mhurhangee/ep-ind-claims huggingface dataset:
A light emitting apparatus comprising: a body; an insulating layer on the surface of the body; a first electrode and a second electrode on the surface of the insulating layer; a light emitting device directly mounted on the first electrode and electrically connected to the second electrode through the wire; wherein the first and second electrodes (3, 4) are electrically separated from each other, and electrically connected to the light emitting device; wherein a plurality of holes are formed in the first electrode such that the insulation layer is exposed; wherein a plurality of protrusion patterns formed on a bottom surface of the light emitting device are disposed in the holes of the first electrode; wherein the holes are corresponding to the protrusion patterns; wherein the plurality of protrusion patterns passes through the holes and makes direct contact with the insulating layer; wherein a portion of the first electrode directly makes contact with the light emitting device; wherein the protrusion patterns include a metallic layer comprising Au-Sn and the first electrode includes a metallic layer comprising Au; and wherein the light emitting device is bonded to the first electrode through the eutectic bonding scheme. a body; an insulating layer on the surface of the body; a first electrode and a second electrode on the surface of the insulating layer; a light emitting device directly mounted on the first electrode and electrically connected to the second electrode through the wire; wherein the first and second electrodes (3, 4) are electrically separated from each other, and electrically connected to the light emitting device; wherein a plurality of holes are formed in the first electrode such that the insulation layer is exposed; wherein a plurality of protrusion patterns formed on a bottom surface of the light emitting device are disposed in the holes of the first electrode; wherein the holes are corresponding to the protrusion patterns; wherein the plurality of protrusion patterns passes through the holes and makes direct contact with the insulating layer; wherein a portion of the first electrode directly makes contact with the light emitting device; wherein the protrusion patterns include a metallic layer comprising Au-Sn and the first electrode includes a metallic layer comprising Au; and wherein the light emitting device is bonded to the first electrode through the eutectic bonding scheme.
A blood sampler device, comprising: a sampler body forming a hollow internal chamber with upper and lower openings, the sampler body including a sealing device disposed adjacent to the upper opening; and a blood collector adapted to be inserted into the sampler body, the blood collector including a plurality of capillary channels characterized by: the plurality of capillary channels are formed around a center of a bottom tip of the blood collector, the capillary channels are evenly spaced around the bottom tip, and the capillary channels are separated by a plurality of piercing structures the plurality of piercing structures forms the bottom tip and is separated by breaks for the capillary channels, a support ring structure supports the plurality of piercing structures, and the plurality of piercing structures is open proximate to the bottom tip, and the plurality capillary channels continues from the bottom tip at an angle away from a longitudinal axis of the blood collector. a sampler body forming a hollow internal chamber with upper and lower openings, the sampler body including a sealing device disposed adjacent to the upper opening; and a blood collector adapted to be inserted into the sampler body, the blood collector including a plurality of capillary channels characterized by: the plurality of capillary channels are formed around a center of a bottom tip of the blood collector, the capillary channels are evenly spaced around the bottom tip, and the capillary channels are separated by a plurality of piercing structures the plurality of piercing structures forms the bottom tip and is separated by breaks for the capillary channels, a support ring structure supports the plurality of piercing structures, and the plurality of piercing structures is open proximate to the bottom tip, and the plurality capillary channels continues from the bottom tip at an angle away from a longitudinal axis of the blood collector.
A method for wireless communication, comprising: serving a population of devices (108, 122) for a wireless wide area network by assigning a default parameter for resource allocation of an airlink; receiving a first signaling message indicating machine-to-machine, M2M, functionality from a first device of the population of devices (108, 122); wherein receiving the first signaling message comprises receiving an M2M indicator associated with a service of the first device; wherein the M2M indicator is a Boolean indicator of status, indicating the service as either M2M or not M2M; determining a first usage constraint associated with the M2M functionality; and assigning an adjusted parameter for resource allocation of the airlink for the first device that complies with the first usage constraint. serving a population of devices (108, 122) for a wireless wide area network by assigning a default parameter for resource allocation of an airlink; receiving a first signaling message indicating machine-to-machine, M2M, functionality from a first device of the population of devices (108, 122); wherein receiving the first signaling message comprises receiving an M2M indicator associated with a service of the first device; wherein the M2M indicator is a Boolean indicator of status, indicating the service as either M2M or not M2M; determining a first usage constraint associated with the M2M functionality; and assigning an adjusted parameter for resource allocation of the airlink for the first device that complies with the first usage constraint.
Set of adjusting parts which are intended to form an interface between a support formed by a prefabricated slab or another similar support of an infrastructure and running and/or guiding means of a guided system, the slab having an at least partially planar base surface delimited at least by a front edge, a rear edge, a first lateral edge and a second lateral edge, the running and/or guiding means forming two parallel linear guiding and/or running tracks of the guided system and extending between the rear edge and the front edge of the slab along a predefined trajectory associated with the siting of the slab in the infrastructure and with the shape of the slab, and, in addition, the adjusting parts are provided to extend continuously on the base surface of the slab, below the guiding means, from the rear edge to the front edge while following the trajectory of the running and/or guiding means, the three-dimensional geometric shape of each adjusting part being produced so as to be adapted to the said trajectory, characterized in that the adjusting parts comprise reception means for their fastening to the slab with the aid of fastening means.
A method of receiving, by a user equipment, a physical downlink shared channel, PDSCH, in a wireless communication system, the method comprising: receiving, from a base station, BS, a higher layer signal including first information about a configuration of an operation related to a PDSCH repetition; receiving, from the BS, second information related to a number of symbols of a control region; receiving, from the BS, downlink control information, DCI, including information related to a PDSCH repetition number based on the second information; and repeatedly receiving, from the BS, the PDSCH based on the DCI, characterized in that, when the control region is configured with 2 symbols or 3 symbols, a subslot for a PDSCH repetition reception does not include a subslot related to the control region, wherein a subslot related to the control region is a first subslot in a subframe or is a subslot including the 2 or 3 symbols. receiving, from a base station, BS, a higher layer signal including first information about a configuration of an operation related to a PDSCH repetition; receiving, from the BS, second information related to a number of symbols of a control region; receiving, from the BS, downlink control information, DCI, including information related to a PDSCH repetition number based on the second information; and repeatedly receiving, from the BS, the PDSCH based on the DCI, characterized in that, when the control region is configured with 2 symbols or 3 symbols, a subslot for a PDSCH repetition reception does not include a subslot related to the control region, wherein a subslot related to the control region is a first subslot in a subframe or is a subslot including the 2 or 3 symbols.
A method of preventing the use of a stolen terminal through forced location re-registration in an equipment identity register, EIR, which performs the equipment identification procedure, the method comprising: receiving information from a subscriber management server that a user terminal was stolen; performing a mobile application part, MAP, cancel location process to a mobile switching center, MSC, or a serving general packet radio service support node, SGSN, in response to the received information from the subscriber management server that the user terminal was stolen; the MAP cancel location process forcibly deleting subscriber information of the user terminal from the MSC or the SGSN; receiving a location registration approval request from the MSC or the SGSN when the MSC or the SGSN receives a call request from the user terminal; and checking whether the user terminal is a stolen terminal in response to the received location registration approval request. receiving information from a subscriber management server that a user terminal was stolen; performing a mobile application part, MAP, cancel location process to a mobile switching center, MSC, or a serving general packet radio service support node, SGSN, in response to the received information from the subscriber management server that the user terminal was stolen; the MAP cancel location process forcibly deleting subscriber information of the user terminal from the MSC or the SGSN; receiving a location registration approval request from the MSC or the SGSN when the MSC or the SGSN receives a call request from the user terminal; and checking whether the user terminal is a stolen terminal in response to the received location registration approval request.
A method of frequency resource allocation for Channel State Information Reference Signal, CSI-RS, in a wireless communication system, the method comprising: transmitting, from a base station, BS, to a user equipment, a CSI-RS using a CSI-RS resource; calculating, with the UE, CSI based on the CSI-RS; and reporting, from the UE to the BS, the CSI, wherein the CSI-RS resource in a frequency domain is allocated to one or more frequency resources that are part of a carrier bandwidth; wherein the one or more frequency resources are one or more resource blocks, RBs. transmitting, from a base station, BS, to a user equipment, a CSI-RS using a CSI-RS resource; calculating, with the UE, CSI based on the CSI-RS; and reporting, from the UE to the BS, the CSI, wherein the CSI-RS resource in a frequency domain is allocated to one or more frequency resources that are part of a carrier bandwidth; wherein the one or more frequency resources are one or more resource blocks, RBs.
A method, in a source network node, for assigning an uplink physical layer identity for a user equipment uplink transmission of a first user equipment being served by the source network node, the method comprising: identifying an uplink physical layer identity for the first user equipment is equal to an uplink physical layer identity for at least one second user equipment, wherein the first user equipment is in proximity to a non-serving cell and the at least one second user equipment is in proximity to or being served by the one non-serving cell; assigning a unique uplink physical layer identity to the first user equipment such that the unique uplink physical layer identity of the first user equipment does not equal the uplink physical layer identity of the at least one second user equipment, wherein unique uplink physical layer identity assignment is only to user equipments considered by the source network node to be in proximity of cells subject to physical layer identity confusion; and initiating uplink detection for the first user equipment, using the unique uplink physical layer identity by sending, to a target network node, a request to perform uplink detection for the first user equipment. identifying an uplink physical layer identity for the first user equipment is equal to an uplink physical layer identity for at least one second user equipment, wherein the first user equipment is in proximity to a non-serving cell and the at least one second user equipment is in proximity to or being served by the one non-serving cell; assigning a unique uplink physical layer identity to the first user equipment such that the unique uplink physical layer identity of the first user equipment does not equal the uplink physical layer identity of the at least one second user equipment, wherein unique uplink physical layer identity assignment is only to user equipments considered by the source network node to be in proximity of cells subject to physical layer identity confusion; and initiating uplink detection for the first user equipment, using the unique uplink physical layer identity by sending, to a target network node, a request to perform uplink detection for the first user equipment.
A profile generating apparatus configured to generate a profile in which color reproduction characteristics of an image formed on a medium are regulated, the apparatus comprising: a transmissive color measurement value acquiring portion configured to acquire a transmissive color measurement value which is a color measurement value of a patch in a case in which light is transmitted to the medium on which the patch is formed; a reflective color measurement value acquiring portion configured to acquire a reflective color measurement value (520, U2) which is a color measurement value of the patch in a case in which light is reflected from a front surface (PAla) of the patch; and a profile generating portion configured to generate the profile based on the transmissive color measurement value and the reflective color measurement value, wherein the profile is generated by combining the transmissive and reflective color measurement values according to a combination ratio (α), characterised in that: the reflective color measurement value acquiring portion is configured to acquire the reflective color measurement value being estimated from the transmissive color measurement value according to a correspondence relation between the transmissive color measurement value and the reflective color measurement value which are determined in advance. a transmissive color measurement value acquiring portion configured to acquire a transmissive color measurement value which is a color measurement value of a patch in a case in which light is transmitted to the medium on which the patch is formed; a reflective color measurement value acquiring portion configured to acquire a reflective color measurement value (520, U2) which is a color measurement value of the patch in a case in which light is reflected from a front surface (PAla) of the patch; and a profile generating portion configured to generate the profile based on the transmissive color measurement value and the reflective color measurement value, wherein the profile is generated by combining the transmissive and reflective color measurement values according to a combination ratio (α), characterised in that: the reflective color measurement value acquiring portion is configured to acquire the reflective color measurement value being estimated from the transmissive color measurement value according to a correspondence relation between the transmissive color measurement value and the reflective color measurement value which are determined in advance.
A method to reduce uplink compressed mode monitoring in a communication device, with a radio frequency transmitter and a radio frequency receiver for monitoring neighboring control channels operable on a communication system, the method comprising: receiving a communication signal from a neighboring channel, the method characterized by: determining if a signal from the transmitter is interfering with the communication signal, wherein if an interference condition is determined that warrants a request for uplink compressed mode, requesting uplink compressed mode. receiving a communication signal from a neighboring channel, the method characterized by: determining if a signal from the transmitter is interfering with the communication signal, wherein if an interference condition is determined that warrants a request for uplink compressed mode, requesting uplink compressed mode. determining if a signal from the transmitter is interfering with the communication signal, wherein if an interference condition is determined that warrants a request for uplink compressed mode, requesting uplink compressed mode.
Sensor arrangement having at least one magnetically sensitive sensor element and at least one permanent magnet element assigned to the sensor element, the at least one sensor element and the at least one assigned permanent magnet element being movable relative to one another, and the magnetic field being measured by the sensor element, and a corresponding sensor output signal being supplied to an evaluation unit in which a position signal indicating the position between the sensor element and the permanent magnet element is determined from the output signal, at least one test coil element being assigned to the sensor element, which test coil element is supplied with current from a test current source controllable by the evaluation unit and can be used to impress a magnetic test field on the sensor element, and the evaluation unit being designed to generate a test field, to compare the response of the sensor output signal with an expected response and to generate a quality signal indicating the reliability of the determined position signal therefrom, cha racterized in that the output signal from the at least one sensor element is an analogue signal, in that the strength of the test field impressed on the sensor element is dimensioned such that the offset caused by the test field has an amplitude in the range of normal signal noise, with the result that it does not normally change the binary coded position signal determined by the evaluation unit, and in that the evaluation unit is designed to examine the sensor output signal in order to determine whether an offset corresponding to the test field occurs therein.
A tire comprising a tread portion, wherein the tread portion has at least one circumferential groove continuously extending in a tire circumferential direction, the circumferential groove includes a first groove edge extending on a tread surface, a first groove wall extending inwardly in a tire radial direction from the first groove edge, a second groove edge extending on the tread surface, and a second groove wall extending inwardly in the tire radial direction from the second groove edge, the first groove wall includes a recess-projection wall portion in which recesses and projections are repeated in the tire circumferential direction on an inner side in the tire radial direction with respect to the first groove edge, the recess-projection wall portion includes a plurality of recesses arranged at equal intervals in the tire circumferential direction, and columnar portions formed between the adjacent recesses, each recess includes a first plane which is flat at a bottom thereof, and each columnar portion includes a second plane substantially parallel to the first plane, characterized in that the second groove wall includes a recess-projection wall portion in which recesses arranged at the same equal intervals and projections are repeated in the tire circumferential direction on the inner side in the tire radial direction with respect to the second groove edge in a phase different from that of the recess-projection wall portion of the first groove wall. the tread portion has at least one circumferential groove continuously extending in a tire circumferential direction, the circumferential groove includes a first groove edge extending on a tread surface, a first groove wall extending inwardly in a tire radial direction from the first groove edge, a second groove edge extending on the tread surface, and a second groove wall extending inwardly in the tire radial direction from the second groove edge, the first groove wall includes a recess-projection wall portion in which recesses and projections are repeated in the tire circumferential direction on an inner side in the tire radial direction with respect to the first groove edge, the recess-projection wall portion includes a plurality of recesses arranged at equal intervals in the tire circumferential direction, and columnar portions formed between the adjacent recesses, each recess includes a first plane which is flat at a bottom thereof, and each columnar portion includes a second plane substantially parallel to the first plane, characterized in that the second groove wall includes a recess-projection wall portion in which recesses arranged at the same equal intervals and projections are repeated in the tire circumferential direction on the inner side in the tire radial direction with respect to the second groove edge in a phase different from that of the recess-projection wall portion of the first groove wall.
A composition comprising from 25 - 75wt.% of aromatic polycarbonate comprising melt polycarbonate and from 75 - 25 wt.% of polyester based on the combined weight of the aromatic polycarbonate and the polyester, wherein said aromatic polycarbonate has an endcap level of at most 75 mol % as determined in accordance with the method set out in the description and said polyester comprises polybutylene terephthalate, and wherein i) said polyester comprises a polymer miscible with poly(butylene terephthalate), said polymer having a glass transition temperature higher than the glass transition temperature of said poly(butylene terephthalate) and/or, ii) said aromatic polycarbonate comprises a polymer miscible with said melt polycarbonate, said polymer having a glass transition temperature higher than the glass transition temperature of said melt polycarbonate. i) said polyester comprises a polymer miscible with poly(butylene terephthalate), said polymer having a glass transition temperature higher than the glass transition temperature of said poly(butylene terephthalate) and/or, ii) said aromatic polycarbonate comprises a polymer miscible with said melt polycarbonate, said polymer having a glass transition temperature higher than the glass transition temperature of said melt polycarbonate.