Patent classifications
F41H1/02
Armor component and method of making the armor component
An armor component that includes a ballistic tile made of, for example, boron carbide or silicon carbide, a plurality of wraps made of ballistic fibers such as carbon fiber, and a metal plate, for example, a steel plate, the metal plate being positioned behind the reverse side of the tile and the wraps being wrapped around the tile and the metal plate.
Personal armor resistant to sharp or pointed weaponry
According to exemplary inventive practice, a personal armor system includes a textile-based layer not exceeding ½-half-inch thickness, and an elastomeric coating not exceeding ⅛-inch thickness. The textile-based layer includes a fiber reinforcement and a resin binder. The combined areal density of the textile-based layer and the elastomeric coating does not exceed 2.5 psf. According to a first mode of inventive practice, the elastomeric coating is essentially a strain-rate-sensitivity-hardening elastomer, and the areal density of the textile-based layer does not exceed 2.3 psf. According to a second mode of inventive practice, the elastomeric coating is essentially a microparticle-filled strain-rate-sensitivity-hardening elastomeric matrix material, and the areal density of the textile-based layer does not exceed 1.7 psf. The microparticles (e.g., spherical glass microparticles) do not exceed, by weight, 30 percent of the strain-rate-sensitivity-hardening elastomeric matrix material. The textile-based layer affords ballistic protection; the elastomeric coating affords protection against sharp/pointed objects.
Personal armor resistant to sharp or pointed weaponry
According to exemplary inventive practice, a personal armor system includes a textile-based layer not exceeding ½-half-inch thickness, and an elastomeric coating not exceeding ⅛-inch thickness. The textile-based layer includes a fiber reinforcement and a resin binder. The combined areal density of the textile-based layer and the elastomeric coating does not exceed 2.5 psf. According to a first mode of inventive practice, the elastomeric coating is essentially a strain-rate-sensitivity-hardening elastomer, and the areal density of the textile-based layer does not exceed 2.3 psf. According to a second mode of inventive practice, the elastomeric coating is essentially a microparticle-filled strain-rate-sensitivity-hardening elastomeric matrix material, and the areal density of the textile-based layer does not exceed 1.7 psf. The microparticles (e.g., spherical glass microparticles) do not exceed, by weight, 30 percent of the strain-rate-sensitivity-hardening elastomeric matrix material. The textile-based layer affords ballistic protection; the elastomeric coating affords protection against sharp/pointed objects.
Variable areal density cross-plied fiber-reinforced composite ballistic material
This technology relates materials that are stab, spike and ballistic resistant and to stab, spike and ballistic resistant composite articles incorporating uniaxially oriented, non-woven fabrics. A fabric layer having a non-uniform areal density is formed having thick areas and thin areas, the thick areas having a greater filament/tape concentration compared to the thin areas. In said thick areas, agglomerated tapes/filaments will protrude from the fabric layer surface. Additional layers are then adjoined with the non-uniform layer to form a panel that has stab, spike and ballistic resistance, with protrusions at least partially spacing the additional layers from full, direct contact with the surface of the non-uniform fabric layer to thereby enhance flexibility and stab, spike and ballistic resistance of the whole.
Variable areal density cross-plied fiber-reinforced composite ballistic material
This technology relates materials that are stab, spike and ballistic resistant and to stab, spike and ballistic resistant composite articles incorporating uniaxially oriented, non-woven fabrics. A fabric layer having a non-uniform areal density is formed having thick areas and thin areas, the thick areas having a greater filament/tape concentration compared to the thin areas. In said thick areas, agglomerated tapes/filaments will protrude from the fabric layer surface. Additional layers are then adjoined with the non-uniform layer to form a panel that has stab, spike and ballistic resistance, with protrusions at least partially spacing the additional layers from full, direct contact with the surface of the non-uniform fabric layer to thereby enhance flexibility and stab, spike and ballistic resistance of the whole.
MODULAR UNIT OF PROTECTIVE CLOTHING, AND USE THEREOF
The present invention relates to a modular ballistic protective clothing unit, in particular with splinter, puncture and/or cut protection, preferably with splinter protection, in particular for use as protective equipment, preferably for the military and/or civilian sector, preferably for in particular subsequent application to and/or donning (putting on) over an outer garment.
MODULAR UNIT OF PROTECTIVE CLOTHING, AND USE THEREOF
The present invention relates to a modular ballistic protective clothing unit, in particular with splinter, puncture and/or cut protection, preferably with splinter protection, in particular for use as protective equipment, preferably for the military and/or civilian sector, preferably for in particular subsequent application to and/or donning (putting on) over an outer garment.
Carrier Apparatus
A body carrier apparatus may include a front carrier and a rear carrier. In some examples, the body carrier apparatus may protect a wearer of the body carrier apparatus from ballistics. In further examples, the body earner apparatus may reduce stress on shoulder muscles while maintaining shoulder mobility.
Ballistic Vest
A protective garment includes a shell and an insert. The shell includes a front layer and a rear layer coupled to the front layer. The front layer and the rear layer form a void therebetween. The insert is disposed within the void. The insert includes a main body defining a first lateral side, a second lateral side opposite the first lateral side, and a bottom edge extending between the first lateral side and the second lateral side. The bottom edge defines a recess between the first lateral side and the second lateral side.
Laptop Sleeve Convertible to Personal Body Armor
The present invention relates generally to a protective sleeve for electronic products including laptops, tablets, and other electronic devices (hereinafter referred to as “Laptop Sleeve”) that easily and quickly converts into a light weight and compact personal ballistic body armor that can also provide effective stab resistance while being concealed as a commonly used and carried item.