mhurhangee/ep-ind-claims huggingface dataset:
A connection device, comprising: an adapter that covers a connection target that is connectable with a connector, the adapter being secured to a connection apparatus that is provided with the connection target; and a housing that includes: a cylindrical portion that holds the connector such that the connector is movable relative to the cylindrical portion in an axial direction, the cylindrical portion being engagable with the adapter such that the connector is connected with the connection target; and a first spring that urges the connector toward the connection target, characterized in that:. the housing is provided with an outer cylindrical portion that is rotatable relative to the cylindrical portion about the axial direction; and the outer cylindrical portion and the adapter are lockable with each other, the outer cylindrical portion and the adapter having respective engagement portions (32, 122) in which a lock position of the outer cylindrical portion with the adapter in the axial direction changes in accordance with a position of the outer cylindrical portion relative to the adapter in the axial direction and in a direction of rotation about the axial direction. an adapter that covers a connection target that is connectable with a connector, the adapter being secured to a connection apparatus that is provided with the connection target; and a housing that includes: a cylindrical portion that holds the connector such that the connector is movable relative to the cylindrical portion in an axial direction, the cylindrical portion being engagable with the adapter such that the connector is connected with the connection target; and a first spring that urges the connector toward the connection target, characterized in that:. the housing is provided with an outer cylindrical portion that is rotatable relative to the cylindrical portion about the axial direction; and the outer cylindrical portion and the adapter are lockable with each other, the outer cylindrical portion and the adapter having respective engagement portions (32, 122) in which a lock position of the outer cylindrical portion with the adapter in the axial direction changes in accordance with a position of the outer cylindrical portion relative to the adapter in the axial direction and in a direction of rotation about the axial direction.
A polymer element (1, 1A, 1B, 1C, 1D) comprising: a pair of electrode layers (12A, 12B); and a macromolecular layer between the pair of electrode layers (12A, 12B), wherein at least one of the pair of electrode layers (12A, 12B) contains an ion conductive macromolecular material, a carbon material, and an electrically conductive material which is different from the carbon material, which is a metal material and which extends in a thickness direction of the at least one of the pair of electrode layers (12A, 12B), wherein the carbon material is carbon particles, the electrically conductive material is present in spaces between the carbon particles, the electrically conductive material has a fibrous shape, the fibrous electrically conductive material has a diameter of 100 nm or less and an aspect ratio of 4 or more, and the electrically conductive material is present in the at least one of the pair of electrode layers (12A, 12B) at a weight ratio of 0.01 wt% or more and 10 wt% or less with the total weight of the carbon particles and the ion conductive macromolecular material being 100 %. a pair of electrode layers (12A, 12B); and a macromolecular layer between the pair of electrode layers (12A, 12B), wherein at least one of the pair of electrode layers (12A, 12B) contains an ion conductive macromolecular material, a carbon material, and an electrically conductive material which is different from the carbon material, which is a metal material and which extends in a thickness direction of the at least one of the pair of electrode layers (12A, 12B), wherein an ion conductive macromolecular material, a carbon material, and an electrically conductive material which is different from the carbon material, which is a metal material and which extends in a thickness direction of the at least one of the pair of electrode layers (12A, 12B), wherein the carbon material is carbon particles, the electrically conductive material is present in spaces between the carbon particles, the electrically conductive material has a fibrous shape, the fibrous electrically conductive material has a diameter of 100 nm or less and an aspect ratio of 4 or more, and the electrically conductive material is present in the at least one of the pair of electrode layers (12A, 12B) at a weight ratio of 0.01 wt% or more and 10 wt% or less with the total weight of the carbon particles and the ion conductive macromolecular material being 100 %.
A method for a user equipment to transmit uplink data using a Hybrid Automatic Repeat Request, HARQ, scheme to a network in a mobile communication system, the method comprising: receiving (S72, S82) first uplink resource allocation information from the network through a downlink shared channel in a format of Medium Access Control Protocol Data Unit, MAC PDU, including a random access response message of a random access procedure, wherein location information of the downlink shared channel is acquired from a first downlink shared control channel; transmitting (S73, S83) the uplink data using the first uplink resource allocation information based on the HARQ scheme to the network; receiving (S74, S85), from the network through a second downlink control channel, second uplink resource allocation required for retransmitting the uplink data; and retransmitting (S75, S86) the uplink data using the second uplink resource allocation information based on the HARQ scheme to the network. receiving (S72, S82) first uplink resource allocation information from the network through a downlink shared channel in a format of Medium Access Control Protocol Data Unit, MAC PDU, including a random access response message of a random access procedure, wherein location information of the downlink shared channel is acquired from a first downlink shared control channel; transmitting (S73, S83) the uplink data using the first uplink resource allocation information based on the HARQ scheme to the network; receiving (S74, S85), from the network through a second downlink control channel, second uplink resource allocation required for retransmitting the uplink data; and retransmitting (S75, S86) the uplink data using the second uplink resource allocation information based on the HARQ scheme to the network.
A composition characterized by comprising the following components to: one or more (meth)acrylate compounds selected from among a (meth)acryl-modified silicone fluid, a long-chain alkyl (meth)acrylate, and a polyalkylene glycol (meth)acrylate having a number average molecular weight of 400 or more; a (meth)acrylate compound having an alicyclic hydrocarbon group which has six or more carbon atoms and which is bonded to the compound via an ester bond; (meth)acrylic acid or a (meth)acrylate compound having a polar group selected from among a hydroxyl group, an epoxy group, a glycidyl ether group, a tetrahydrofurfuryl group, an isocyanate group, a carboxyl group, an alkoxysilyl group, a phosphoric acid ester group, a lactone group, an oxetane group, and a tetrahydropyranyl group; and a radical polymerization initiator. one or more (meth)acrylate compounds selected from among a (meth)acryl-modified silicone fluid, a long-chain alkyl (meth)acrylate, and a polyalkylene glycol (meth)acrylate having a number average molecular weight of 400 or more; a (meth)acrylate compound having an alicyclic hydrocarbon group which has six or more carbon atoms and which is bonded to the compound via an ester bond; (meth)acrylic acid or a (meth)acrylate compound having a polar group selected from among a hydroxyl group, an epoxy group, a glycidyl ether group, a tetrahydrofurfuryl group, an isocyanate group, a carboxyl group, an alkoxysilyl group, a phosphoric acid ester group, a lactone group, an oxetane group, and a tetrahydropyranyl group; and a radical polymerization initiator.
A method for a materials handling vehicle to automatically perform a steer correction maneuver comprising: receiving sensor data from at least one sensing device (76,76A,76B) by a controller on a materials handling vehicle; detecting based on the received sensor data that a first object is located in a first zone defined at least partially on a first side of the vehicle; detecting based on the received sensor data that a second object is located in a seconds, zone defined at least partially on a second side of the vehicle, wherein the second object is closer to a central axis of the vehicle than the first object; and automatically performing a steer correction maneuver by steering the vehicle toward the first object so as to steer the vehicle away from the second object until at least one of: the first object enters a predefined portion of the first zone; and the second object exits a predefined portion of the second zone. receiving sensor data from at least one sensing device (76,76A,76B) by a controller on a materials handling vehicle; detecting based on the received sensor data that a first object is located in a first zone defined at least partially on a first side of the vehicle; detecting based on the received sensor data that a second object is located in a seconds, zone defined at least partially on a second side of the vehicle, wherein the second object is closer to a central axis of the vehicle than the first object; and automatically performing a steer correction maneuver by steering the vehicle toward the first object so as to steer the vehicle away from the second object until at least one of: the first object enters a predefined portion of the first zone; and the second object exits a predefined portion of the second zone. the first object enters a predefined portion of the first zone; and the second object exits a predefined portion of the second zone.
A safety lock, comprising: - a frame, - a bolt member movably mounted on the frame and shiftable by rotation of the key in the lock between a first position corresponding to an open condition of the lock and a second position corresponding to a closed condition of the lock, - at least one safety plate movably mounted on the frame and translatable by rotation of the key in the lock to a position enabling movement of the bolt member, - hooking means operating between the bolt member and said at least one safety plate, following a thrust illicitly produced on the bolt member, characterised in that it comprises: - means for enabling rotation of the safety plate to a maximum lifting-up position of the safety plate itself, wherein said means for enabling rotation of the safety plate comprises at least one slide slot adapted to allow rotation/inclination of the safety plate in the plane of the safety plate itself to a maximum lifting-up position, and wherein said slide slot comprises an enlarged portion in which a pin can be positioned thus enabling rotation of the safety plate in its own plane. - a frame, - a bolt member movably mounted on the frame and shiftable by rotation of the key in the lock between a first position corresponding to an open condition of the lock and a second position corresponding to a closed condition of the lock, - at least one safety plate movably mounted on the frame and translatable by rotation of the key in the lock to a position enabling movement of the bolt member, - hooking means operating between the bolt member and said at least one safety plate, following a thrust illicitly produced on the bolt member, characterised in that it comprises: - means for enabling rotation of the safety plate to a maximum lifting-up position of the safety plate itself, wherein said means for enabling rotation of the safety plate comprises at least one slide slot adapted to allow rotation/inclination of the safety plate in the plane of the safety plate itself to a maximum lifting-up position, and wherein said slide slot comprises an enlarged portion in which a pin can be positioned thus enabling rotation of the safety plate in its own plane.
A container assembly comprising a container and a cap adapted to cover an end of the container, the cap comprising a body having an outer plate and a flange extending from the outer plate, and an inner plate spaced from the outer plate by at least one spacer (40,41) disposed between the outer plate and the inner plate, wherein the inner plate is disposed between the outer plate and the end of the container and is pressed against the outer surface of the end of the container when the cap is in place on the end of the container, and wherein the inner plate comprises a water resistant material or coating, adapted to resist transfer of vapour across the inner plate, wherein the surface area of the inner plate pressed against the outer surface of the end of the container is smaller than the surface area of the end of the container, wherein the inner plate leaves a peripheral gap between the radially outer edge of the inner plate and the circumference of the end of the container such that an area of the end of the container remains uncovered by the inner plate, and wherein fluid within the container can evaporate more freely through the uncovered area of the peripheral gap than through the area of the end of the container covered by the inner plate, and wherein the cap permits a limited amount of vapour transport through the material of the cap, and wherein the container is a cask for maturation of a spirit.
A marking composition for forming a mark on a glass or ceramic substrate upon being irradiated with a laser, the composition comprising: a vehicle; and a laser absorber, wherein the laser absorber is a eutectic composition consisting of (a) MoO 3, (b) WO 3, and any one selected from the group consisting of SrO and Nb 2 O 5, and combinations thereof, (c) at least one selected from the group consisting of Li 2 O, Na 2 O and K 2 O. a vehicle; and a laser absorber, wherein the laser absorber is a eutectic composition consisting of (a) MoO 3, (b) WO 3, and any one selected from the group consisting of SrO and Nb 2 O 5, and combinations thereof, (c) at least one selected from the group consisting of Li 2 O, Na 2 O and K 2 O. (a) MoO 3, (b) WO 3, and any one selected from the group consisting of SrO and Nb 2 O 5, and combinations thereof, (c) at least one selected from the group consisting of Li 2 O, Na 2 O and K 2 O.
A method performed by a station, STA, in a wireless local area network, WLAN, comprising: entering a wake-up radio, WUR, duty cycle mode in which an on-duration in which a WUR receiver of the STA is awake and an off-duration in which the WUR receiver is asleep are alternated; receiving a WUR frame during the on-duration of the WUR duty cycle mode, wherein the WUR frame is modulated based on an On-Off Keying, OOK, modulation, and wherein the WUR frame includes one-bit information related to group address bufferable unit, BU, reception information; determining, based on the one-bit information being "1", a time at which a primary connectivity radio, PCR, of the STA, will be turned on, as a next delivery traffic indication map, DTIM, transmission time; delaying turning on the PCR until the determined time; and turning on the PCR of the STA after the delaying, and receiving a group addressed BU. entering a wake-up radio, WUR, duty cycle mode in which an on-duration in which a WUR receiver of the STA is awake and an off-duration in which the WUR receiver is asleep are alternated; receiving a WUR frame during the on-duration of the WUR duty cycle mode, wherein the WUR frame is modulated based on an On-Off Keying, OOK, modulation, and wherein the WUR frame includes one-bit information related to group address bufferable unit, BU, reception information; determining, based on the one-bit information being "1", a time at which a primary connectivity radio, PCR, of the STA, will be turned on, as a next delivery traffic indication map, DTIM, transmission time; delaying turning on the PCR until the determined time; and turning on the PCR of the STA after the delaying, and receiving a group addressed BU.
A cross-linked protein or peptide having the following structure: wherein, [Xaa] is an amino acid and BMA is a bismethylene aryl moiety, wherein, for a cross-linked peptide x is an integer from 0 to 42, y is an integer from 0 to 42, and x + y is from 0 to 42, or for a cross-linked protein x + y is greater than or equal to 43, and wherein, R 1 and R 2 are each a hydrogen, and wherein the bismethylene aryl moiety has the following structure:
A medical fluid cassette (112, 312) comprising: a base, a flexible membrane attached to the base in a manner such that the flexible membrane and the base cooperate to at least partially define a fluid pump chamber, characterized by a fastening member (161A, 161B, 261A, 361A, 361B) formed of a rigid material and attached to the flexible membrane, the fastening member (161A, 161B, 261A, 361A, 361B) defining a recess configured to receive a piston head (134A, 134B, 234A, 434A) of a medical fluid pumping machine and having an engagement surface that engages the piston head (134A, 134B, 234A, 434A) when the piston head is disposed in the recess (162A, 162B) such that, when the piston head is disposed in the recess and is moved linearly away from the base of the cassette, the piston head engages the engagement surface of the fastening member to pull the fastening member (161A, 161B, 261A, 361A, 361B) and the flexible membrane to which the fastening member is attached away from the base and increase a volume of the fluid pump chamber. a base, a flexible membrane attached to the base in a manner such that the flexible membrane and the base cooperate to at least partially define a fluid pump chamber, characterized by a fastening member (161A, 161B, 261A, 361A, 361B) formed of a rigid material and attached to the flexible membrane, the fastening member (161A, 161B, 261A, 361A, 361B) defining a recess configured to receive a piston head (134A, 134B, 234A, 434A) of a medical fluid pumping machine and having an engagement surface that engages the piston head (134A, 134B, 234A, 434A) when the piston head is disposed in the recess (162A, 162B) such that, when the piston head is disposed in the recess and is moved linearly away from the base of the cassette, the piston head engages the engagement surface of the fastening member to pull the fastening member (161A, 161B, 261A, 361A, 361B) and the flexible membrane to which the fastening member is attached away from the base and increase a volume of the fluid pump chamber.
A method of controlling a moving-robot, the method characterised by comprising: performing a plurality of driving processes at different points in time for acquiring information; creating a plurality of maps respectively based on the information acquired in one of the driving processes, the maps having different generation-time information; choosing one of the created maps based on current time information and the generation-time information of the maps, and performing location recognition based on the chosen map. performing a plurality of driving processes at different points in time for acquiring information; creating a plurality of maps respectively based on the information acquired in one of the driving processes, the maps having different generation-time information; choosing one of the created maps based on current time information and the generation-time information of the maps, and performing location recognition based on the chosen map.
A computer-implemented method comprising: obtaining seismic data acquired by seismic sensors of a composite signal produced by the firings of multiple seismic sources; modelling the seismic data as being a function of models for the sources and linear operators; and characterised by defining desired constraints between at least two of the models for the sources, wherein the at least two models for the sources are similar but not equal to one another; jointly determining the models based on the modelling and the desired constraints; and based on the determined models, generating datasets, each dataset being indicative of a component of the composite signal and being attributable to a different one of the seismic sources; wherein the models are constrained in a least squares sense in accordance with the equation λ m 1 − m 2 = 0 where λ represents a parameter that controls the relative importance of data fitting and model equality, and m 1 and m 2 represent the said at least two models. obtaining seismic data acquired by seismic sensors of a composite signal produced by the firings of multiple seismic sources; modelling the seismic data as being a function of models for the sources and linear operators; and characterised by defining desired constraints between at least two of the models for the sources, wherein the at least two models for the sources are similar but not equal to one another; jointly determining the models based on the modelling and the desired constraints; and based on the determined models, generating datasets, each dataset being indicative of a component of the composite signal and being attributable to a different one of the seismic sources; wherein the models are constrained in a least squares sense in accordance with the equation λ m 1 − m 2 = 0 where λ represents a parameter that controls the relative importance of data fitting and model equality, and m 1 and m 2 represent the said at least two models.
Method for laterally dividing a semiconductor wafer containing a growth substrate and a semiconductor layer sequence, comprising the method steps of: - providing a growth substrate, - epitaxially growing a semiconductor layer sequence, which comprises a functional semiconductor layer, onto the growth substrate; - applying a mask layer to partial regions of the semiconductor layer sequence in order to produce masked regions and unmasked regions, - implanting ions through the unmasked regions in order to produce implantation regions in the semiconductor wafer, and - dividing the semiconductor wafer along the implantation regions, wherein the implantation regions are arranged in a layer of the semiconductor layer sequence which is provided as a separating layer, and wherein the growth substrate or at least one part of the growth substrate is separated from the semiconductor wafer, characterized in that the semiconductor layer sequence is patterned prior to the ion implantation in such a way that it has trenches in which the separating layer is uncovered. - providing a growth substrate, - epitaxially growing a semiconductor layer sequence, which comprises a functional semiconductor layer, onto the growth substrate; - applying a mask layer to partial regions of the semiconductor layer sequence in order to produce masked regions and unmasked regions, - implanting ions through the unmasked regions in order to produce implantation regions in the semiconductor wafer, and - dividing the semiconductor wafer along the implantation regions, wherein the implantation regions are arranged in a layer of the semiconductor layer sequence which is provided as a separating layer, and