mhurhangee/ep-ind-claims huggingface dataset:
A fiber reinforced, cementitious armor panel comprising: a cementitious core comprising reinforcing fiber within a continuous phase resulting from the curing of an aqueous mixture of: a) 25-45 weight % inorganic cement binder; b) filler, wherein the filler in the cementitious aqueous mixture consists of i) silica sand filler having a median particle size of 150-450 microns, the silica sand filler being in an amount of at least 35 weight %, and ii) pozzolanic filler having a median particle size of less than or equal to 50 microns, the pozzolanic filler being 5-15 weight % of the cementitious aqueous mixture, and wherein the pozzolanic filler is silica fume; c) 0.25-5.0 weight % polycarboxylate based self-levelling agent; d) 6-12 weight % water; and e) reinforcing fiber, and a fiber-reinforced skin layer attached to at least one surface of the cured continuous phase. a cementitious core comprising reinforcing fiber within a continuous phase resulting from the curing of an aqueous mixture of: a) 25-45 weight % inorganic cement binder; b) filler, wherein the filler in the cementitious aqueous mixture consists of i) silica sand filler having a median particle size of 150-450 microns, the silica sand filler being in an amount of at least 35 weight %, and ii) pozzolanic filler having a median particle size of less than or equal to 50 microns, the pozzolanic filler being 5-15 weight % of the cementitious aqueous mixture, and wherein the pozzolanic filler is silica fume; c) 0.25-5.0 weight % polycarboxylate based self-levelling agent; d) 6-12 weight % water; and e) reinforcing fiber, and a) 25-45 weight % inorganic cement binder; b) filler, wherein the filler in the cementitious aqueous mixture consists of i) silica sand filler having a median particle size of 150-450 microns, the silica sand filler being in an amount of at least 35 weight %, and ii) pozzolanic filler having a median particle size of less than or equal to 50 microns, the pozzolanic filler being 5-15 weight % of the cementitious aqueous mixture, and wherein the pozzolanic filler is silica fume; c) 0.25-5.0 weight % polycarboxylate based self-levelling agent; d) 6-12 weight % water; and e) reinforcing fiber, and a fiber-reinforced skin layer attached to at least one surface of the cured continuous phase.
A pumped-loop cooling system comprising: a plurality of first heat-generating components and at least one heat exchanger in thermal contact with the first heat-generating components for absorbing heat from the first heat-generating components via refrigerant flowing through the heat exchanger, a plurality of second heat-generating components, a chiller for air-cooling the second heat-generating components, a condenser for receiving and condensing refrigerant received from the heat exchanger, and a pump for circulating refrigerant through the system, the pump receiving refrigerant that has been condensed by the condenser and pumping the refrigerant to the heat exchanger, characterised in that the condenser is also for receiving and condensing refrigerant received from the chiller, and the pump is also for pumping the refrigerant to the chiller. a plurality of first heat-generating components and at least one heat exchanger in thermal contact with the first heat-generating components for absorbing heat from the first heat-generating components via refrigerant flowing through the heat exchanger, a plurality of second heat-generating components, a chiller for air-cooling the second heat-generating components, a condenser for receiving and condensing refrigerant received from the heat exchanger, and a pump for circulating refrigerant through the system, the pump receiving refrigerant that has been condensed by the condenser and pumping the refrigerant to the heat exchanger, characterised in that the condenser is also for receiving and condensing refrigerant received from the chiller, and the pump is also for pumping the refrigerant to the chiller.
Household refrigeration appliance with a housing and a door (2, 3), which is arranged on the housing in such a manner that it can be pivoted by means of hinges (5a, 5b, 5c), wherein at least one hinge (5a, 5b, 5c) has a door closing fitting part (6, 7) with a closing clip on the door side and a bearing element with a closing cam being configured on the housing, the closing cam being coupled to the closing clip when the door (2, 3) is in the closed state, wherein the closing cam has a coupling projection, which has a recess on a coupling contour that is facing when coupled to the closing clip, in which recess a projection end piece configured on the closing clip engages in the coupled state, characterised in that the door closing fitting part (6, 7) comprises a fastening segment having a depression on each opposing side, an end wall (4a, 4b, 4c, 4d) of the door (2, 3) has a cutout configured with the correspondingly same shape, and the household refrigeration appliance comprises a separate connecting piece having a first sub-segment and a second sub-segment, wherein the first sub-segment is inserted with a form fit optionally into one or the other depression in the fastening segment depending on the mounted position of the door closing fitting part (6, 7) and the second sub-segment engages with a form fit in the cutout, wherein the door closing fitting part (6, 7) is fastened to the door (2, 3) by means of the connecting piece.
A device for testing the leakproofness of a surgical instrument, in particular an endoscope, having a connecting device, through which air in particular can flow, for connecting the device to a port of a surgical instrument, characterized in that the connecting device has a self-actuating valve with a swellable body of material (54, 60).
Cosmetic or dermatological preparations having an active content of one or more thiazoles which is or are selected from the group of the following substances:
Agricultural machine for shredding hay, forage and similar products, comprising a frame, on which are mounted a mixing tank, a feeding mouth, a shredding device and a supply opening wherein said shredding device comprises a rotating drum, having an horizontal rotation axis, on which surface are fixed some cutting devices, which are at least partially associated with and adjacent to at least one abutment fixed to said rotating drum, characterized in that said machine has a vertical conveyor belt with chains comprising transversal connection bars equipped with blades, moving side chains and chain-cover elements fixed to said frame.
A unit for coat application by immersion of elongate components into molten metal, comprising a tank for molten metal and a coating chamber with inlet and outlet channels and an intake channel submerged into the tank for molten metal, the coating chamber and the tank for molten metal being provided with appliances for internal creation of reduced pressure and positive pressure respectively; the inlet and outlet channels of the coating chamber being vertical and situated at its bottom and top, respectively, to ensure vertical movement of the elongate component from bottom upwards; the coating chamber being located to the side of the tank with molten metal; the intake channel being inclined; and the tank for molten metal being equipped with a supply channel for charging molten or solid metal wherein the supply channel expands in the upper part facing the upper part of the tank for molten metal and is located above the upper part of the tank with molten metal, the height of the supply channel exceeding the maximal possible molten metal level in the coating chamber.
Process for the preparation of a dialkyl carbonate and an alkanediol, comprising: (a) reacting an alkylene carbonate and an alkanol to obtain a product mixture containing unconverted alkylene carbonate, unconverted alkanol, dialkyl carbonate, alkanediol and an ether alkanol impurity; (b) separating unconverted alkylene carbonate and alkanediol from the product mixture to obtain a top stream containing unconverted alkanol, dialkyl carbonate and the ether alkanol impurity; (c) recovering the alkanediol; (d) separating unconverted alkanol from the top stream obtained in step (b) to obtain a bottom stream containing dialkyl carbonate and the ether alkanol impurity; and (e) subjecting the bottom stream obtained in step (d) to extractive distillation using an extraction solvent to obtain a top stream comprising dialkyl carbonate and a bottom stream comprising the extraction solvent and the ether alkanol impurity, wherein the extraction solvent is an organic compound containing one or more hydroxyl groups and one or more ester moieties and/or ether moieties; and (f) removing the ether alkanol impurity from the bottom stream obtained in step (e) and recycling the extraction solvent to step (e). (a) reacting an alkylene carbonate and an alkanol to obtain a product mixture containing unconverted alkylene carbonate, unconverted alkanol, dialkyl carbonate, alkanediol and an ether alkanol impurity; (b) separating unconverted alkylene carbonate and alkanediol from the product mixture to obtain a top stream containing unconverted alkanol, dialkyl carbonate and the ether alkanol impurity; (c) recovering the alkanediol; (d) separating unconverted alkanol from the top stream obtained in step (b) to obtain a bottom stream containing dialkyl carbonate and the ether alkanol impurity; and (e) subjecting the bottom stream obtained in step (d) to extractive distillation using an extraction solvent to obtain a top stream comprising dialkyl carbonate and a bottom stream comprising the extraction solvent and the ether alkanol impurity, wherein the extraction solvent is an organic compound containing one or more hydroxyl groups and one or more ester moieties and/or ether moieties; and (f) removing the ether alkanol impurity from the bottom stream obtained in step (e) and recycling the extraction solvent to step (e).
A cartridge for use with an apparatus for heating smokable material to volatilise at least one component of the smokable material, the cartridge comprising: a housing defining a chamber; smokable material located in the chamber; and a heating element; wherein the smokable material is arranged on the heating element; and wherein the cartridge further comprises a mass of thermal insulation material located between the smokable material and the housing. a housing defining a chamber; smokable material located in the chamber; and a heating element; wherein the smokable material is arranged on the heating element; and wherein the cartridge further comprises a mass of thermal insulation material located between the smokable material and the housing.
A connector (10, 13) comprising: a generally cylindrically shaped insulative housing (16, 20) having a plurality of power contact cavities (46, 48) within a power contact portion of the housing (16, 20) and a plurality of signal contact cavities (17, 22) within a signal contact portion of the housing (16, 20), the signal contact portion being separately defined from the power contact portion; a signal contact assembly (18, 24) within the signal contact portion of the insulative housing (16, 20), the signal contact assembly (18, 24) having a plurality of rod-shaped signal contact members (12, 15) within respective signal contact cavities (17, 22), the signal contact members (12, 15) are arranged in close proximity to, spaced from and generally parallel to one another, a housing (38, 40) of shaped dielectric material encasing the signal contact members (12, 15), and a cylindrically shaped conductive shield (42, 44) in contact with the dielectric material housing (38, 40) at a location spaced outwardly of the signal contact members (12, 15),; and a plurality of rod-shaped power contact members (11, 14) within respective power contact cavities 46, 48), each at a location outside of the signal contact portion of the housing (16, 20), characterized in that the cylindrically shaped conductive shield (42, 44) has multiple lines of indentation in a side wall parallel to the longitudinal axis of the cylindrically shaped conductive shield (42, 44). a generally cylindrically shaped insulative housing (16, 20) having a plurality of power contact cavities (46, 48) within a power contact portion of the housing (16, 20) and a plurality of signal contact cavities (17, 22) within a signal contact portion of the housing (16, 20), the signal contact portion being separately defined from the power contact portion; a signal contact assembly (18, 24) within the signal contact portion of the insulative housing (16, 20), the signal contact assembly (18, 24) having a plurality of rod-shaped signal contact members (12, 15) within respective signal contact cavities (17, 22), the signal contact members (12, 15) are arranged in close proximity to, spaced from and generally parallel to one another, a housing (38, 40) of shaped dielectric material encasing the signal contact members (12, 15), and a cylindrically shaped conductive shield (42, 44) in contact with the dielectric material housing (38, 40) at a location spaced outwardly of the signal contact members (12, 15),; and a plurality of rod-shaped power contact members (11, 14) within respective power contact cavities 46, 48), each at a location outside of the signal contact portion of the housing (16, 20), characterized in that the cylindrically shaped conductive shield (42, 44) has multiple lines of indentation in a side wall parallel to the longitudinal axis of the cylindrically shaped conductive shield (42, 44).
Method of deproteinization of waste fats and oils, especially those generated as waste by the tanning, meat and food processing industries that are used as a raw material for the production of biostimulators and biofuels, comprising removal of the solid protein fraction and the free fatty acids, characterized in that the respective waste feedstock is subjected to alkaline hydrolysis performed by an organic base or a mixture of organic bases, wherein the resulting products of the hydrolysis are separated fractions of a liquid protein hydrolysate and refined fat or oil which is free of both the protein and the free fatty acid components.
A connector component for selectively connecting to a printed circuit board, the connector component comprising: a body including opposing sides at which are located pinch tabs; one or more electrically conductive contact pins each of which includes a portion thereof extending from a bottom of the body; and latching pins each of which includes a portion thereof also extending from the bottom of the body; the pinch tabs configured to bias one or more of the latching pins in a first position where the one or more of the latching pins is/are angled inwards at an acute angle relative to the contact pins and a central axis of the connector component when the pinch tabs are not being pinched inwards towards one another; and the pinch tabs configured to bias the one or more of the latching pins in a second position where the one or more of the latching pins is/are within +/- 2 degrees of being parallel to the central axis of the connector component when the pinch tabs are being pinched inward towards one another. a body including opposing sides at which are located pinch tabs; one or more electrically conductive contact pins each of which includes a portion thereof extending from a bottom of the body; and latching pins each of which includes a portion thereof also extending from the bottom of the body; the pinch tabs configured to bias one or more of the latching pins in a first position where the one or more of the latching pins is/are angled inwards at an acute angle relative to the contact pins and a central axis of the connector component when the pinch tabs are not being pinched inwards towards one another; and the pinch tabs configured to bias the one or more of the latching pins in a second position where the one or more of the latching pins is/are within +/- 2 degrees of being parallel to the central axis of the connector component when the pinch tabs are being pinched inward towards one another.
A method for coating a substrate to provide a flame resistant substrate, wherein the flame resistant substrate has increased resistance to flame over the substrate, comprising: exposing the substrate to a cationic solution to produce a cationic layer deposited on the substrate, wherein the cationic solution comprises cationic materials, and wherein the cationic materials comprise a polymer, nanoparticles, or any combinations thereof, wherein the substrate comprises foam; and exposing the cationic layer to an anionic solution to produce an anionic layer deposited on the cationic layer to produce a bilayer comprising the anionic layer and the cationic layer, wherein the anionic solution comprises a layerable material. exposing the substrate to a cationic solution to produce a cationic layer deposited on the substrate, wherein the cationic solution comprises cationic materials, and wherein the cationic materials comprise a polymer, nanoparticles, or any combinations thereof, wherein the substrate comprises foam; and exposing the cationic layer to an anionic solution to produce an anionic layer deposited on the cationic layer to produce a bilayer comprising the anionic layer and the cationic layer, wherein the anionic solution comprises a layerable material.
A capless fuel apparatus comprising: an elongated tubular and cylindrical housing open at each end, said housing defining a first and a second longitudinally spaced fluid ports (50, 52), a first flapper valve associated with said first fluid port and a second flapper valve associated with said second fluid port, said flapper valves being movable between an open and a closed position and resiliently urged toward their respective closed positions, a pair of diametrically opposed latches pivotally mounted to said housing adjacent said second fluid port and pivotal about an axis perpendicular to an axis of said housing between a latch position and a release position, said latches engaging said second flapper valve when at least one of said latches is in said latch position and said second flapper valve in in said closed position to thereby prevent said second flapper valve moving to said open position, each latch having a cam surface which, when engaged, pivots said latch to said open position, wherein only a fuel nozzle of a predetermined size will engage both cam surfaces of both latches, characterized by at least one reinforcing rib attached to said first and/or said second flapper valve (54, 58), said reinforcing rib extending through at least one receiving slot in said housing when said first or said second flapper valve (54, 58) is in said open position. an elongated tubular and cylindrical housing open at each end, said housing defining a first and a second longitudinally spaced fluid ports (50, 52), a first flapper valve associated with said first fluid port and a second flapper valve associated with said second fluid port, said flapper valves being movable between an open and a closed position and resiliently urged toward their respective closed positions, a pair of diametrically opposed latches pivotally mounted to said housing adjacent said second fluid port and pivotal about an axis perpendicular to an axis of said housing between a latch position and a release position, said latches engaging said second flapper valve when at least one of said latches is in said latch position and said second flapper valve in in said closed position to thereby prevent said second flapper valve moving to said open position, each latch having a cam surface which, when engaged, pivots said latch to said open position, wherein only a fuel nozzle of a predetermined size will engage both cam surfaces of both latches, characterized by at least one reinforcing rib attached to said first and/or said second flapper valve (54, 58), said reinforcing rib extending through at least one receiving slot in said housing when said first or said second flapper valve (54, 58) is in said open position.
An article (10, 30) comprising: (a) an outer layer (16, 36) comprising a laminate of a textile (12, 32) bonded to a barrier material (14, 34), said laminate having a water leakage of about 1 g/H20 or less, a breathability of about 1000 g/m2/24h or greater and an air permeability of about 0.5 m3/h (about 0.3 cfm) or greater; (b) an insulation layer (18, 42); and (c) an inner layer (20, 46) comprising an air permeable textile,said insulation layer (18, 42) being orientated between said barrier material (14, 34) and said inner layer (20, 26), and said article (10, 30) having a packing volume of 16, 387 cc (1000 in3) or less. (a) an outer layer (16, 36) comprising a laminate of a textile (12, 32) bonded to a barrier material (14, 34), said laminate having a water leakage of about 1 g/H20 or less, a breathability of about 1000 g/m2/24h or greater and an air permeability of about 0.5 m3/h (about 0.3 cfm) or greater; (b) an insulation layer (18, 42); and (c) an inner layer (20, 46) comprising an air permeable textile,said insulation layer (18, 42) being orientated between said barrier material (14, 34) and said inner layer (20, 26), and said article (10, 30) having a packing volume of 16, 387 cc (1000 in3) or less.
A process for obtaining an assembly of at least one vegetable protein and at least one dairy protein, comprising the steps consisting in obtaining a composition comprising at least one vegetable protein, in obtaining a composition comprising at least one dairy protein and in mixing the composition comprising at least one vegetable protein and the composition comprising at least one dairy protein, and in addition one or more identical or different steps of treatment which modifies the conformation of the proteins, characterized in that the vegetable protein belongs to the leguminous plant proteins and in that said process comprises a step of treatment which modifies the conformation of the proteins consisting in lowering the pH of the composition comprising at least one vegetable protein to a value less than or equal to 4, before the mixing with the composition comprising at least one dairy protein.
A wind turbine power generation facility, comprising: at least one wind turbine power generating apparatus; a lightning sensor for detecting or predicting occurrence of lightning in an installation area of the at least one wind turbine power generating apparatus; and a controller for switching an operation mode of the at least one wind turbine power generating apparatus to a lightning-protection mode in which a rotor rotation speed is lower than a rated rotation speed, on the basis of an output signal of the lightning sensor, wherein the controller is configured to shift a state of the at least one wind turbine power generating apparatus to a standby state in which power generation is stopped without fixing a rotor, upon switch to the lightning-protection mode, and wherein the lightning-protection mode satisfies at least one of a first condition that the rotor rotation speed of the at least one wind turbine power generating apparatus is 2rpm or less, or a second condition that a blade tip speed of the at least one wind turbine power generating apparatus is 15m/s or less. at least one wind turbine power generating apparatus; a lightning sensor for detecting or predicting occurrence of lightning in an installation area of the at least one wind turbine power generating apparatus; and a controller for switching an operation mode of the at least one wind turbine power generating apparatus to a lightning-protection mode in which a rotor rotation speed is lower than a rated rotation speed, on the basis of an output signal of the lightning sensor, wherein the controller is configured to shift a state of the at least one wind turbine power generating apparatus to a standby state in which power generation is stopped without fixing a rotor, upon switch to the lightning-protection mode, and wherein the lightning-protection mode satisfies at least one of a first condition that the rotor rotation speed of the at least one wind turbine power generating apparatus is 2rpm or less, or a second condition that a blade tip speed of the at least one wind turbine power generating apparatus is 15m/s or less.