mhurhangee/ep-ind-claims huggingface dataset:
Bearing (10, 20, 30, 40, 50, 60, 70) for the attachment of a transverse leaf spring, in particular a transverse leaf spring which does not control a wheel laterally and/or in the vehicle longitudinal direction, in a double-track motor vehicle in the region of a vehicle axle, the bearing (10, 20, 30, 40, 50, 60, 70) being configured in such a way that, in a functional installed state in a vehicle, it makes a compensation of a movement of a movement of the transverse leaf spring possible, at least within certain limits, in particular a deflection and/or a movement in the vehicle longitudinal direction and/or vehicle transverse direction, and a support of the transverse leaf spring on the vehicle body in the vehicle vertical direction, the bearing (10, 20, 30, 40, 50, 60, 70) having, in relation to a functional installed state in a motor vehicle, an upper bearing plate (11, 51, 61) with a contact face (11a, 51, 61a), a lower bearing plate (12, 42, 62) with a contact face (12a, 42a, 62a), and a rolling body (13, 23, 33) which is arranged between the upper (11, 51, 61) and the lower bearing plate, and the rolling body (13, 23, 33) rolling, in a functional installed state of the bearing (10, 20, 30, 40, 50, 60, 70) in a vehicle, in order to compensate for a movement of the transverse leaf spring on the contact face (11a, 12a, 42a, 51a, 61a, 62a) of the respective bearing plate (11, 12, 42, 51, 61, 62), the bearing (10, 20, 30, 40, 50, 60, 70) having an elastomer layer (14, 14') on that side of the respective bearing plate (11, 12, 42, 51, 61, 62) which faces away from the contact face (11a, 12a, 42a, 51a, 61a, 62a), which elastomer layer (14, 14') is configured to make, in a functional installed state of the bearing (10, 20, 30, 40, 50, 60, 70) in a vehicle, a compensation of a change in a spacing (h 1, h 2, h 1 ', h 2 ') of the two bearing plates (11, 12, 42, 51, 61, 62) with respect to one another as a consequence of a movement of the transverse leaf spring possible, the upper bearing plate (11, 51, 61) and the lower bearing plate (12, 42, 62) being connected to one another only by way of an elastomer, the bearing comprising the elastomer in each case laterally, the lateral elastomer being configured to secure the rolling body (13, 23, 33) laterally against falling out, the rolling body (13, 23, 33) being arranged in a manner which is secured against falling out, and the bearing being configured as a roller bearing and as a movable linear bearing, characterized in that the bearing (10, 20, 30, 40, 50, 60, 70) has closed, hollow intermediate spaces between the elastomer and the rolling body (13, 23, 33), which intermediate spaces are configured in such a way that rolling of the rolling body (13, 23, 33) is not impeded by way of the elastomer and a corresponding compensation movement of the bearing (10, 20, 30, 40, 50, 60, 70) is made possible.
Apparatus for cleaning bottle crates, having at least one treatment chamber formed within a housing, having a transport device which transports the bottle crates along a predetermined transport path through the treatment chamber, having at least one application device which acts upon the bottle crates with a liquid cleaning agent for cleaning them, wherein the housing having at least one circumferential wall which surrounds the treatment chamber and a bottom wall which is arranged below the treatment chamber, characterized in that each circumferential wall, the bottom wall and a lid wall is a thermally insulated wall, wherein an insulating medium for insulating the wall is integrated into this wall, wherein the thermally insulated wall comprises several wall modules which are connected to each other and which each comprise an outer wall element and an inner wall element facing the treatment chamber, wherein the insulating medium is arranged between the outer wall member and the inner wall member, wherein a wall module is parallelepipedic in its entirety and forms a cavity within which said insulating medium is disposed.
A laminate film comprising: a resin layer which is formed from a fluororesin composition; and a resin layer which is formed from a resin composition containing an acid anhydride copolymer (C-1) including a monomer unit of styrene and acrylic rubber particles (C-2); wherein a glass transition temperature, as determined in accordance with the description, of the acid anhydride copolymer (C-1) is 50°C or higher and 105°C or lower, and the resin composition forming the resin layer has an acid anhydride group for exhibiting adhesiveness with a base material and the resin layer is a bonding layer for facing an adherend side and the resin layer is a surface layer for opposing the adherend side. a resin layer which is formed from a fluororesin composition; and a resin layer which is formed from a resin composition containing an acid anhydride copolymer (C-1) including a monomer unit of styrene and acrylic rubber particles (C-2); wherein a glass transition temperature, as determined in accordance with the description, of the acid anhydride copolymer (C-1) is 50°C or higher and 105°C or lower, and the resin composition forming the resin layer has an acid anhydride group for exhibiting adhesiveness with a base material and the resin layer is a bonding layer for facing an adherend side and the resin layer is a surface layer for opposing the adherend side.
Lighting device for a vehicle, in particular for a motor vehicle, comprising at least one light source and at least one light guide arrangement associated with the at least one light source for guiding the light emitted by the at least one light source and coupled into the light guide arrangement, wherein one or more output coupling-out points are provided in the light guide arrangement for outputting at least a part of the input light, and wherein a deflecting device is associated with the one or more outcoupling points of the light guide arrangement for deflecting the coupled light to the one or more outcoupling points of the light guide arrangement, which deflecting device deflects the light coupled in a main light input direction into at least one main light deflection direction (L2, L2') by reflection on at least one reflection surface (101, 102) of the deflecting device, wherein the at least one reflection surface (101, 102) comprises at least two partial reflection surfaces (102a, 102b, 102c), characterized in that parallel light beams (51 - 57) of a light beam impinging on the reflecting surface (101, 102), at least in one projection into a propagation plane, which is defined by the main light input direction and the main light deflection direction (L2, L2') associated with the at least one reflection surface (101, 102), - are reflected divergently (51', 52', 53') in several first reflection sub-surfaces (102'b) and - are reflected convergently (54', 55', 56', 57') in several second reflection sub-surfaces (102'a, 102'c), and the reflection sub-surfaces (102'a, 102'b, 102'c) are arranged and/or formed in such a way that convergent and divergent radiation directions of the reflected beams occur alternately and preferably vary periodically. - are reflected divergently (51', 52', 53') in several first reflection sub-surfaces (102'b) and - are reflected convergently (54', 55', 56', 57') in several second reflection sub-surfaces (102'a, 102'c),
A controller comprising: a first holding location for storing or buffering two or more lighting control frames of a lighting control protocol, so as to be arranged for transmission by a transmitter one-after-another in a temporal sequence over a lighting network, in order to control a light emission of at least one lighting device of the lighting network; a second holding location for storing or buffering at least one status query of a device management protocol, so as to be arranged for transmission by the transmitter over the lighting network in order to query a status of at least one lighting device of the lighting network; an arbitrator configured to automatically detect when one of the lighting control frames (26 m) is redundant with respect to another of the lighting control frames within a predetermined number of said frames in said sequence, and in response to automatically cause the status query to be transmitted in place of the redundant lighting control frame in said sequence. a first holding location for storing or buffering two or more lighting control frames of a lighting control protocol, so as to be arranged for transmission by a transmitter one-after-another in a temporal sequence over a lighting network, in order to control a light emission of at least one lighting device of the lighting network; a second holding location for storing or buffering at least one status query of a device management protocol, so as to be arranged for transmission by the transmitter over the lighting network in order to query a status of at least one lighting device of the lighting network; an arbitrator configured to automatically detect when one of the lighting control frames (26 m) is redundant with respect to another of the lighting control frames within a predetermined number of said frames in said sequence, and in response to automatically cause the status query to be transmitted in place of the redundant lighting control frame in said sequence.
A diaphragm pump that operates by receiving a pulsating pressure in a crank chamber of an engine, the diaphragm pump comprising: a low pressure side diaphragm forming a part of a pulsation operating chamber to which the pulsating pressure is transmitted and configured to operate by receiving the pulsating pressure, wherein the low pressure side diaphragm has a low pressure side operating portion which operates by receiving the pulsating pressure; and a high pressure side diaphragm forming a part of a pump chamber for supplying fuel to the engine and configured to send the fuel to the engine by operating, wherein the high pressure side diaphragm has a high pressure side operating portion which operates in conjunction with the low pressure side diaphragm, and wherein an area of the high pressure side operating portion is smaller than an area of the low pressure side operating portion a connecting portion connecting the low pressure side diaphragm and the high pressure side diaphragm to each other, wherein the connecting portion comprises a first end portion fixed to the low pressure side diaphragm, and a second end portion fixed to the high pressure side diaphragm to operate the high pressure side diaphragm in conjunction with the low pressure side diaphragm, characterized in that: the diaphragm pump further comprises: a wall portion located between the low pressure side diaphragm and the high pressure side diaphragm; a guide hole penetrating the wall portion, wherein the connecting portion passes through the guide hole and is movable relative to the guide hole in a penetrating direction of the guide hole. a low pressure side diaphragm forming a part of a pulsation operating chamber to which the pulsating pressure is transmitted and configured to operate by receiving the pulsating pressure, wherein the low pressure side diaphragm has a low pressure side operating portion which operates by receiving the pulsating pressure; and a high pressure side diaphragm forming a part of a pump chamber for supplying fuel to the engine and configured to send the fuel to the engine by operating, wherein the high pressure side diaphragm has a high pressure side operating portion which operates in conjunction with the low pressure side diaphragm, and wherein an area of the high pressure side operating portion is smaller than an area of the low pressure side operating portion a connecting portion connecting the low pressure side diaphragm and the high pressure side diaphragm to each other, wherein the connecting portion comprises a first end portion fixed to the low pressure side diaphragm, and a second end portion fixed to the high pressure side diaphragm to operate the high pressure side diaphragm in conjunction with the low pressure side diaphragm, a wall portion located between the low pressure side diaphragm and the high pressure side diaphragm; a guide hole penetrating the wall portion, wherein the connecting portion passes through the guide hole and is movable relative to the guide hole in a penetrating direction of the guide hole.
A method for producing a phenylacetamide compound represented by formula: wherein Q represents a hydrogen atom or a halogen atom, R 2 represents a hydrogen atom, R 4 represents an alkyl group having 1 to 4 carbon atoms, Ar represents a phenyl group which may be unsubstituted or substituted with alkyl having 1 to 4 carbon atoms or halogen, R 5 represents R 4; comprising reacting a phenylacetamide compound represented by formula: wherein Q, R 2 and Ar have the same meanings as defined above; with a dialkyl sulfate represented by formula: wherein R 4 has the same meaning as defined above; in the presence of a base.
A linker-drug compound of formula or a pharmaceutically acceptable salt, hydrate, or solvate thereof, wherein V 1 is a conditionally-cleavable or conditionally-transformable moiety, which can be cleaved or transformed by a chemical, photochemical, physical, biological, or enzymatic process; Z is a cytotoxic drug comprising a phenolic hydroxyl group through which Z is attached to the linker, preferably, Z is a duocarmycin or a CBI dimer (1,2,9,9a-tetrahydrocyclopropa[c]benz[e]indole-4-one dimer) derivative, more preferably, Z is a duocarmycin derivative; n is 0, 1, 2, or 3; and m is 0 or 1. V 1 is a conditionally-cleavable or conditionally-transformable moiety, which can be cleaved or transformed by a chemical, photochemical, physical, biological, or enzymatic process; Z is a cytotoxic drug comprising a phenolic hydroxyl group through which Z is attached to the linker, preferably, Z is a duocarmycin or a CBI dimer (1,2,9,9a-tetrahydrocyclopropa[c]benz[e]indole-4-one dimer) derivative, more preferably, Z is a duocarmycin derivative; n is 0, 1, 2, or 3; and m is 0 or 1.
A method for monitoring the quality of nanofibrillar cellulose produced in a process comprising disintegrating fibers of cellulose pulp, characterized in that the method comprises - measuring in real-time optically the turbidity of a dispersion containing nanofibrillar cellulose obtained from said disintegrating process, and - determining the quality of said produced nanofibrillar cellulose using a correlation between the measured turbidity and said quality of the produced nanofibrillar cellulose, wherein lowered turbidity indicates increased quality of the nanofibrillar cellulose. - measuring in real-time optically the turbidity of a dispersion containing nanofibrillar cellulose obtained from said disintegrating process, and - determining the quality of said produced nanofibrillar cellulose using a correlation between the measured turbidity and said quality of the produced nanofibrillar cellulose, wherein lowered turbidity indicates increased quality of the nanofibrillar cellulose.
An aqueous floor coating composition comprising: water; at least one supramolecular polymer comprising polymerized units derived from: one or more 4H monomers which comprise a polymerizable group and a quadruple hydrogen bonding moiety; at least one monomer having acid functional groups; and one or more ethylenically unsaturated monomers; and optionally, one or more additional ingredients selected from: an alkali soluble resin, a leveling agent, a wax emulsion, a defoaming agent, a preservative, a solvent, a surfactant, a dye, an abrasive, and an odorant, wherein said one or more 4H monomers each have the following general structure: a − b − c wherein (a) is a polymerizable group, (b) is a linking moiety and (c) is a 4H moiety capable of forming at least four hydrogen bridges, wherein said 4H moiety is a reaction product of: (i) a nitrogen containing compound that is an isocytosine derivate, a triazine derivative, or a tautomer of these derivatives; and (ii) an isocyanate or thioisocyanate. water; at least one supramolecular polymer comprising polymerized units derived from: one or more 4H monomers which comprise a polymerizable group and a quadruple hydrogen bonding moiety; at least one monomer having acid functional groups; and one or more ethylenically unsaturated monomers; and one or more 4H monomers which comprise a polymerizable group and a quadruple hydrogen bonding moiety; at least one monomer having acid functional groups; and one or more ethylenically unsaturated monomers; and optionally, one or more additional ingredients selected from: an alkali soluble resin, a leveling agent, a wax emulsion, a defoaming agent, a preservative, a solvent, a surfactant, a dye, an abrasive, and an odorant,
A composition for nerve regeneration comprising: neural stem cells, and a neurotrophic factor, which is IL12p80 and/or a monomer of IL12p40. neural stem cells, and a neurotrophic factor, which is IL12p80 and/or a monomer of IL12p40.
A video point cloud compression, V-PCC, method implemented in an encoder to code three dimensional objects represented by a three dimensional cloud of points, the method comprising: encoding, by a processor of the encoder, a sequence of point cloud, PCC, components into a bitstream, encoding into the bitstream, by the processor, a buffering period supplemental enhancement information, SEI, message, a sequence of point cloud compression, PCC, components and an atlas frame timing SEI message; initializing, by the processor, a hypothetical reference decoder, HRD, at a coded atlas access unit, AU, associated with the buffering period SEI message; performing, by the processor, a HRD conformance check of the bitstream starting at the coded atlas AU; and removing, by the processor, decoding units from a coded atlas buffer, CAB, in the HRD during the HRD conformance check as specified by the atlas frame timing SEI message. encoding, by a processor of the encoder, a sequence of point cloud, PCC, components into a bitstream, encoding into the bitstream, by the processor, a buffering period supplemental enhancement information, SEI, message, a sequence of point cloud compression, PCC, components and an atlas frame timing SEI message; initializing, by the processor, a hypothetical reference decoder, HRD, at a coded atlas access unit, AU, associated with the buffering period SEI message; performing, by the processor, a HRD conformance check of the bitstream starting at the coded atlas AU; and removing, by the processor, decoding units from a coded atlas buffer, CAB, in the HRD during the HRD conformance check as specified by the atlas frame timing SEI message.
A method for purifying a protein to reduce the amount of polymers and host cell proteins, comprising one or more chromatographic processes, wherein the one or more chromatographic processes comprises a Protein A affinity chromatographic process, and wherein glycine is included as the ingredient itself of the elution buffer used in the Protein A affinity chromatographic process, the content of the glycine in the elution buffer being 100 mM, and the pH of the elution buffer being from 3.2-3.4.
A method of determining relations between music items, wherein a music item is a submix of a musical composition comprising one or more music tracks, the method comprising: determining a first input representation for at least part of a first music item; mapping the first input representation onto one or more subspaces derived from a vector space using a first model, wherein each subspace models a characteristic of the music items; determining a second input representation for at least part of a second music item; mapping the second input representation onto the one or more subspaces using a second model; and determining a distance between the mappings of the first and second input representations in each subspace, wherein the distance represents the degree of relation between the first and second input representations with respect to the characteristic modelled by the subspace; wherein the first model and the second model each comprise a respective encoder and set of one or more mapping functions; the encoder is configured to map (506, 510) the respective input representation into the vector space; and the set of mapping functions is configured to map (508, 512) the respective input representation from the vector space onto the one or more subspaces. determining a first input representation for at least part of a first music item; mapping the first input representation onto one or more subspaces derived from a vector space using a first model, wherein each subspace models a characteristic of the music items; determining a second input representation for at least part of a second music item; mapping the second input representation onto the one or more subspaces using a second model; and determining a distance between the mappings of the first and second input representations in each subspace, wherein the distance represents the degree of relation between the first and second input representations with respect to the characteristic modelled by the subspace; wherein the first model and the second model each comprise a respective encoder and set of one or more mapping functions; the encoder is configured to map (506, 510) the respective input representation into the vector space; and the set of mapping functions is configured to map (508, 512) the respective input representation from the vector space onto the one or more subspaces.
A radio communication system comprising a plurality of base stations and mobile stations the system having a multi-cell multi-user structure in which cells (12, 13) where the respective base stations are capable of communicating are adjacently or closely arranged, the system being characterised in that: each base station (101, 102) that has a multi-user detection function is adapted to determine that a mobile station outside its local cell approaches the boundary with a neighboring cell based on the detection of a transmitted signal from the mobile station for identifying a user, and to mix and to synthesize a signal for a mobile station (208, 209) within the local cell (12, 13) and a signal for the mobile station outside the local cell (12, 13) to output the synthesized signal. each base station (101, 102) that has a multi-user detection function is adapted to determine that a mobile station outside its local cell approaches the boundary with a neighboring cell based on the detection of a transmitted signal from the mobile station for identifying a user, and to mix and to synthesize a signal for a mobile station (208, 209) within the local cell (12, 13) and a signal for the mobile station outside the local cell (12, 13) to output the synthesized signal.
The use of a composition comprising a polyalkyleneimine and/or a salt or derivative thereof for the prevention of corrosion of non-metallic inorganic items during a washing or rinsing process, wherein the polyalkyleneimine is used in a washing or rinsing cycle in an automatic dishwasher in an amount of from 0.5 mg up to 100 mg per wash or rinse cycle.
An oral care composition comprising: (a) a first composition comprising a silica abrasive and a first zinc compound, wherein the first zinc compound is zinc citrate; and (b) a second composition comprising a calcium carbonate abrasive and a second zinc compound, wherein the second zinc compound is zinc oxide; wherein the oral care composition is a striped dentifrice comprising a main dentifrice material and a stripe dentifrice material, the first composition being the stripe dentifrice material and the second composition being the main dentifrice material, and wherein the oral care composition further comprises from 0.1 to 1.75 weight % of a tartar control agent, based on the total weight of the oral care composition, wherein the concentration of tartar control agent in the second composition is less than 0.05 weight %, based on the weight of the second composition. (a) a first composition comprising a silica abrasive and a first zinc compound, wherein the first zinc compound is zinc citrate; and (b) a second composition comprising a calcium carbonate abrasive and a second zinc compound, wherein the second zinc compound is zinc oxide;