mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor comprising: a crank shaft having a lubricant channel allowing lubricant to flow through the lubricant channel; an orbiting scroll attached to the crank shaft and including a base plate that is discoidal; and a frame having a thrust surface against which the orbiting scroll slides, the thrust surface having an annular shape and facing an outer circumferential region of one surface of the base plate of the orbiting scroll, the orbiting scroll having an inner channel allowing the lubricant supplied through the crank shaft to flow outward and a lubricant channel groove having an annular shape in the outer circumferential region of the one surface of the base plate facing the thrust surface and allowing the lubricant supplied through the inner channel to be supplied to the thrust surface, and the lubricant channel groove being formed such that the lubricant channel groove stays within a region of the thrust surface while the orbiting scroll is orbiting, wherein the orbiting scroll has an orbit-scroll Oldham groove accommodating a part of an Oldham ring, wherein the orbit-scroll Oldham groove is formed in the one surface of the base plate, characterized in that the lubricant channel groove is connected to the inner channel at one end and connected to the orbit-scroll Oldham groove at an other end. a crank shaft having a lubricant channel allowing lubricant to flow through the lubricant channel; an orbiting scroll attached to the crank shaft and including a base plate that is discoidal; and a frame having a thrust surface against which the orbiting scroll slides, the thrust surface having an annular shape and facing an outer circumferential region of one surface of the base plate of the orbiting scroll, the orbiting scroll having an inner channel allowing the lubricant supplied through the crank shaft to flow outward and a lubricant channel groove having an annular shape in the outer circumferential region of the one surface of the base plate facing the thrust surface and allowing the lubricant supplied through the inner channel to be supplied to the thrust surface, and the lubricant channel groove being formed such that the lubricant channel groove stays within a region of the thrust surface while the orbiting scroll is orbiting, wherein the orbiting scroll has an orbit-scroll Oldham groove accommodating a part of an Oldham ring, wherein the orbit-scroll Oldham groove is formed in the one surface of the base plate, characterized in that the lubricant channel groove is connected to the inner channel at one end and connected to the orbit-scroll Oldham groove at an other end.
A protective helmet comprising: - an outer shell; - an impact absorbing liner, positioned inside the outer shell; - a comfort liner positioned at an inner surface of the impact absorbing liner, so as to be in contact with the user's head during the use of the protective helmet; the comfort liner comprising at least one cheek pad including a padding layer and a pad back plate; said at least one cheek pad being coupled to the impact absorbing liner by means of magnetic coupling means (22, 24) provided at the interface surface between the pad back plate and the impact absorbing liner; said magnetic coupling means comprising at least one projection, provided with a first magnetic element, designed to be inserted inside at least one recessed seat in proximity of which a second magnetic element is arranged; characterized in that the at least one recessed seat has a different size and shape with respect to said at least one projection; said at least one projection being adapted to move inside said at least one recessed seat between a first position, wherein the first magnetic element and the second magnetic element are faced to each other, so that the pad back plate is coupled to the impact absorbing liner, and a second position, wherein the first magnetic element and the second magnetic element are spaced apart, so that the pad back plate is releasable from the impact absorbing liner. - an outer shell; - an impact absorbing liner, positioned inside the outer shell; - a comfort liner positioned at an inner surface of the impact absorbing liner, so as to be in contact with the user's head during the use of the protective helmet; the comfort liner comprising at least one cheek pad including a padding layer and a pad back plate; said at least one cheek pad being coupled to the impact absorbing liner by means of magnetic coupling means (22, 24) provided at the interface surface between the pad back plate and the impact absorbing liner; said magnetic coupling means comprising at least one projection, provided with a first magnetic element, designed to be inserted inside at least one recessed seat in proximity of which a second magnetic element is arranged;
A composite electrode for an electricity storage device, comprising: a substrate; a whisker or a fiber made of tungsten oxide or molybdenum oxide, the whisker or the fiber being formed on the substrate; and a coating layer containing an active material which comprises, as a main component, oxide of at least one selected from the group consisting of manganese, nickel, indium, vanadium, cobalt, titanium and ruthenium, the coating layer being formed on at least a part of a surface of the whisker or the fiber, wherein "main component" refers to a component that is contained by 50% by mass or more with respect to a total amount of coating layer, characterized in that needle-shaped concavities and convexities are provided on a surface of the coating layer. a substrate; a whisker or a fiber made of tungsten oxide or molybdenum oxide, the whisker or the fiber being formed on the substrate; and a coating layer containing an active material which comprises, as a main component, oxide of at least one selected from the group consisting of manganese, nickel, indium, vanadium, cobalt, titanium and ruthenium, the coating layer being formed on at least a part of a surface of the whisker or the fiber, wherein "main component" refers to a component that is contained by 50% by mass or more with respect to a total amount of coating layer, characterized in that needle-shaped concavities and convexities are provided on a surface of the coating layer.
Process for preparation of a polyamide PA-4X containing monomer units of 1,4-diaminobutane and an aliphatic linear dicarboxylic acid X with at least 8 carbon atoms, which contains the following steps: 1) making a solution comprising a salt of 1,4-diaminobutane and the aliphatic linear dicarboxylic acid and water, at a temperature at which the salt dissolves; 2) concentrating the solution of the salt at a temperature above the crystallization temperature of the salt, at a pressure of at most 7 barA to a water content of between 0 and 30 wt% based on the total amount of solution, 3) producing a polymer from the solution obtained by step 2, while keeping the polymer in a melt and at a pressure of between 22-X and 18 barA in which X is the number of carbon atoms in the aliphatic linear dicarboxylic acid, 4) depressurizing the polymer obtained at step 3 while keeping the polymer in the melt to further polymerize the polymer. 1) making a solution comprising a salt of 1,4-diaminobutane and the aliphatic linear dicarboxylic acid and water, at a temperature at which the salt dissolves; 2) concentrating the solution of the salt at a temperature above the crystallization temperature of the salt, at a pressure of at most 7 barA to a water content of between 0 and 30 wt% based on the total amount of solution, 3) producing a polymer from the solution obtained by step 2, while keeping the polymer in a melt and at a pressure of between 22-X and 18 barA in which X is the number of carbon atoms in the aliphatic linear dicarboxylic acid, 4) depressurizing the polymer obtained at step 3 while keeping the polymer in the melt to further polymerize the polymer.
A high-field asymmetric-waveform apparatus for a differential ion mobility spectrometer comprising: a first electrode; a second electrode with substantially constant spacing to the first electrode; a first high-voltage waveform generator configured to produce a sinusoidal waveform at a first frequency and at a first amplitude, the first frequency value being adjustable and the first amplitude value being adjustable; a second high-voltage waveform generator, configured to electrically produce a sinusoidal waveform at a second frequency and at a second amplitude, the second frequency value being adjustable and the second amplitude value being adjustable; characterised in that the first waveform generator is electrically connected to the first electrode, the second waveform generator is electrically connected to the second electrode and the second frequency value is a harmonic of the first frequency value, and wherein said apparatus further comprises: a phase adjusting circuit adapted to adjust the phase of at least one of the waveform generators; wherein the electric field created between the first electrode and second electrode, resulting from the application of the first high-voltage waveform and second high-voltage waveform, is asymmetric and has a time-averaged value substantially equal to zero. a first electrode; a second electrode with substantially constant spacing to the first electrode; a first high-voltage waveform generator configured to produce a sinusoidal waveform at a first frequency and at a first amplitude, the first frequency value being adjustable and the first amplitude value being adjustable; a second high-voltage waveform generator, configured to electrically produce a sinusoidal waveform at a second frequency and at a second amplitude, the second frequency value being adjustable and the second amplitude value being adjustable; characterised in that the first waveform generator is electrically connected to the first electrode, the second waveform generator is electrically connected to the second electrode and the second frequency value is a harmonic of the first frequency value, and wherein said apparatus further comprises: a phase adjusting circuit adapted to adjust the phase of at least one of the waveform generators; wherein the electric field created between the first electrode and second electrode, resulting from the application of the first high-voltage waveform and second high-voltage waveform, is asymmetric and has a time-averaged value substantially equal to zero. a phase adjusting circuit adapted to adjust the phase of at least one of the waveform generators; wherein the electric field created between the first electrode and second electrode, resulting from the application of the first high-voltage waveform and second high-voltage waveform, is asymmetric and has a time-averaged value substantially equal to zero.
Device, in particular pump-nozzle system, for injecting a medium, in particular a liquid exhaust-gas aftertreatment agent, having a housing in which a piston is mounted in axially displaceable fashion, and having an electromagnetic actuator for displacing the piston counter to a spring force, wherein the actuator has a magnet armature which is assigned to the piston for the displacement thereof and which is displaceable jointly therewith, characterized in that the magnet armature bears only axially against the piston and is held so as to be guided radially on the housing, wherein the magnet armature has a cup-shaped longitudinal section with a base and with a lateral wall, wherein the piston bears axially against the base, and wherein the lateral wall radially surrounds a housing part, which serves for the mounting of the piston, of the housing and bears radially against an outer side of the housing part.
A linear compressor comprising: a cylinder having a compression space for a refrigerant and into which a piston that reciprocates in an axial direction is inserted; a discharge valve provided at one side of the cylinder to selectively discharge the refrigerant compressed in the compression space for the refrigerant; a spring assembly coupled to the discharge valve; and a discharge cover on which the spring assembly is seated, the discharge cover having a discharge space through which the refrigerant discharged through the discharge valve flows and including a plurality of covers (210, 230, 250) stacked in the axial direction, characterized in that the plurality of covers includes: a first cover on which the spring assembly is seated and having a first space through which the refrigerant flows; a second cover coupled to the first cover and having a second space through which the refrigerant flows; and a third cover coupled to the second cover and having a third space through which the refrigerant flows; wherein the discharge cover further includes a connection pipe that extends from the second cover and coupled to the third cover, the connection pipe being configured to transfer the refrigerant in the second space to the third space. a cylinder having a compression space for a refrigerant and into which a piston that reciprocates in an axial direction is inserted; a discharge valve provided at one side of the cylinder to selectively discharge the refrigerant compressed in the compression space for the refrigerant; a spring assembly coupled to the discharge valve; and a discharge cover on which the spring assembly is seated, the discharge cover having a discharge space through which the refrigerant discharged through the discharge valve flows and including a plurality of covers (210, 230, 250) stacked in the axial direction, characterized in that the plurality of covers includes: a first cover on which the spring assembly is seated and having a first space through which the refrigerant flows; a second cover coupled to the first cover and having a second space through which the refrigerant flows; and a third cover coupled to the second cover and having a third space through which the refrigerant flows; wherein the discharge cover further includes a connection pipe that extends from the second cover and coupled to the third cover, the connection pipe being configured to transfer the refrigerant in the second space to the third space. a first cover on which the spring assembly is seated and having a first space through which the refrigerant flows; a second cover coupled to the first cover and having a second space through which the refrigerant flows; and a third cover coupled to the second cover and having a third space through which the refrigerant flows; wherein the discharge cover further includes a connection pipe that extends from the second cover and coupled to the third cover, the connection pipe being configured to transfer the refrigerant in the second space to the third space.
A method, performed by a session management network function, of supplying a mobile communication service comprising: configuring nodes along a predicted route; establishing and configuring network paths from access points along the predicted route to a destination node; and changing the state of the nodes depending on the location of the mobile device in order to supply the mobile communication service characterized in that configuring the nodes comprises instantiating and configuring, in advance of a mobile device approaching the serving area of the access points which are associated with the nodes, virtual network functions within the nodes, the instantiated and configured virtual network functions, when activated, acting as local gateways for a plurality of the access points which simultaneously serve the mobile device wherein a plurality of network functions are active concurrently such that multiple access points serve the mobile device at any given time and downlink data is transmitted from the destination node to the local gateways for transmission to the mobile device; and uplink is received by each of the plurality of access points which simultaneously serve the mobile device and forwarded to the destination node via the local gateways, wherein changing the state of the nodes comprises activating, before the mobile device connects to the access points, the instantiated and configured virtual network functions. configuring nodes along a predicted route; establishing and configuring network paths from access points along the predicted route to a destination node; and changing the state of the nodes depending on the location of the mobile device in order to supply the mobile communication service characterized in that configuring the nodes comprises instantiating and configuring, in advance of a mobile device approaching the serving area of the access points which are associated with the nodes, virtual network functions within the nodes, the instantiated and configured virtual network functions, when activated, acting as local gateways for a plurality of the access points which simultaneously serve the mobile device wherein a plurality of network functions are active concurrently such that multiple access points serve the mobile device at any given time and downlink data is transmitted from the destination node to the local gateways for transmission to the mobile device; and uplink is received by each of the plurality of access points which simultaneously serve the mobile device and forwarded to the destination node via the local gateways, wherein changing the state of the nodes comprises activating, before the mobile device connects to the access points, the instantiated and configured virtual network functions.
Process for the preparation of a fermented soy based mixture, comprising isoflavones-aglicones, equol and lunasin by soy fermentation using a mixture of the following four lactic acid bacteria: Lactobacillus plantarum DSM 23755, Lactobacillus plantarum DSM 23756, Lactobacillus fermentum DSM 23757 and Lactobacillus rhamnosus DSM 23758.
A frame (1, 1A) for holding a tube connected to an organ removed from a donor during perfusion preservation of the organ, the frame (1, 1A) comprising: a ring-shaped body part (60, 60A) locatable to surround a periphery of said organ; and at least one tube clamp part (70, 70A) mounted on said body part, wherein said tube clamp part (70, 70A) includes a tube holder (71, 71A) that holds said tube, and said tube clamp part (70, 70A) is mounted to be movable in a circumferential direction of said body part (60, 60A). a ring-shaped body part (60, 60A) locatable to surround a periphery of said organ; and at least one tube clamp part (70, 70A) mounted on said body part, wherein said tube clamp part (70, 70A) includes a tube holder (71, 71A) that holds said tube, and said tube clamp part (70, 70A) is mounted to be movable in a circumferential direction of said body part (60, 60A).
Round baler that includes a bale compression chamber, rollers (34, 44, 24), which are supported against the frame of the round baler so as to be rotatable and, during the formation of the bale, so as to be otherwise essentially stationary and which directly or indirectly interact with the bale, and a sensor (66, 66', 66") for detecting the size of a bale forming in the bale compression chamber, wherein the sensor (66, 66', 66") is configured for detecting the supporting force with which one of the rollers (34, 44, 24) bears against the frame, and wherein the bale compression chamber is enclosed by an endless compression means, which partially surrounds one of the rollers (34, 44), characterized in that a warning message is provided to an operator via a display device and/or the tension in the compression means is automatically reduced if the output signal of the sensor (66, 66', 66") indicates that a threshold value is exceeded, which threshold value corresponds to a maximum tensile force in the compression means.
A system for identifying a powder material, the system comprising: a press having a die for receiving a powder to be compacted, a press member arranged to be moveable so as to compact the powder within the die, and a load sensor for sensing a load applied by the press member to the powder so as to generate a plurality of load readings during movement of the press member, the load readings collectively defining at least a portion of a single compaction event; and, a processor arranged to receive the load readings from the load sensor and to compare said load readings during movement of the die with predetermined load data, the processor outputting an identification signal for the compacted powder based on a match or mismatch with predetermined load data determined by said comparison, wherein the identification signal comprises an indication of a match or mismatch between the powder material and a known powder material. a press having a die for receiving a powder to be compacted, a press member arranged to be moveable so as to compact the powder within the die, and a load sensor for sensing a load applied by the press member to the powder so as to generate a plurality of load readings during movement of the press member, the load readings collectively defining at least a portion of a single compaction event; and, a processor arranged to receive the load readings from the load sensor and to compare said load readings during movement of the die with predetermined load data, the processor outputting an identification signal for the compacted powder based on a match or mismatch with predetermined load data determined by said comparison, wherein the identification signal comprises an indication of a match or mismatch between the powder material and a known powder material.
A cured coating composition derived from a one-part, moisture curable composition comprising: (a) a polyoxyalkylene polymer having at least one end group derived from an alkoxy silane, and (b) a plasticizer selected from at least one of linear or branched alkyl benzoate having between 8 and 14 carbon atoms in the alkyl chain, and combinations thereof; wherein the cured coating composition passes ASTM D-1970, as defined in the description. (a) a polyoxyalkylene polymer having at least one end group derived from an alkoxy silane, and (b) a plasticizer selected from at least one of linear or branched alkyl benzoate having between 8 and 14 carbon atoms in the alkyl chain, and combinations thereof;
A dirt suction guide device (20, 20a) comprising: a body; a movable part connected to one side of the body and slidably coupled to the body; and a coupling part (300, 600) connected to the other side of the body and configured to couple the body to an extension tube, wherein the body is hinge-coupled to the coupling part so that the body maintains and changes an angle with respect to the extension tube; characterized in that the body includes a close/open suction port and the close/open suction port is closed in response to the movable part being set to an extension position in which the movable part is drawn out from the body and is opened in response to the movable part being set to a contraction position in which the movable part is drawn into an inner side of the body. a body; a movable part connected to one side of the body and slidably coupled to the body; and a coupling part (300, 600) connected to the other side of the body and configured to couple the body to an extension tube, wherein the body is hinge-coupled to the coupling part so that the body maintains and changes an angle with respect to the extension tube; characterized in that the body includes a close/open suction port and the close/open suction port is closed in response to the movable part being set to an extension position in which the movable part is drawn out from the body and is opened in response to the movable part being set to a contraction position in which the movable part is drawn into an inner side of the body.