Other

Packaging and Crating Technologies, LLC

Riser Systems Technologies

Suppression Systems Engineering Corp.

Guy Leath Gettle

Rodger A Mort, Jr

Vincent H Homer, Jr

Timothy Dale Worthington

Robert E Bush

James Michael Kurtz

Vincent R Homer

Forrest J Allen

Rodger A Mort

Jr Mort Rodger A

A fire-resistant retail product packaging, such as sleeves, pouches, wraps, and the like, that is capable of containing fires of high intensity for products such as lithium-ion batteries. The fire-resistant paper comprises Kraft paper with a preferred eight of 40 to 60 pounds/3,000 ft, and a fire-resistant ink applied to each side of the Kraft paper. The fire-resistant ink includes an acrylic resin, a dispersant, and a boron compound, and optionally, talc and a molybdate compound. When heated, the fire-resistant ink preferably converts the Kraft paper into a non-combustible and heat shielding substance.

Fire resistant retail product packaging materials and method of manufacturing same

The present invention includes pleated paper and planar paper coated with a fire suppressive ink, wherein the pleated paper is Kraft paper with a weight of 25 to 50 pounds, with pleat angles of about 88 to 92&#xb0;, and pleat heights between approximately 3/32 of an inch and &#x215b; of an inch, and the planar paper is Kraft paper with a weight of 40 to 60 pounds. The fire suppressive ink is preferably applied with a flexographic printing process and preferably comprises at least one inorganic fusible salt and an organic resin. The inventive pleated paper is an environmentally friendly packaging material with improved protective qualities, which can also shield items from fire, contain fires, and suppress fires to avoid thermal runaway. The inventive paper is particularly useful for packaging and shipping flammable items, such as lithium-ion batteries.

Fire suppressing pleated packaging paper and method of manufacturing

A formable armor that resists penetration by impacting projectiles. The instant formable armor features a plurality of cylindrical ceramic barrels each having flat ends that fay with the flat surfaces of adjacent ceramic barrels. Rows of faying cylindrical barrels are disposed parallel to one another. The substantially parallel rows of cylindrical ceramic barrels are affixed to a backing layer that maintains continuous contact between adjacent cylindrical barrels.

Formable armors using ceramic components

A shield assembly for protection of vehicles traveling in space consisting of at least five layers that would replace the thin metal impact shield in Whipple shields fabricated using the current art that employs only a single metal. All of the layers in the present invention are metallic. At least three different metals must be used in this invention. FIG.shows the basic embodiment of the transparent blast protection assembly. The shield assembly () comprises a first metal layer (), a second metal layer (), a third metal foam layer (), a fourth metal layer (), and a fifth metal layer (). At least one spacer component () is used to create and maintain a space between the structure requiring impact protection () and the shield assembly.

Shield assembly for protecting spacecraft

An armor assembly for providing resistance to penetration by projectiles includes an impact surface or strike face layer featuring an organic resin composite into which multitudinous ceramic shapes are distributed, a secondary or transition layer to provide mechanical support to the strike face and distribute the imposed load over a wider bearing area, a spacer layer that facilitates reflection of stress waves in the assembly layers between the space and incident projectile, and a back surface that defines the space as well as intercepts any projectile or projectile fragments transiting the space so defined. To this basic assembly can be added components that increase deformation and deflection of incident projectiles, reduce transmitted stresses, or strengthen at least one of the layers.

Armor assembly

An assembly for protecting against explosions and explosive devices is formed with aerogels and frangible components. The basic configuration forms a space between an object to be protected by an aerogel having a frangible backing layer. Such assemblies may be mounted on vehicles and structures, and alternatively used as barriers without attachment to other objects. Different geometries for the rear surface of the assemblies enhance the ability of deflecting gas produced by explosions away from objects to be protected. Flowable attenuating media may be introduced into the space behind the aerogel and in gratings placed in the front of assemblies in order to increase blast energy dissipation in intense blast conditions. Armor components may be added to the rear surface to protect against fragments and projectiles. Aerogels, metal foams, and dense ceramic beads may be incorporated to enhance protection against explosively-formed penetrators and other projectiles.

Blast effect mitigating assembly using aerogels

A dual phase riser flotation system contains a number of passive phase buoyancy modules of syntactic foam contained within an outer skin, and a number of active phase buoyancy modules which are similar to air canisters in that they may be inflated or deflated as required to provide levels of buoyancy. The passive phase buoyancy modules may contain tubes filled with air, a compressed gas such as nitrogen, or evacuated to provide additional buoyancy. Charge and discharge valves connect gas flow lines to a manifold system serving the active phase buoyancy modules.

Deep water riser flotation apparatus

An acoustic/shock wave attenuating assembly comprised of porous screens forms an enclosure filled with a suitable pressure wave attenuating medium or material having fluid characteristics. This basic configuration can be suspended or held in place by a rigid structure. When the pressure attenuating medium is a liquid, the attenuating assembly is provided with a lining for containment. Multiple attenuating assemblies can be employed, with adjacent attenuating assemblies separated by a small gap. The pressure attenuating medium may be a liquid, a gas emulsion, an aqueous foam, or a gel (with or without entrained gas). Alternatively, solid particulates having bulk mechanical properties of a fluid may be employed as the pressure wave attenuating medium and may have an adhesive or the like resisting relative movement between particulates to simulate viscous effects. Elements of the assembly may incorporate materials which absorb thermal energy through endothermic chemical reactions, such as intumescent materials, to enhance the pressure attenuating effect.

Growing community of inventors

Alamo, CA, United States of America

Guy Leath Gettle