mhurhangee/ep-ind-claims huggingface dataset:
A laminated surface covering, comprising: a layer of backing material, an adhesive, and a layer of facing material, wherein the backing material comprises a continuous layer of a backing material and the facing material comprises a continuous layer of a facing material, wherein the adhesive bonds the continuous layer of the facing material directly to the continuous layer of the backing material and comprises a layer of heat-activated bonding material that is in a solid or semi-solid form at room temperature 21°C, wherein the facing material is an EPDM rubber or a wood-grain PVC, and wherein the backing material includes a rubber material. a layer of backing material, an adhesive, and a layer of facing material, wherein the backing material comprises a continuous layer of a backing material and the facing material comprises a continuous layer of a facing material, wherein the adhesive bonds the continuous layer of the facing material directly to the continuous layer of the backing material and comprises a layer of heat-activated bonding material that is in a solid or semi-solid form at room temperature 21°C, wherein the facing material is an EPDM rubber or a wood-grain PVC, and wherein the backing material includes a rubber material.
A liquid submersion-cooled server computer, comprising: a case (12, 100) defining a liquid-tight interior space; a server logic board (16, 106) disposed in the interior space of the casing, and heat generating computer components disposed on the server logic board; a liquid inlet (52a, 110) in a wall of the case and communicating with the interior space, the liquid inlet including a quick-connect valve that controls the flow of liquid through the liquid inlet; a liquid outlet (52b, 112) in the wall of the case and communicating with the interior space, the liquid outlet including a quick-connect valve that controls the flow of liquid through the liquid outlet; a dielectric cooling liquid disposed within the interior space and submerging the plurality of heat generating computer components; and a sealed connector (72, 114) extending through a wall of the case and electrically connected to the computer components on the server logic board; a directed liquid cooling assembly inside the case and connected to the liquid inlet, the assembly including a manifold in communication with the inlet, and a tube that extends from the manifold and that connects to a dispersion plenum housing that closely envelopes a specific targeted hot spot, so that the liquid is directed into the dispersion plenum housing and to said hot spot; an opening formed in one side of the dispersion plenum housing to allow the liquid to flow out of the dispersion plenum housing and into the interior space of the case. a case (12, 100) defining a liquid-tight interior space; a server logic board (16, 106) disposed in the interior space of the casing, and heat generating computer components disposed on the server logic board; a liquid inlet (52a, 110) in a wall of the case and communicating with the interior space, the liquid inlet including a quick-connect valve that controls the flow of liquid through the liquid inlet; a liquid outlet (52b, 112) in the wall of the case and communicating with the interior space, the liquid outlet including a quick-connect valve that controls the flow of liquid through the liquid outlet; a dielectric cooling liquid disposed within the interior space and submerging the plurality of heat generating computer components; and a sealed connector (72, 114) extending through a wall of the case and electrically connected to the computer components on the server logic board; a directed liquid cooling assembly inside the case and connected to the liquid inlet, the assembly including a manifold in communication with the inlet, and a tube that extends from the manifold and that connects to a dispersion plenum housing that closely envelopes a specific targeted hot spot, so that the liquid is directed into the dispersion plenum housing and to said hot spot; an opening formed in one side of the dispersion plenum housing to allow the liquid to flow out of the dispersion plenum housing and into the interior space of the case.
Motor mount for a motor-fan unit of a ventilation installation for a vehicle, comprising an outer ring and a device for receiving an electric motor which extends along a longitudinal axis, said receiving device, comprising an inner ring and an annular element, is connected to said outer ring by a decoupling means, the motor mount comprising a means for limiting at least an axial movement of the receiving device relative to the outer ring, characterized in that the device for limiting the axial movement comprises an abutment that originates from the receiving device and that faces a first bearing zone that is present on the outer ring.
A cosmetic kit for making up and/or for care of keratinous material, comprising at least: • a container containing at least one cosmetic composition comprising, in a physiologically acceptable medium, at least 16% by weight, preferably at least 18% by weight and more preferably at least 20% by weight of pigments and/or of film-forming polymers and/or of non-pulverulent thickening agents, relative to the total weight of said composition, said composition comprising at least one pigment; and • an applicator device for applying the composition, provided with an applicator member including an application surface that is capable of turning about at least one axis or center of rotation in response to being moved in engagement with the keratinous material. • a container containing at least one cosmetic composition comprising, in a physiologically acceptable medium, at least 16% by weight, preferably at least 18% by weight and more preferably at least 20% by weight of pigments and/or of film-forming polymers and/or of non-pulverulent thickening agents, relative to the total weight of said composition, said composition comprising at least one pigment; and • an applicator device for applying the composition, provided with an applicator member including an application surface that is capable of turning about at least one axis or center of rotation in response to being moved in engagement with the keratinous material.
A method comprising: registering, by a slave resource router, with a master resource router; receiving, by the slave resource router, permission to service requests for at least one delivery service; instantiating, by the slave resource router, a topologically nearest node address for the at least one delivery service; advertising, by the slave resource router, the instantiated topologically nearest node address for the at least one delivery service to a network; receiving, by the slave resource router, a request for the at least one delivery service for a content from a client device; determining, by the slave resource router, that the slave resource router has been authorized to cache content for a delivery service corresponding to the client request; determining, by the slave resource router, that content corresponding to the client request is not cached locally in a blind cache corresponding to the slave resource router; proxying, by the slave resource router, a resource routing request corresponding to the client request directed to a master resource router's service address corresponding to the master resource router; populating, by the slave resource router, the blind cache with continent downloaded from a location determined by the master resource router; and providing the client, by the slave resource router, with the content from the blind cache. registering, by a slave resource router, with a master resource router; receiving, by the slave resource router, permission to service requests for at least one delivery service; instantiating, by the slave resource router, a topologically nearest node address for the at least one delivery service; advertising, by the slave resource router, the instantiated topologically nearest node address for the at least one delivery service to a network; receiving, by the slave resource router, a request for the at least one delivery service for a content from a client device; determining, by the slave resource router, that the slave resource router has been authorized to cache content for a delivery service corresponding to the client request; determining, by the slave resource router, that content corresponding to the client request is not cached locally in a blind cache corresponding to the slave resource router; proxying, by the slave resource router, a resource routing request corresponding to the client request directed to a master resource router's service address corresponding to the master resource router; populating, by the slave resource router, the blind cache with continent downloaded from a location determined by the master resource router; and providing the client, by the slave resource router, with the content from the blind cache.
A method of detecting and identifying methicillin resistant Staphylococcus species in a sample, comprising the steps of: a) amplifying DNA from said sample using at least one first primer pair which hybridizes with conserved regions of genes encoding topoisomerases, and a second primer pair which hybridizes with mecA gene; and b) contacting the amplified DNA in hybridization conditions with i) at least one mecA -specific oligonucleotide probe comprising a sequence selected from a group consisting of SEQ ID NOs: 7 to 12 and complementary sequences thereof, ii) at least one S. aureus-specific oligonucleotide probe hybridizing with the amplified topoisomerase genes, said probe comprising a sequence selected from the group consisting of SEQ ID NOs: 13 to 20 and complementary sequences thereof, and iii) at least one staphylococcus genus-specific oligonucleotide probe hybridizing with the amplified topoisomerase genes of staphylococcal species other than S.aureus; and c) detecting any hybridization complexes formed and identifying said infection-causing bacteria based on said detection of said hybridization complex. a) amplifying DNA from said sample using at least one first primer pair which hybridizes with conserved regions of genes encoding topoisomerases, and a second primer pair which hybridizes with mecA gene; and b) contacting the amplified DNA in hybridization conditions with i) at least one mecA -specific oligonucleotide probe comprising a sequence selected from a group consisting of SEQ ID NOs: 7 to 12 and complementary sequences thereof, ii) at least one S. aureus-specific oligonucleotide probe hybridizing with the amplified topoisomerase genes, said probe comprising a sequence selected from the group consisting of SEQ ID NOs: 13 to 20 and complementary sequences thereof, and iii) at least one staphylococcus genus-specific oligonucleotide probe hybridizing with the amplified topoisomerase genes of staphylococcal species other than S.aureus; and i) at least one mecA -specific oligonucleotide probe comprising a sequence selected from a group consisting of SEQ ID NOs: 7 to 12 and complementary sequences thereof, ii) at least one S. aureus-specific oligonucleotide probe hybridizing with the amplified topoisomerase genes, said probe comprising a sequence selected from the group consisting of SEQ ID NOs: 13 to 20 and complementary sequences thereof, and iii) at least one staphylococcus genus-specific oligonucleotide probe hybridizing with the amplified topoisomerase genes of staphylococcal species other than S.aureus; and c) detecting any hybridization complexes formed and identifying said infection-causing bacteria based on said detection of said hybridization complex.
A power storage apparatus comprising: at least one storage module (MOD1...MODn) including a battery block (BB1...BBn) comprising a plurality of battery cells and a module controller (CNT1...CNTn); a control box (ICNT) connected to the storage module; and an isolating unit (ISC1...ISCn) arranged between the module controller (CNT1...CNTn) and the control box (ICNT) that enables wireless information transfer regarding battery information of the battery block between the module controller (CNT1...CNTn) and the control box (ICNT), characterised in that the isolating unit includes: a first antenna mounted on a first trace layer (LY4; LY12) of a printed circuit board; and a second antenna mounted on a second trace layer (LY1; LY11) of the printed circuit board, wherein the first trace layer (LY4, LY12) is separated from the second trace layer (LY1, LY11) by at least one insulation layer of the printed circuit board, the second antenna being directionally aligned with the first antenna to enable the wireless information transfer of battery information between the first and second antennas (23, 24). at least one storage module (MOD1...MODn) including a battery block (BB1...BBn) comprising a plurality of battery cells and a module controller (CNT1...CNTn); a control box (ICNT) connected to the storage module; and an isolating unit (ISC1...ISCn) arranged between the module controller (CNT1...CNTn) and the control box (ICNT) that enables wireless information transfer regarding battery information of the battery block between the module controller (CNT1...CNTn) and the control box (ICNT), characterised in that the isolating unit includes: a first antenna mounted on a first trace layer (LY4; LY12) of a printed circuit board; and a second antenna mounted on a second trace layer (LY1; LY11) of the printed circuit board, wherein the first trace layer (LY4, LY12) is separated from the second trace layer (LY1, LY11) by at least one insulation layer of the printed circuit board, the second antenna being directionally aligned with the first antenna to enable the wireless information transfer of battery information between the first and second antennas (23, 24). a first antenna mounted on a first trace layer (LY4; LY12) of a printed circuit board; and a second antenna mounted on a second trace layer (LY1; LY11) of the printed circuit board, wherein the first trace layer (LY4, LY12) is separated from the second trace layer (LY1, LY11) by at least one insulation layer of the printed circuit board, the second antenna being directionally aligned with the first antenna to enable the wireless information transfer of battery information between the first and second antennas (23, 24).
An energy absorbing device for a motor vehicle comprising a hollow longitudinal member extending along a first longitudinal axis and a longitudinal guide extending along a second longitudinal axis, arranged within the longitudinal member, and suitable for guiding the deformation of the longitudinal member in case of an impact, wherein the ratio of the longitudinal guide length, measured along the second longitudinal axis, to the longitudinal member length, measured along the first longitudinal axis, is comprised between 1/5 and 3/5; wherein the longitudinal guide has constant cross section along its whole length, and the longitudinal member has structural weaknesses, the longitudinal member having constant cross section along its whole length apart from the structural weaknesses; and wherein the ratio of the longitudinal member constant cross section to the longitudinal guide constant cross section is comprised between 2 and 9. wherein the ratio of the longitudinal guide length, measured along the second longitudinal axis, to the longitudinal member length, measured along the first longitudinal axis, is comprised between 1/5 and 3/5; wherein the longitudinal guide has constant cross section along its whole length, and the longitudinal member has structural weaknesses, the longitudinal member having constant cross section along its whole length apart from the structural weaknesses; and wherein the ratio of the longitudinal member constant cross section to the longitudinal guide constant cross section is comprised between 2 and 9.
Cable termination device for being mounted at a cable, the cable termination device comprising: an insulator housing with a first end and a second end, and a stress control device, wherein the stress control device comprises a cone and is provided with an upper deflector element and a lower deflector element for controlling an electric field, the upper deflector element and the lower deflector element being formed as separate parts, wherein the stress control device is configured to be located in the insulator housing and to be installed at the cable, and wherein, when the stress control device is installed at said cable, said cone is parallel to the cable, and the beaked end of said cone points toward the first end of the insulator housing, wherein inside the insulator housing a metal pipe is fixed, whereby the metal pipe extends from the first end of the insulator housing to a point between the first end and second end of the insulator housing, wherein a socket is integrated in a part of the insulator housing which is adjacent to the second end of the insulator housing, said socket comprising a conical part and a socket stress deflector, the socket stress deflector being in contact with the metal pipe, wherein the upper deflector element and the stress deflector of the socket overlap, and wherein an inner surface of the conical part of the socket and the lower deflector element form a critical interface and overlap when the cable is fully inserted into the cable termination device. an insulator housing with a first end and a second end, and a stress control device, wherein the stress control device comprises a cone and is provided with an upper deflector element and a lower deflector element for controlling an electric field, the upper deflector element and the lower deflector element being formed as separate parts, wherein the stress control device is configured to be located in the insulator housing and to be installed at the cable, and wherein, when the stress control device is installed at said cable, said cone is parallel to the cable, and the beaked end of said cone points toward the first end of the insulator housing, wherein inside the insulator housing a metal pipe is fixed, whereby the metal pipe extends from the first end of the insulator housing to a point between the first end and second end of the insulator housing, wherein a socket is integrated in a part of the insulator housing which is adjacent to the second end of the insulator housing, said socket comprising a conical part and a socket stress deflector, the socket stress deflector being in contact with the metal pipe, wherein the upper deflector element and the stress deflector of the socket overlap, and wherein an inner surface of the conical part of the socket and the lower deflector element form a critical interface and overlap when the cable is fully inserted into the cable termination device.
Method for cooling a fuel cell with a liquid cooling medium, wherein at least one of the educts supplied to the fuel cell and of the products removed from the fuel cell is gaseous at operating conditions, the cooling medium being conveyed through the fuel cell by a coolant conveying device, characterised in that the power consumption of the coolant conveying device is compared to preset reference values in order to detect gas in the liquid cooling medium from a deviation of the power consumption from the preset reference values.
An audio system for an ear mountable playback device comprising a speaker, a feedforward microphone (FF_MIC) configured to predominantly sense ambient sound and an error microphone (FB_MIC) configured to sense sound being output from the speaker, the audio system being configured to perform noise cancellation and comprising a sound control processor that is configured to - recording a noise signal from the feedforward microphone (FF_MIC) and using the noise signal as a detection signal; - filtering the detection signal with a feedforward filter; - using the filtered detection signal as an identification signal; - filtering the identification signal with an adjustable filter; - controlling a playback of the filtered detection signal via the speaker; - recording an error signal from the error microphone (FB_MIC); - adjusting the adjustable filter based on a difference between the filtered identification signal and the error signal such that the adjustable filter approximates an acoustic transfer function between the speaker and the error microphone (FB_MIC); and - determining whether the playback device is in a first state, where the playback device is worn by a user, or in a second state, where the playback device is not worn by a user, based on processing of the error signal, wherein determining the second state is based on an evaluation of a filter response of the adjustable filter at at least one predetermined frequency. - recording a noise signal from the feedforward microphone (FF_MIC) and using the noise signal as a detection signal; - filtering the detection signal with a feedforward filter; - using the filtered detection signal as an identification signal; - filtering the identification signal with an adjustable filter; - controlling a playback of the filtered detection signal via the speaker; - recording an error signal from the error microphone (FB_MIC); - adjusting the adjustable filter based on a difference between the filtered identification signal and the error signal such that the adjustable filter approximates an acoustic transfer function between the speaker and the error microphone (FB_MIC); and - determining whether the playback device is in a first state, where the playback device is worn by a user, or in a second state, where the playback device is not worn by a user, based on processing of the error signal, wherein determining the second state is based on an evaluation of a filter response of the adjustable filter at at least one predetermined frequency.