its solid state to allow it to flow as a liquid, by then pressing the object into the heated PET mass to perform object embedment and to create a declining PET-material density in the region adjacent, and progressing from adjacent, the embedded object, and by thereafter cooling the mass to re-solidify it.

Method of making an embedded-object and composite-material product

A layered panel structure including first and second layers formed, respectively, of (a) non-thermoformable, and (b) thermoformable, fiber-strand-reinforced resin, materials, having therebetween a bonding interface formed by resin drawn from the second layer.

Layered panel structure including self-bonded layers of thermoformable and non-thermoformable materials

A layered panel structure featuring a first layer formed of non-thermoformable material, having opposite faces, a thickness T as measured between its opposite faces, and an effective layer density d, and a second layer formed of thermoformable material having opposite faces, with one face in the second layer being thermally bonded to one face in the first layer, and with the second layer having a thickness t, as measured between its opposite faces which is smaller than T, and an effective layer density D which is greater than d. The thermal bond between the layers is formed, during thermoforming of the panel structure, by a melt and flow of resin contained in the thermoformable layer material.

Layered panel structure including self-bonded thermoformable and non-thermoformable layer materials

An armor panel for defeating a projectile strike including (a) a substantially planar core structure having spaced, generally parallel-planar strike and opposite faces, and elongate, circumsurrounding edge structure extending generally normally between these faces to define a perimeter for the core structure, (b) stranded core-wrap structure substantially fully enveloping the core structure, and possessing elongate, tension-load-bearing (TLB) strands which extend at angles relative to one another across the mentioned faces, and substantially parallel to one another in a distribution along the perimeter defined by the edge structure, and (c) a high-elastomeric coating which is distributed over at least those portions of the core-wrap structure which are disposed adjacent the strike face and the edge structure.

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Salem, OR, United States of America

Lance Allen Hicks