mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack , comprising: a plurality of batteries ; and a case including a case body that houses the plurality of batteries and a case lid that closes an opening of the case body , wherein the case is configured to satisfy that when an internal pressure in the case increases due to generation of gas, the case body and the case lid are relatively displaced in directions away from each other, and a gas exhaust opening is formed in a state that a coupling between the case body and the case lid is maintained characterized in that one of the case body and the case lid includes an extension portion to be inserted into an other one of the case body and the case lid , and the extension part includes a plurality of exhaust holes , and is exposed to an outside of the case when the case body and the case lid are relatively displaced in directions away from each other. a plurality of batteries ; and a case including a case body that houses the plurality of batteries and a case lid that closes an opening of the case body , wherein the case is configured to satisfy that when an internal pressure in the case increases due to generation of gas, the case body and the case lid are relatively displaced in directions away from each other, and a gas exhaust opening is formed in a state that a coupling between the case body and the case lid is maintained characterized in that one of the case body and the case lid includes an extension portion to be inserted into an other one of the case body and the case lid , and the extension part includes a plurality of exhaust holes , and is exposed to an outside of the case when the case body and the case lid are relatively displaced in directions away from each other.
A coolant pump comprising: - a housing having an internal axis; - a bearing disposed on an outside of the housing ; - wherein the bearing comprises an inner ring defining said inner diameter and an outer ring disposed to rotate on the inner ring, wherein the inner ring is fixed to the housing ; - a shaft disposed along the internal axis of the housing , wherein the shaft is journaled by the bearing so as to be rotatable; - an impeller disposed on the shaft so as to rotate with the shaft ; - a seal disposed on the shaft at least partially inside of the bearing so that the bearing overlaps the seal along the internal axis of the housing , wherein the bearing has an inner diameter, the seal has an outer diameter, and the inner diameter of the bearing is greater than the outer diameter of the seal , and - a support member connected to the outer ring of the bearing so that the support member is rotatable with the outer ring , wherein the support member also has a central portion attached to the shaft so that when the ring portion is rotated, the outer ring of the bearing , the support member , the shaft and the impeller rotate together; the coolant pump being characterised in that the outer ring of the bearing defines a belt engaging portion adapted to engage an actuator belt to rotate the outer ring and actuate the coolant pump. - a housing having an internal axis; - a bearing disposed on an outside of the housing ; - wherein the bearing comprises an inner ring defining said inner diameter and an outer ring disposed to rotate on the inner ring, wherein the inner ring is fixed to the housing ; - a shaft disposed along the internal axis of the housing , wherein the shaft is journaled by the bearing so as to be rotatable; - an impeller disposed on the shaft so as to rotate with the shaft ; - a seal disposed on the shaft at least partially inside of the bearing so that the bearing overlaps the seal along the internal axis of the housing , wherein the bearing has an inner diameter, the seal has an outer diameter, and the inner diameter of the bearing is greater than the outer diameter of the seal , and - a support member connected to the outer ring of the bearing so that the support member is rotatable with the outer ring , wherein the support member also has a central portion attached to the shaft so that when the ring portion is rotated, the outer ring of the bearing , the support member , the shaft and the impeller rotate together;
Method for coating, specifically completely rubberizing, a tension member , comprising at least the following method steps: - briefly compressing the tension member in a reversible manner during the coating procedure, said tension member being configured in a cable construction , wherein the brief reversible compressing is performed by generating a negative pressure , and wherein the brief reversible compressing is performed within 2 seconds to 5 minutes, and wherein the cable is a steel cable or a steel hybrid cable; and thereafter - infiltrating the coating compound into the opened cable construction , wherein the cable is completely penetrated. - briefly compressing the tension member in a reversible manner during the coating procedure, said tension member being configured in a cable construction , wherein the brief reversible compressing is performed by generating a negative pressure , and wherein the brief reversible compressing is performed within 2 seconds to 5 minutes, and wherein the cable is a steel cable or a steel hybrid cable; and thereafter - infiltrating the coating compound into the opened cable construction , wherein the cable is completely penetrated.
Damper assembly for insertion into a hinge cup of a concealed hinge, having a support member and a cylinder-piston unit , which comprises a cylinder , which is axially displaceable relative to the support member and can be reset by means of spring elements of the damper assembly , and a piston rod guided in the cylinder and protruding from the same, wherein the support member has an integrated mounting bar with a piston rod mount , in which the piston rod is fixed by means of a ring groove extending circumferentially around the piston rod head , wherein the piston rod head protrudes from the mounting bar , wherein the support member on its side opposite to the mounting bar has two elastically deformable fixing elements , which are spaced apart from one another, and wherein the support member comprises a supporting edge in its apex region , which supporting edge is moulded onto a supporting disc of the support member axially symmetrical to the vertical centre longitudinal plane of the damper assembly , characterized in that - the supporting edge comprises a bottom bar connected to the supporting disc , - the mounting bar outwardly protrudes beyond the bottom bar , wherein the mounting bar protrudes beyond the contour of the supporting plate in a top view of the unloaded damper assembly , - the mounting bar is oriented at least approximately parallel to the bottom bar , and - the mounting bar is designed to be elastically deformable, such that the mounting bar is deformable when the damper assembly is inserted into a hinge cup . - the supporting edge comprises a bottom bar connected to the supporting disc , - the mounting bar outwardly protrudes beyond the bottom bar , wherein the mounting bar protrudes beyond the contour of the supporting plate in a top view of the unloaded damper assembly , - the mounting bar is oriented at least approximately parallel to the bottom bar , and - the mounting bar is designed to be elastically deformable, such that the mounting bar is deformable when the damper assembly is inserted into a hinge cup .
A cosmetic composition comprising a condensate reaction product obtainable according to a process comprising: (i) reacting itaconic acid or an ester thereof with a diamine of formula H 2 N(CH 2 ) n NH 2 , where n is an integer ranging from 2 to 12, wherein when n is an integer ranging from 3 to 12, the alkyl chain is a straight chain, in a molar ratio of diamine to itaconic acid or ester thereof ranging from 1:1.8 to 1:3.0 to form a first reaction mixture; (ii) heating the first reaction mixture to form a first condensate reaction product in a second reaction mixture; and (iii) optionally hydrolysing the second reaction mixture to form a second condensate reaction product, wherein the first condensate reaction product and the second condensate reaction product each independently has a weight average molecular weight (M w ) ranging from 200 to 499 g/mol. (i) reacting itaconic acid or an ester thereof with a diamine of formula H 2 N(CH 2 ) n NH 2 , where n is an integer ranging from 2 to 12, wherein when n is an integer ranging from 3 to 12, the alkyl chain is a straight chain, in a molar ratio of diamine to itaconic acid or ester thereof ranging from 1:1.8 to 1:3.0 to form a first reaction mixture; (ii) heating the first reaction mixture to form a first condensate reaction product in a second reaction mixture; and (iii) optionally hydrolysing the second reaction mixture to form a second condensate reaction product,
Turbomachine blade formed of a hollow airfoil having a leading edge and a trailing edge opposite to each other and connected by an intrados wall and an extrados wall each extending along a radial axis of the blade, between a blade root and a blade tip, the blade comprising a cooling circuit supplied with air and delivering air jets ensuring through multiple orifices of said cooling circuit, an impingement cooling of the inner surface of the airfoil, characterized in that said cooling circuit includes a plurality of superimposed cooling channels (35; 35A, 35B) over all or part of the height of the blade, each disposed perpendicularly to said radial axis of the blade and integrated into said inner surface of the airfoil while matching its contour, said multiple orifices being drilled in each of said cooling channels whose ends (34; 34A, 34B; 36) terminating in a purge cavity of said airfoil are able to ensure a purge of the air having impinged said inner surface of the airfoil after its passage through said multiple orifices.
Particle of modified silica comprising a particle of silica which is covalently linked to at least one halohydrin moiety, wherein the particle of modified silica has the formula (I); wherein A is a halogen, SiO 2 is silica, and R 1 is selected from optionally substituted alkyl, alkenyl, alkynyl, aryl, alkylaryl, arylalkyl, heteroalkyl, heterocycle, alkylheterocycle, or heterocyclealkyl, or combinations thereof.
A wear-resistant lining element which is intended for a surface subjected to wear and which has an outwardly directed surface , over which material in the form of pieces or particles, such as crushed ore and crushed rock material, is intended to move, said wear-resistant lining element comprising elastomeric material, characterized in that said wear-resistant lining element has a metal profile at least partly embedded along an outer edge of said wear-resistant lining element by vulcanization or hardening, wherein an edge of said metal profile is exposed along the outer edge of said wear-resistant lining element such that the edge of the metal profile is weldable to said surface subjected to wear; wherein said wear-resistant lining element prevents material from traveling in between said outer edge of said wear-resistant lining element and said surface subjected to wear, and wherein said metal profile protects the elastomeric material on the outer edge of said wear-resistant lining element .
A composite for heat storage comprising a thermochemical material encapsulated in a water vapour permeable polymeric material, wherein the polymeric material is ethylcellulose.
Toilet module that can be transferred and installed into a lavatory having a sewer connection, a water supply connection, and an electric connection for automatic toilet functions, the toilet module comprising at least the following: - a toilet bowl , - a backrest element having an outer surface and an inside , - one or more movable mechanic auxiliaries comprising a movable toilet seat , which is arranged to be movable mainly between a horizontal sitting position and a free position, - a toilet module sewer connection , a water supply connection , and an electric connection for connecting the toilet module to the corresponding lavatory connections, whereby lavatory technology required by an automatic toilet has been placed inside the backrest element and comprises an electric resistance or other heating device which is arranged to heat a heating area on the outer surface of the backrest element, characterised in that in the free position the toilet seat is arranged so that at least most part of its sitting surface is close to the heating area on the outer surface of the backrest element, and thereby the toilet seat is arranged to be heated mainly by heat radiation from the heating area. - a toilet bowl , - a backrest element having an outer surface and an inside , - one or more movable mechanic auxiliaries comprising a movable toilet seat , which is arranged to be movable mainly between a horizontal sitting position and a free position, - a toilet module sewer connection , a water supply connection , and an electric connection for connecting the toilet module to the corresponding lavatory connections,
A connection structure of a shield terminal which is electrically connected and fixed to an opening end portion of a tubular braided wire covering a sheathed wire along a longitudinal direction thereof, wherein the shield terminal includes: a tubular caulked portion in which a portion folded back to an outer side in the opening end portion of the braided wire is caulked and fixed to an outer peripheral surface of the caulked portion by a caulking sleeve ; and characterized in that a pressing urging portion which is provided near the caulked portion , and presses and urges the braided wire not to move the braided wire with respect to the sheathed wire . a tubular caulked portion in which a portion folded back to an outer side in the opening end portion of the braided wire is caulked and fixed to an outer peripheral surface of the caulked portion by a caulking sleeve ; and characterized in that a pressing urging portion which is provided near the caulked portion , and presses and urges the braided wire not to move the braided wire with respect to the sheathed wire .
A system comprising a mechanical key , which includes a bit and a head and is made of metal, for actuating a twist lock and an additional device provided at the head of the key , the additional device comprising a housing , and the head of the key being surrounded by the housing of the additional device from two mutually opposing sides with a respective housing wall , the housing being mounted rotatably relative to the head of the key , an electrical contact being arranged in each case at the respective inner side of the two housing walls , it being possible to bring the two electrical contacts into an "open" position or a "closed" position by a rotation of the housing relative to the head , the two electrical contacts in the "open" position being situated at a distance from the head of the key , and in the "closed" position resting against the head of the key in a galvanically conducting manner, and thus being galvanically conductively connected to one another across the head of the key , and the additional device comprising a battery and an electric consumer that can be powered by the battery , characterized in that the battery in the "open" position is disconnected from the electric consumer, and in the "closed" position is galvanically conductively connected to the electric consumer.
A method for increasing the conversion rate of biodiesel enzymatically prepared from greases, comprising: enzymatically reacting short-chain alcohols with greases by a lipase to prepare biodiesel, circulating the volatile gases produced in the enzyme reactor to enter into an absorption tank containing short chain alcohols to absorb the moisture brought out by the volatile gases, and pumping the dehydrated gases with an air pump into the enzyme reactor via the bottom of the reactor, wherein the enzyme reactor is a multiple stage enzyme reactor, wherein the short-chain alcohols are one or more alcohols selected from methanol, ethanol, propanol, and butanol, and wherein the absorption tank operates at a temperature of 0°C to 20 °C. enzymatically reacting short-chain alcohols with greases by a lipase to prepare biodiesel, circulating the volatile gases produced in the enzyme reactor to enter into an absorption tank containing short chain alcohols to absorb the moisture brought out by the volatile gases, and pumping the dehydrated gases with an air pump into the enzyme reactor via the bottom of the reactor, wherein the enzyme reactor is a multiple stage enzyme reactor, wherein the short-chain alcohols are one or more alcohols selected from methanol, ethanol, propanol, and butanol, and wherein the absorption tank operates at a temperature of 0°C to 20 °C.
Method for processing a longitudinal acceleration signal from a longitudinal acceleration sensor in a vehicle with a lifting system for lifting a front part of the vehicle, wherein the method comprises: generating a vehicle position signal by means of an electronic control unit of the lifting system that controls or induces a change in position, wherein the vehicle position signal indicates a temporary change in position of a vehicle longitudinal axis (ax) relative to an underlying surface due to targeted lifting of a front part of the vehicle using the lifting system relative to a contact area of wheels of the vehicle on the underlying surface ; providing the vehicle position signal on the CAN bus of the vehicle; detecting the vehicle position signal provided on the CAN bus; and correcting the longitudinal acceleration signal taking into account the temporary change in position based on the detected vehicle position signal, wherein, when correcting the longitudinal acceleration signal, an angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle using the lifting system is taken into account, wherein a magnitude of the height by which the front part of the vehicle is temporarily lifted is determined, and the angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle is calculated from the magnitude of the height together with other vehicle data, in particular a wheel distance. generating a vehicle position signal by means of an electronic control unit of the lifting system that controls or induces a change in position, wherein the vehicle position signal indicates a temporary change in position of a vehicle longitudinal axis (ax) relative to an underlying surface due to targeted lifting of a front part of the vehicle using the lifting system relative to a contact area of wheels of the vehicle on the underlying surface ; providing the vehicle position signal on the CAN bus of the vehicle; detecting the vehicle position signal provided on the CAN bus; and correcting the longitudinal acceleration signal taking into account the temporary change in position based on the detected vehicle position signal, wherein, when correcting the longitudinal acceleration signal, an angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle using the lifting system is taken into account, wherein a magnitude of the height by which the front part of the vehicle is temporarily lifted is determined, and the angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle is calculated from the magnitude of the height together with other vehicle data, in particular a wheel distance.
A titanium sintered body comprising an α-phase titanium and a β-phase titanium as crystal structures, wherein the average cross-sectional grain size of the α-phase titanium is 3-30 μm and is determined by observing the cross section of the titanium sintered body by an electron microscope, randomly selecting 100 or more grains of the α-phase titanium in the obtained observation image, calculating the area of each grain of the α-phase titanium selected in the observation image, thereby obtaining the diameter of a circle having the same area as that of this area and an average for 100 or more grains of the α-phase titanium as the cross-sectional grain size; and wherein the area ratio occupied by the α-phase titanium is 80-98% of the cross-sectional area of the sintered body and the area ratio of the β-phase titanium is 2-20% wherein the area ratio occupied by the α-phase titanium is determined by observing the cross section of the titanium sintered body by an electron microscope and calculating the area of the obtained observation image, subsequently obtaining the total area of the α-phase titanium in the observation image and dividing the obtained total area of the α-phase titanium divided by the area of the observation image to obtain the area ratio occupied.
Multilayer polyolefin film with a barrier effect against oxygen and water vapor, comprising two cover layers, two intermediate layers and one core layer, wherein the two intermediate layers and the core layer contain a hydrocarbon resin together with a nucleating agent, characterised in that the hydrocarbon resin is a dicyclopentadiene (DCPD), C 5 or C 9 resin with a softening point in the range of 120 to 160°C, and the nucleating agent is bis(4-propylbenzylidene)propylsorbitol, bis(3,4-dimethylobenzylideno) sorbitol or N-[3,5-bis(2,2-dimethylpropionylamino)phenyl]-2,2-dimethylpropionamide.
Use of a transition metal silicate hydrate as an accelerating admixture for hydraulic binders, the transition metal silicate hydrate having general formula aMe x O y ·bMO·cAl 2 O 3 ·SiO 2 ·dH 2 O 1) where - Me represents a transition metal whose molar coefficient a is in a range between 0.001 and 2, preferably between 0.01 and 1; - M represents an alkaline earth metal whose molar coefficient b is in a range between 0 and 2, preferably between 0.3 and 1.6; - The molar coefficient c for Al 2 O 3 is in a range between 0 and 2, preferably between 0.1 and 1; - H 2 O represents the hydration water of the silicate hydrate whose molar coefficient d can vary within a wide range between 0.5 and 20; - x and y can both be equal to 1 or different, depending on the valence of the transition metal, given that the valence of the oxygen atom in the metal oxide is equal to 2; said transition metal silicate hydrate being in form of particles with a diameter lower than 1,000 nm. - Me represents a transition metal whose molar coefficient a is in a range between 0.001 and 2, preferably between 0.01 and 1; - M represents an alkaline earth metal whose molar coefficient b is in a range between 0 and 2, preferably between 0.3 and 1.6; - The molar coefficient c for Al 2 O 3 is in a range between 0 and 2, preferably between 0.1 and 1; - H 2 O represents the hydration water of the silicate hydrate whose molar coefficient d can vary within a wide range between 0.5 and 20; - x and y can both be equal to 1 or different, depending on the valence of the transition metal, given that the valence of the oxygen atom in the metal oxide is equal to 2;