117results about How to "Resistance to penetration" patented technology

A canine protective suit comprising a face mask, a upper body protector and a lower body protector, wherein the face mask is removably secured to the upper body protector, and wherein the lower body protector is removably secured to the upper body protector. The upper body protector comprises elastic bands, wherein the elastic bands secure at least two front leg panels. Similarly, the lower body protector comprises elastic bands, wherein the elastic bands secure at least two back leg panels. To use, a canine's two front legs are placed into the two front leg panels as the upper body protector is placed on the canine. Similarly, the canine's rear legs are inserted into the back leg panels as the lower body protector is installed on the canine. The face mask is then disposed on the canine's face and secured to the upper body protector.

A protective covering system having high-flexibility and low areal density characteristics. In one aspect of the invention, the protective system includes a plurality of metallic staples or wire elements secured to multi-layer matrix including woven fibers, the layers being oriented at cross angles to provide a grid-like pattern of protective elements. In one aspect of the invention, protective elements provide a coverage area of less than 90% and as little as 40% of total surface area. In one aspect of the invention, protective elements may be mechanically secured to a matrix by a puncture and crimp process. In another, wire elements may be attached or woven into one or more matrix layers.

An improved fuel tank and method of forming a fuel tank utilize reinforced porous metal composite materials. In one embodiment, the composite material includes a fully dense, fluid-impermeable skin (1) combined with a porous metal baffle (2). The skin (1) and baffle (2) may be formed as a single monolithic system via electrodeposition of a nanolaminate material into at least a portion of open, accessible void space within a porous preform (e.g., a metal foam preform) and on the exterior surface of the preform to form the fluid-impermeable skin (1).

A insulated masonry wall system having insulation blocks between structural and face blocks to provide structures that are strong, inexpensive, avoid thermal bridges, and resist transmission of heat. The walls are attractive and versatile, and an enormous variety of decorative face members may be utilized. The face blocks are attached to the structural blocks to prevent facing materials from falling even if fire destroys the insulation blocks between the structural blocks and the facing. The system resists water penetration and effectively drains water that does penetrate any portion of the system.

The present invention provides improved methods, systems, and kits for protecting body tissues which are adjacent to tissues undergoing thermal treatment. Thermal treatment is often prescribed for tumors and other disease conditions within body organs and other tissue masses. The methods, systems, and kits are particularly useful for treating tumors which lie at or near the surface of an organ, such as the kidney, pancreas, stomach, spleen, and particularly the liver. One risk of treating such tumors is the possibility of mistargeting the tumor and penetrating a delivery cannula or portions of a treatment device beyond the surface into the adjacent tissues or organs. In the case of radiofrequency or electrosurgical treatment, healthy surrounding tissue may be directly ablated. An additional risk, present even when the tumor is correctly targeted, is the possibility of thermal damage to the surrounding, non-targeted tissue. In radiofrequency or electrosurgical treatment, heat may dissipate into surrounding tissues which are more fragile and heat sensitive than the tissue in the organ being treated, thus causing unwanted tissue damage. These risks and others may be lessened or avoided with the use of an interface shield between the target region and adjacent body tissues to shield surrounding organs and tissue from treatment effects.

An elongated flow-through degassing apparatus includes an elongated gas permeable outer shell and one or more gas-permeable, liquid-impermeable elongated inner conveyance members extending within the outer shell and at least partially through a chamber defined within the outer shell. The apparatus also includes inlet and outlet junctions for securing the outer shell to the inner conveyance member. The outer shell exhibits a first permeance that is substantially greater than a second permeance of the inner conveyance member. The degassing apparatus may be sufficiently flexible so as to be readily manipulatable into desired configurations.

A battery holding and dispensing device can hold a plurality of batteries, in an assortment of battery sizes. The battery holding and dispensing device includes a frame having a plurality of compartments sized and shaped to each receive a battery of a particular battery size and each having a detent for releasably retaining the battery in the compartment. Each compartment has at least one opening in the bottom and lower side to expose a corner of the battery to allow finger ejection of the battery from the compartment past the detent, and to allow the user to touch the batteries to ascertain battery size by feel. The assortment of batteries held in the frame is preferably pre-selected to correspond to the batteries needed by a particular profession. An arrangement for illuminating the frame is provided.

The present invention relates generally to water based polymer modified asphalt emulsions, their composition, their manufacture and their uses. For example, there is disclosed a method for coating a structure or surface by applying a polymer modified asphalt emulsion coating to the structure or surface. The coating is preferably applied as a two component spray comprising an aqueous catalyst and an aqueous asphalt emulsion. The aqueous catalyst can employ an aqueous acid, preferably citric acid, but can also use an aqueous catalyst comprising an aqueous solution of calcium chloride. Preferably each of the two components are directed through separate ports on a spray nozzle so that they mix together on the fly external to the nozzle before contacting the surface to be coated. This methodology can be used to sound insulate structures, to encapsulate friable materials, to weather coat a structure, and to create a non-corrosive waterproof monolithic membranes.

The invention discloses a method for preparing an anti-graffiti coating for a rail train carriage, wherein the coating is prepared by mixing a component A and a component B. The component A comprises the following components: 21 to 65 portions of hydroxy-fluoro-silicon modified acrylic resin, 15 to 40 portions of pigments and fillers, 1 to 10 portions of auxiliary agent, and 16 to 42 portions of organic solvent; and the component B comprises 20 to 36 portions of polyisocyanate prepolymer. When in use, the components A and B are mixed and stirred evenly according to a mass ratio of 2-7:1, and then the mixture is adjusted to proper viscosity for construction by using a spraying method. The surface of a lacquer film formed by the coating has the advantages of low tensile force, compact structure, high hardness, excellent anti-graffiti performance, abrasion resistance, scrub resistance, corrosion resistance and long service life.

The organic electroluminescent element has a transparent substrate, a transparent first electrode, an organic layer, a second electrode, and a light-outcoupling layer. The light-outcoupling layer is formed between the transparent substrate and the first electrode. The first electrode, the organic layer and the second electrode constitute an electroluminescent laminate. A covering substrate facing the transparent substrate is adhered to the surface of the transparent substrate via an adhesive sealing portion surrounding the periphery of the electroluminescent laminate. A connection electrode extending outward from inside a surrounded region where the electroluminescent laminate is covered with the covering substrate is formed at least on the surface of the light-outcoupling layer. The average thickness of the light-outcoupling layer in an adhesion region where the adhesive sealing portion is formed is smaller than the thickness in the central region where the electroluminescent laminate is formed.

A bra sheath comprising a sheath-body and a plurality of lugs attached to the inner surface of an elongated liner. The sheath-body and liner define a tunnel for an underwire. A softness layer is disposed adjacent the liner outer surface. The bra sheath is formed by folding the liner and softness layer along the medial line to form a longitudinally extending internal cavity. The liner and sheath-body are comprised of woven fabrics including interlocking warp and weft threads. At least some of the threads are comprised of heat fusible materials that are melted during processing to bond the woven fabric of the liner and sheath-body.

An armor that is used, for example, in multi-cell missile launchers is disclosed. In some embodiments, the armor includes three layers. The inner-most layer undergoes explosive welding when exposed to a pressure wave from an explosion. An intermediate layer in-elastically deforms when exposed to the explosion. The third and outer-most layer includes a plurality of elongated, pressurized tubes that contain fire retardant, among other chemicals. Silicone gel is interposed between the tubes.

The invention relates to a prefabricated shear wall in a cast-in-situ connection mode. The prefabricated shear wall comprises a wall, pier heads, bottom upper concave sections and a bottom outer side plate. Side edges are respectively arranged on two sides of the wall, and a groove is formed in the middle of each side edge and is vertically perforated through the wall; wall vertical reinforcing bars are arranged in the wall; the bottom upper concave sections are uniformly distributed at the bottom of the wall; each pier head is arranged between the two corresponding adjacent bottom upper concave sections; air holes are formed in positions above the middles of the bottom upper concave sections; the air holes are communicated with the bottom upper concave sections via pipelines; the thicknesses of the pier heads are identical to the thickness of the wall, and holes are formed in the pier heads; the bottom outer side plate and the wall are integrated with each other, and the bottom outer side plate is positioned on the outer sides of the bottom upper concave sections; internally threaded pipes are embedded in positions close to the side edges of the wall, above the bottom upper concave sections and on the pier heads. The prefabricated shear wall in the cast-in-situ connection mode has the diversified advantages of firm structure, convenience in construction, reliability in connection and the like.

A device for engagement with a bone includes a dynamically expandable tip (12), a dynamically expandable ring (40), or other dynamically expandable insert (60, 62, 401L) that reacts to forces pushing the implant into bone tissue. The tip (12), ring (40) or insert (60, 62, 401L) expands at least normal to the direction of motion, increasing contact area between the surrounding bone tissue and the material and thereby reducing the occurrence of high areas of contact stress in the adjacent bone tissue. The tip (12), ring (40) or insert (60, 62, 401L) translates forces along an axis of motion into lateral frictional forces that can resist penetration into the bone tissue without the need for additional operator or patient interaction. A method of reducing migration of the device for engagement includes the steps of providing the device and inserting the device within bone tissue.

Aircraft landing gear (10) provided with at least one contact means (20) for making contact with a contact surface (S). The landing gear includes energy absorber means (30) provided with an inflatable airbag (31) secured to said contact means (20), said energy absorber means (30) being provided with control means (32) and with at least one inflation means (32) for inflating said airbag (31) under the control of said control means (32), said energy absorber means (30) including adjuster means (34) for adjusting the pressure that exists inside (INT) said airbag (31).

A towing hitch extension is provided that is adapted to protect the rear bumper, especially a plastic bumper, of a towing vehicle. The hitch extension includes a tow bar with front ends and rear ends. The front end couples to the rear towing hitch of the towing vehicle. The rear end is mounted to a transversely extending, horizontally oriented, enlongated cross bar medially an also to a trailer hitch receiver hitch receiver that is somewhat above the tow bar. A pair of guard projections, such a pair of tow hooks for example, upstand from the cross bar on either side of the tow bar. Braces, preferably metal plate members, are preferably mounted to the tow bar and the cross bar to strengthen the position of the cross-bar relative to the tow bar.

A rotary atomizer component, such as for a steering air ring or bell cup for a rotary atomizer with at least one steering air jet for delivering steering air (or controlled air) and a rotary bearing shaft where, in axial direction between the bell cup and the steering air jet, a circumferential annular gap is located. A shaft cover in form of a bushing covers the bearing shaft, when mounted, at least partially in the annular gap area between the bell cup and the steering air jet. In addition, the annular gap space between the front surface of the bearing unit and the internal surface facing it axially or any other front element of the atomizer is sealed in a radial way internally against the externally accessible area of the shaft. The sealing element provided for this purpose is located along the internal circumference of the air-steering rings or front element and able to be attached to the front surface of the bearing unit in a way that it is elastically deformable.