mhurhangee/ep-ind-claims huggingface dataset:
A solid polymer electrolyte fuel cell comprising: a membrane electrode assembly comprising an ionomer electrolyte disposed between an anode and a cathode, an anode fluid diffusion layer adjacent the anode, and a cathode fluid diffusion layer adjacent the cathode, wherein the electrolyte extends beyond the edges of the anode, cathode, and diffusion layers; anode and cathode separator plates (6, 7) adjacent the anode and cathode fluid diffusion layers, respectively; a frame around the periphery of the membrane electrode assembly comprising an anode frame piece attached at its inner periphery to the edge of the anode fluid diffusion layer and at its outer periphery to the extended electrolyte, and a cathode frame piece attached at its inner periphery to the edge of the cathode fluid diffusion layer and at its outer periphery to the extended electrolyte; seals at the edge of the framed membrane electrode assembly for fluidly separating the anode from the cathode and for fluidly separating both the anode and the cathode from the surrounding environment; wherein the seals consist essentially of: a compliant seal between the anode frame piece and the anode separator plate; and a non-compliant seal between the cathode frame piece and the cathode separator plate, wherein the non-compliant seal compresses less than 50 μm when placed between two plates at a pressure of 344,74 kPa (50 psi). a membrane electrode assembly comprising an ionomer electrolyte disposed between an anode and a cathode, an anode fluid diffusion layer adjacent the anode, and a cathode fluid diffusion layer adjacent the cathode, wherein the electrolyte extends beyond the edges of the anode, cathode, and diffusion layers; anode and cathode separator plates (6, 7) adjacent the anode and cathode fluid diffusion layers, respectively; a frame around the periphery of the membrane electrode assembly comprising an anode frame piece attached at its inner periphery to the edge of the anode fluid diffusion layer and at its outer periphery to the extended electrolyte, and a cathode frame piece attached at its inner periphery to the edge of the cathode fluid diffusion layer and at its outer periphery to the extended electrolyte; seals at the edge of the framed membrane electrode assembly for fluidly separating the anode from the cathode and for fluidly separating both the anode and the cathode from the surrounding environment; a compliant seal between the anode frame piece and the anode separator plate; and a non-compliant seal between the cathode frame piece and the cathode separator plate, wherein the non-compliant seal compresses less than 50 μm when placed between two plates at a pressure of 344,74 kPa (50 psi).
A method for testing ignition properties of particles relating to a combustion of a combustible gas within which a particle is present, the method comprising: generating a laminar flow of the combustible gas around the particle that is fixed in a test chamber, wherein the particle has a largest dimension in the range of 10-1000 μm, which particle is fixed by a particle holder, which particle holder is configured to position the particle upstream from the particle holder so that the particle holder does not negatively influence the laminar flow of the combustible gas in the test chamber upstream of the particle, wherein a position upstream from the particle holder is toward a gas inlet relative to the particle holder; heating the particle to a temperature; and collecting data associated with the particle and/or the laminar flow of the combustible gas. generating a laminar flow of the combustible gas around the particle that is fixed in a test chamber, wherein the particle has a largest dimension in the range of 10-1000 μm, which particle is fixed by a particle holder, which particle holder is configured to position the particle upstream from the particle holder so that the particle holder does not negatively influence the laminar flow of the combustible gas in the test chamber upstream of the particle, wherein a position upstream from the particle holder is toward a gas inlet relative to the particle holder; heating the particle to a temperature; and collecting data associated with the particle and/or the laminar flow of the combustible gas.
A cutting element, comprising: a substrate; and a layer of diamond particles sintered to the substrate, the layer including a working surface at a first surface distal from the substrate, wherein the substrate is non-magnetic and electrically conductive; characterised in that: the substrate is a sintered carbide including tungsten carbide and an iron group binder metal present in an amount greater than 0 wt-% to less than 0.5 wt-%. a substrate; and a layer of diamond particles sintered to the substrate, the layer including a working surface at a first surface distal from the substrate, wherein the substrate is non-magnetic and electrically conductive; characterised in that: the substrate is a sintered carbide including tungsten carbide and an iron group binder metal present in an amount greater than 0 wt-% to less than 0.5 wt-%.
A dehumidifying apparatus comprising: a refrigerant circuit in which a compressor, a flow path switching device, a first heat exchanger, a pressure reducing device, and a second heat exchanger are connected to each other in this order by a refrigerant pipe; an air passage in which the first heat exchanger, a desiccant material which is capable of adsorbing and desorbing moisture, and the second heat exchanger are arranged in series; and an air-sending device provided within the air passage and configured to send air within a dehumidified space into the air passage, wherein a dehumidification operation is performed in which a first operation mode and a second operation mode are alternately switched by flow path switching of the flow path switching device, the first operation mode being a mode in which the first heat exchanger acts as a condenser or a radiator, the second heat exchanger acts as an evaporator, and moisture retained in the desiccant material is desorbed, the second operation mode being a mode in which the first heat exchanger acts as an evaporator, the second heat exchanger acts as a condenser or a radiator, and the desiccant material adsorbs moisture from air passing through the air passage. a refrigerant circuit in which a compressor, a flow path switching device, a first heat exchanger, a pressure reducing device, and a second heat exchanger are connected to each other in this order by a refrigerant pipe; an air passage in which the first heat exchanger, a desiccant material which is capable of adsorbing and desorbing moisture, and the second heat exchanger are arranged in series; and an air-sending device provided within the air passage and configured to send air within a dehumidified space into the air passage, wherein a dehumidification operation is performed in which a first operation mode and a second operation mode are alternately switched by flow path switching of the flow path switching device, the first operation mode being a mode in which the first heat exchanger acts as a condenser or a radiator, the second heat exchanger acts as an evaporator, and moisture retained in the desiccant material is desorbed, the second operation mode being a mode in which the first heat exchanger acts as an evaporator, the second heat exchanger acts as a condenser or a radiator, and the desiccant material adsorbs moisture from air passing through the air passage.
A quantum rod light-emitting display device comprising: a display panel including a first substrate, a second substrate opposite to the first substrate, and a quantum rod layer formed between the first substrate and the second substrate, wherein quantum rods in the quantum rod layer are arranged in one direction; and a polarizer disposed on the display panel and including a quarter wave plate layer and a polyvinyl alcohol layer, the PVA layer is expressed by Formula 1, wherein X denotes polyethylene, and each of m and 1 is an integer ranging from 1 to 10000, wherein the PVA layer transmits only light linearly polarized in a first direction, and wherein the QWP layer is disposed under the PVA layer, and the QWP layer circularly polarizes the light linearly polarized in the first direction or linearly polarizes light reflected by the display panel in a second direction. a display panel including a first substrate, a second substrate opposite to the first substrate, and a quantum rod layer formed between the first substrate and the second substrate, wherein quantum rods in the quantum rod layer are arranged in one direction; and a polarizer disposed on the display panel and including a quarter wave plate layer and a polyvinyl alcohol layer, the PVA layer is expressed by Formula 1, wherein X denotes polyethylene, and each of m and 1 is an integer ranging from 1 to 10000, wherein the PVA layer transmits only light linearly polarized in a first direction, and wherein the QWP layer is disposed under the PVA layer, and the QWP layer circularly polarizes the light linearly polarized in the first direction or linearly polarizes light reflected by the display panel in a second direction.
A service communication method for using multiple Radio Access Technologies, RATs, characterized by comprising: receiving, by a terminal, network capabilities of the multiple RATs; selecting, by the terminal, at least two RATs from the multiple RATs for a service of the terminal according to the network capabilities; and performing, by the terminal, communication of the service in a diversity mode by using the at least two RATs, wherein the diversity mode means that communication of same content is performed by using different RATs in the at least two RATs. receiving, by a terminal, network capabilities of the multiple RATs; selecting, by the terminal, at least two RATs from the multiple RATs for a service of the terminal according to the network capabilities; and performing, by the terminal, communication of the service in a diversity mode by using the at least two RATs, wherein the diversity mode means that communication of same content is performed by using different RATs in the at least two RATs.
A spindle lock for an electric power tool, the electric power tool comprising an electric motor mounted within a motor housing and a spindle mounted within a gear case for rotation about an axis, the spindle driven by the electric motor, the spindle lock comprising: an elongated flexible member having a middle member located between first and second connecting members (136, 140), wherein the first connecting member is engaged with a corresponding surface of the gear case and the second connecting member is engaged with a corresponding surface of the spindle to lock the spindle against rotation about the axis; wherein the second connecting member comprises two prongs (156, 158) arranged in a U-shape configuration; characterized in that the second connecting member engages with corresponding walls (142, 144) of the gear case to prevent rotation of the spindle in a locking position. an elongated flexible member having a middle member located between first and second connecting members (136, 140), wherein the first connecting member is engaged with a corresponding surface of the gear case and the second connecting member is engaged with a corresponding surface of the spindle to lock the spindle against rotation about the axis; wherein the second connecting member comprises two prongs (156, 158) arranged in a U-shape configuration;
A metal frame comprising at least one first section bar (4; 25) having an end portion, which defines a first coupling portion (7; 29) and is delimited by two first side walls (8; 30), which are substantially parallel to one another; and at least one second section bar (2; 23), which is provided with a second coupling portion (15; 16; 27) delimited by a second side wall (14; 28); wherein each first side wall (8; 30) is provided with at least one elastically deformable tongue (9; 31), which is laterally delimited by at least a first slit (10; 32) obtained through the first side wall (8; 30) and is provided with a hooking tooth (12; 33), which is designed to engage the second side wall (14; 28) following the coupling of the first coupling portion (7; 29) to the second coupling portion (15; 16; 27); and characterized in that each tongue (9; 31) is laterally delimited by a second slit (11; 32), which is obtained through the relative first side wall (8; 30) and is opposite the relative first slit (10; 32).
A pharmaceutical composition comprising: {11S-[1α,2α,3β(1S*,2R*),5β]}-3-(7-{[2-(3,4-difluorophenyl)cyclopropyl]-amino}-5-(propylthio)-3H-1,2,3-triazolo[4,5-d]pyrimidin-3-yl)-5-(2-hydroxyethoxy)-cyclopentane-1,2-diol; a filler which is a mixture of mannitol and dibasic calcium phosphate dihydrate; a binder which is hydroxypropyl cellulose; a disintegrant which is sodium starch glycollate; and one or more lubricants. {11S-[1α,2α,3β(1S*,2R*),5β]}-3-(7-{[2-(3,4-difluorophenyl)cyclopropyl]-amino}-5-(propylthio)-3H-1,2,3-triazolo[4,5-d]pyrimidin-3-yl)-5-(2-hydroxyethoxy)-cyclopentane-1,2-diol; a filler which is a mixture of mannitol and dibasic calcium phosphate dihydrate; a binder which is hydroxypropyl cellulose; a disintegrant which is sodium starch glycollate; and one or more lubricants.
Cosmetic emulsion comprising a) sodium carboxymethyl starch and b) water; characterized in that the weight ratio of water to sodium carboxymethyl starch is less than 160:1 and more than 20:1. a) sodium carboxymethyl starch and b) water;
A protection relay for a distribution transformer adapted to contain a cooling liquid and comprising a tank adapted to be filled with said cooling liquid comprising: - a main body mechanically coupleable in a removable manner with said tank, said main body including a case section defining a first inner volume and a duct section adapted to link said case section with said tank, said case section including an inner chamber arranged in said first inner volume, said inner chamber being, in operation, in fluid-dynamic communication with said tank through said duct section and filled with said cooling liquid; - an outer container mechanically coupled in a removable manner with said case section, said outer container being in fluid-dynamic communication with said inner chamber and adapted to be partially filled with said cooling liquid; - a floating element accommodated within said outer container and adapted to be at least partially immersed in and moved by the cooling liquid contained in said outer container; - switching means arranged in said first inner volume and adapted to be actuated by said floating element when the cooling liquid contained in said outer container reaches one or more threshold levels; characterized in that said case section and said outer container respectively comprise mutually coupleable second and third mechanical connection means (25, 35) to mechanically couple said outer container with said case section in a removable manner at second and third ports (22, 32) of said case section and said outer container, wherein said second and third mechanical connection means (25, 35) are of the shape-coupling type or of the snap-fit type. - a main body mechanically coupleable in a removable manner with said tank, said main body including a case section defining a first inner volume and a duct section adapted to link said case section with said tank, said case section including an inner chamber arranged in said first inner volume, said inner chamber being, in operation, in fluid-dynamic communication with said tank through said duct section and filled with said cooling liquid; - an outer container mechanically coupled in a removable manner with said case section, said outer container being in fluid-dynamic communication with said inner chamber and adapted to be partially filled with said cooling liquid; - a floating element accommodated within said outer container and adapted to be at least partially immersed in and moved by the cooling liquid contained in said outer container; - switching means arranged in said first inner volume and adapted to be actuated by said floating element when the cooling liquid contained in said outer container reaches one or more threshold levels;
An RNAi agent which inhibits a meiotic kinesin HSET for use in treating a meiotic kinesin-associated disease or disorder, wherein the meiotic kinesin-associated disease or disorder is a cellular proliferative disease or disorder.
A tobacco product adapted for oral consumption, comprising: a tobacco composition in the form of a compressed tobacco sheet or in the form of a tobacco material enclosed in a pouch; and at least one edible film adapted for oral ingestion and adjacent to either the compressed tobacco sheet or the pouch, wherein the edible film comprises a fruit or vegetable puree. a tobacco composition in the form of a compressed tobacco sheet or in the form of a tobacco material enclosed in a pouch; and at least one edible film adapted for oral ingestion and adjacent to either the compressed tobacco sheet or the pouch, wherein the edible film comprises a fruit or vegetable puree.
Support arm, which can be applied with a load and which is configured to position a patient's body part, comprising a device for manual unlocking of the support arm, the device comprising: an operating part, which is to be actuated manually by means of an actuation force, which increases with increasing load, to unlock the support arm, a transformation mechanism (64, 90), having a power transmission element, which is coupled to the operating part, and an actuator being coupled to the power transmission element, the actuator being movable to unlock the support arm by means of the actuation force, which transmits the power transmission element to the actuator from a locked position, in which the actuator is operatively decoupled from the support arm, into an unlocked position, in which the actuator is operatively coupled to the support arm for unlocking the same, characterized by an elongated housing, in which the transmission mechanism (64, 90) transmits the manually exerted actuation force applied to the operating part into a movement of the power transmission element along a longitudinal axis of the housing, the transformation mechanism (64, 90) having an elastically deformable force limiter along the longitudinal axis of the housing, by means of which the power transmission element is coupled to the actuator and which absorbs the actuation force to the actuator by means of its elastic deformation, if the actuation force exceeds a predetermined force, which causes the actuator to remain in the locked position. an operating part, which is to be actuated manually by means of an actuation force, which increases with increasing load, to unlock the support arm, a transformation mechanism (64, 90), having a power transmission element, which is coupled to the operating part, and an actuator being coupled to the power transmission element, the actuator being movable to unlock the support arm by means of the actuation force, which transmits the power transmission element to the actuator from a locked position, in which the actuator is operatively decoupled from the support arm, into an unlocked position, in which the actuator is operatively coupled to the support arm for unlocking the same, characterized by an elongated housing, in which the transmission mechanism (64, 90) transmits the manually exerted actuation force applied to the operating part into a movement of the power transmission element along a longitudinal axis of the housing, the transformation mechanism (64, 90) having an elastically deformable force limiter along the longitudinal axis of the housing, by means of which the power transmission element is coupled to the actuator and which absorbs the actuation force to the actuator by means of its elastic deformation, if the actuation force exceeds a predetermined force, which causes the actuator to remain in the locked position.
A method performed by a network comprising a first network node and a second network node for handling baseband processing of signals communicated with wireless devices in a wireless network, the method comprising: - communicating by the first network node, a first type of traffic signals with a first wireless device, wherein the first type of traffic signals tolerates a certain baseband processing delay, - performing by the first network node, a first part of baseband processing of the first type of traffic signals using a non-GPP implemented processor, wherein the first part of baseband processing comprises a signal pre-processing operation including as Fast Fourier Transform and/or Filterbank, - communicating the first type of traffic signals with the second network node for a second part of baseband processing of the first type of traffic signals, wherein the second network node uses a GPP implemented processor for the second part of the baseband processing, and wherein the second part of baseband processing comprises one or more baseband operations other than said signal pre-processing operation, the one or more baseband operations including any one or more out of: modulation/demodulation, channel estimation, FEC coding/decoding and scheduling, - communicating by the first network node, a second type of traffic signals with a second wireless device, wherein the second type of traffic signals does not tolerate said baseband processing delay, and - performing by the first network node, both of said first and second parts of baseband processing of the second type of traffic signals using the non-GPP implemented processor. - communicating by the first network node, a first type of traffic signals with a first wireless device, wherein the first type of traffic signals tolerates a certain baseband processing delay, - performing by the first network node, a first part of baseband processing of the first type of traffic signals using a non-GPP implemented processor, wherein the first part of baseband processing comprises a signal pre-processing operation including as Fast Fourier Transform and/or Filterbank, - communicating the first type of traffic signals with the second network node for a second part of baseband processing of the first type of traffic signals, wherein the second network node uses a GPP implemented processor for the second part of the baseband processing, and wherein the second part of baseband processing comprises one or more baseband operations other than said signal pre-processing operation, the one or more baseband operations including any one or more out of: modulation/demodulation, channel estimation, FEC coding/decoding and scheduling, - communicating by the first network node, a second type of traffic signals with a second wireless device, wherein the second type of traffic signals does not tolerate said baseband processing delay, and - performing by the first network node, both of said first and second parts of baseband processing of the second type of traffic signals using the non-GPP implemented processor.