mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a single epitaxial structure (1, 11, 1003, 7003) comprising an active mesa structure, the active single mesa structure having a top, and a bottom, wherein the active mesa structure comprises a plurality of laser regions (2, 12, 607, 1004) that are top-emitting or bottom-emitting, each laser region of the active mesa structure being electrically isolated within the active single mesa structure itself relative to the other laser regions of the active mesa structure; a laser substrate (17, 81, 71) on which the single epitaxial structure is located; an etched isolation trench (3, 13, 615, 1001, 702, 7002) that surrounds the active single mesa structure; a ground structure (4, 14, 613, 718, 1002) on the laser substrate, wherein the ground structure surrounds or almost surrounds the active single mesa structure and is separated from the active single mesa structure by the etched isolation trench; and an electrical waveguide (50, 151, 601, 713, 1403) that comprises a signal pad (51, 154, 602, 714, 1405) and a ground pad (59, 152, 602, 715, 1404) and is positioned for connecting the active single mesa structure to the signal pad and the ground structure to the ground pad, wherein the electrical waveguide is configured to provide current to the laser regions for causing the laser regions to emit laser light. a single epitaxial structure (1, 11, 1003, 7003) comprising an active mesa structure, the active single mesa structure having a top, and a bottom, wherein the active mesa structure comprises a plurality of laser regions (2, 12, 607, 1004) that are top-emitting or bottom-emitting, each laser region of the active mesa structure being electrically isolated within the active single mesa structure itself relative to the other laser regions of the active mesa structure; a laser substrate (17, 81, 71) on which the single epitaxial structure is located; an etched isolation trench (3, 13, 615, 1001, 702, 7002) that surrounds the active single mesa structure; a ground structure (4, 14, 613, 718, 1002) on the laser substrate, wherein the ground structure surrounds or almost surrounds the active single mesa structure and is separated from the active single mesa structure by the etched isolation trench; and an electrical waveguide (50, 151, 601, 713, 1403) that comprises a signal pad (51, 154, 602, 714, 1405) and a ground pad (59, 152, 602, 715, 1404) and is positioned for connecting the active single mesa structure to the signal pad and the ground structure to the ground pad, wherein the electrical waveguide is configured to provide current to the laser regions for causing the laser regions to emit laser light.
A method performed by a terminal in a wireless communication system, the method comprising: determining whether a service data adaptation protocol, SDAP, header is configured and whether an Ethernet header compression, EHC, is configured; receiving data from a higher layer; and performing Ethernet header compression for the received data in a packet data convergence protocol, PDCP, layer, in case that the SDAP header and the EHC are configured, wherein the performing of the Ethernet header compression is not applied to the SDAP header or to an SDAP control packet data unit, PDU. determining whether a service data adaptation protocol, SDAP, header is configured and whether an Ethernet header compression, EHC, is configured; receiving data from a higher layer; and performing Ethernet header compression for the received data in a packet data convergence protocol, PDCP, layer, in case that the SDAP header and the EHC are configured, wherein the performing of the Ethernet header compression is not applied to the SDAP header or to an SDAP control packet data unit, PDU.
A method for managing mobility of a Multipath Transmission Control Protocol, MPTCP, connection of a UE moving from a radio access device on which a source MPTCP agent is deployed to a radio access device on which a destination MPTCP agent is deployed, the source MPTCP agent and the destination MPTCP agent being deployed at a Radio Access Network, RAN, side, having a neighboring relationship and performing a MPTCP management and control operation, the method comprising: establishing, by the destination MPTCP agent, a transmission path to the source MPTCP agent, wherein the transmission path comprises a signaling link for transmitting a MPTCP context; after the transmission path has been established, receiving, by the destination MPTCP agent, a message that is sent by the source MPTCP agent through the signaling link and that carries an MPTCP context of the UE; and saving, by the destination MPTCP agent, the MPTCP context, and performing, by the destination MPTCP agent, an MPTCP data transmission operation or an MPTCP management and control operation for the UE according to the saved MPTCP context; wherein the receiving, by the destination MPTCP agent, a message that is sent by the source MPTCP agent and that carries an MPTCP context of the UE is specifically: receiving, by the destination MPTCP agent, through the established signaling link, a MPTCP HandOver Request message defined by an MPTCP application protocol, MPTCP-AP, layer above a transport layer of the signaling link by using a local MPTCP-AP layer and an MPTCP-AP layer of the source MPTCP agent, wherein the HandOver Request message carries the MPTCP context. establishing, by the destination MPTCP agent, a transmission path to the source MPTCP agent, wherein the transmission path comprises a signaling link for transmitting a MPTCP context; after the transmission path has been established, receiving, by the destination MPTCP agent, a message that is sent by the source MPTCP agent through the signaling link and that carries an MPTCP context of the UE; and saving, by the destination MPTCP agent, the MPTCP context, and performing, by the destination MPTCP agent, an MPTCP data transmission operation or an MPTCP management and control operation for the UE according to the saved MPTCP context; wherein the receiving, by the destination MPTCP agent, a message that is sent by the source MPTCP agent and that carries an MPTCP context of the UE is specifically: receiving, by the destination MPTCP agent, through the established signaling link, a MPTCP HandOver Request message defined by an MPTCP application protocol, MPTCP-AP, layer above a transport layer of the signaling link by using a local MPTCP-AP layer and an MPTCP-AP layer of the source MPTCP agent, wherein the HandOver Request message carries the MPTCP context.
A method to generate slice data from an octree data structure, wherein the slice data is data derived from the model of the 3-D object that can be used by a 3-D printer to print the 3-D object, the method comprising: obtaining a shape specification (330, 430) of the 3-D object; obtaining a material specification (332, 432) of the 3-D object; merging the shape specification (330, 430) and the material specification (332, 432) to create a grid of voxels nodes from the shape specification having a mapping to a material and/or a material property, creating an octree data structure representation of the 3-D object from the grid of voxels, the octree data structure comprising an ordered collection of nodes; merging neighboring homogenous nodes from the octree to clip the octree; and generating slice data from the octree data structure using a z-coordinate of a slice plane to identify nodes in the octree data structure intercepted by the slice plane. obtaining a shape specification (330, 430) of the 3-D object; obtaining a material specification (332, 432) of the 3-D object; merging the shape specification (330, 430) and the material specification (332, 432) to create a grid of voxels nodes from the shape specification having a mapping to a material and/or a material property, creating an octree data structure representation of the 3-D object from the grid of voxels, the octree data structure comprising an ordered collection of nodes; merging neighboring homogenous nodes from the octree to clip the octree; and generating slice data from the octree data structure using a z-coordinate of a slice plane to identify nodes in the octree data structure intercepted by the slice plane.
Process for the preparation of a polyolefin in at least one slurry loop reactor provided with one or more settling legs, comprising the steps of: - introducing into said loop reactor one or more olefin reactants, diluents, polymerization catalyst and optional ingredients and while circulating said olefin reactants, diluents and polymerization catalyst in said loop reactor; - polymerizing said one or more olefin reactants to produce a polymer slurry comprising liquid diluent and solid olefin polyolefin particles; - continuously withdrawing polyolefin slurry comprising polyolefin particles and diluent from said reactor, via said one or more settling legs and transferring said withdrawn solid olefin polymer particles from said loop reactor to a recovery section; wherein each settling leg has an inlet connected to the reactor and an outlet connected to the recovery section, and wherein at least one settling leg is continuously open allowing continuous withdrawal of said polyolefin slurry from said loop reactor, and wherein each outlet of said one or more settling legs is connected to the recovery section by means of at least one conduit provided with a pressure control device, and wherein the pressure in said loop reactor is controlled by operating said pressure control device. - introducing into said loop reactor one or more olefin reactants, diluents, polymerization catalyst and optional ingredients and while circulating said olefin reactants, diluents and polymerization catalyst in said loop reactor; - polymerizing said one or more olefin reactants to produce a polymer slurry comprising liquid diluent and solid olefin polyolefin particles; - continuously withdrawing polyolefin slurry comprising polyolefin particles and diluent from said reactor, via said one or more settling legs and transferring said withdrawn solid olefin polymer particles from said loop reactor to a recovery section;
A centrifuge for the combined mixing and separation of fluids, having a housing, having a cylindrical rotor inside the housing, which rotor is mounted at a distance from a wall of the housing and in which rotor a separating chamber having rotor installations for separating fluids (17, 19) is arranged, having at least one inlet for a first fluid and for a second fluid, having a first outlet for a light separated fluid and having a second outlet for a heavy separated fluid, wherein the first outlet and the second outlet are arranged on a side of the same which faces away from the entrance to the separating chamber, that a mixing chamber for mixing the first fluid and the second fluid into a mixed fluid is arranged between the wall of the housing and the rotor, that the separating chamber has an entrance for supplying the mixed fluid into the same in an axial direction, characterized in that an additional mixing chamber is connected in an axial direction to the mixing chamber, the capacity of which additional mixing chamber is greater than the capacity of the mixing chamber, and that a supply channel is provided in an axial extension of the separating chamber, which supply channel has an inlet for the mixed fluid on an end facing away from the separating chamber, so that the mixed fluid can be conducted from the additional mixing chamber through the supply channel to the entrance of the separating chamber and that the additional mixing chamber is delimited by a wall of a lower part of the housing and the supply channel, wherein the supply channel has a smaller radius (c 2) than a radius (c 1) of the rotor.
A melt delivery body for an injection molding apparatus including a manifold plate and a machine nozzle to deliver a melt to the melt delivery body, the melt delivery body comprising: a manifold, housed in the manifold plate, the manifold defining a melt network, the melt network having an inlet for receiving melt from the machine nozzle and an outlet; an in-line valve gated nozzle having a nozzle melt channel for delivering melt from the manifold to a mold cavity, the nozzle melt channel of the in-line nozzle substantially axially aligned with the inlet of the melt network; a valve pin in the melt channel of the in-line valve gated nozzle to regulate the rate the melt is dispensed from the in-line valve gated nozzle; and a valve pin actuator coupled to the valve pin, the valve pin actuator controlling the movement of the valve pin within the nozzle melt channel; characterized in that the melt delivery body further comprising a biasing member for biasing the in-line valve gated nozzle towards the manifold, wherein the melt network having more than one outlet to distribute melt to respective nozzles, and more than one melt channel interconnecting the inlet with the more than one outlets, one of the outlets being substantially axially aligned with the inlet, and wherein the valve pin actuator is positioned substantially axially aligned with the in-line valve gated nozzle and positioned between the manifold and the in-line valve gated nozzle. a manifold, housed in the manifold plate, the manifold defining a melt network, the melt network having an inlet for receiving melt from the machine nozzle and an outlet; an in-line valve gated nozzle having a nozzle melt channel for delivering melt from the manifold to a mold cavity, the nozzle melt channel of the in-line nozzle substantially axially aligned with the inlet of the melt network; a valve pin in the melt channel of the in-line valve gated nozzle to regulate the rate the melt is dispensed from the in-line valve gated nozzle; and a valve pin actuator coupled to the valve pin, the valve pin actuator controlling the movement of the valve pin within the nozzle melt channel; characterized in that the melt delivery body further comprising a biasing member for biasing the in-line valve gated nozzle towards the manifold, wherein the melt network having more than one outlet to distribute melt to respective nozzles, and more than one melt channel interconnecting the inlet with the more than one outlets, one of the outlets being substantially axially aligned with the inlet, and wherein the valve pin actuator is positioned substantially axially aligned with the in-line valve gated nozzle and positioned between the manifold and the in-line valve gated nozzle.
Device for supporting and removably fixing furniture shelves, such as bookcases, shelf units, and the like, by means of a pin associated with a shelf and configured to be inserted in a hole formed in a side wall of a piece of furniture, said device being configured to be inserted in the thickness of the shelf and comprising a casing, substantially flattened parallelepiped in shape, housing a carriage inside of which said pin terminating with a head is mounted, which is stressed by a compression spring, to protrude normally from the casing and so as to be able to re-enter completely into the casing with a linear displacement following a force exerted axially thereon, characterised in that said pin has a body sliding linearly in the carriage, without substantial transversal play, whereon at least one slanting plane is provided, co-operating with a corresponding slanting plane provided on the casing to cause a transversal sliding of the carriage, in a direction perpendicular to the axis of the pin, simultaneously to an oblique movement of the pin through the action of said spring or following a transverse force acting on the same with consequent exiting or re-entry, at least partial, of the pin in the casing.
A system (100, 800, 1000) for treating a tissue site (101, 801, 1001) of a patient, the system (100, 800, 1000) comprising: a dressing filler (106, 806, 1006) adapted to be positioned at the tissue site (101, 801, 1001), the dressing filler having a base (117, 817, 1017) and a plurality of nodes (119, 819, 1019) extending from the base (117, 817, 1017), the base (117, 817, 1017) further including a plurality of openings (121, 821, 1021) disposed in the base (117, 817, 1017), at least one of the plurality of nodes (119, 819, 1019) being comprised of a non-tactile-stimulus-activated, macroscopically-deforming (NTSAMD) material wherein the NTSAMD material is a light-activated polymer.
A method comprising: - receiving an input audio signal (1, 3) along with a set of spectral mapping data for mapping spectral components of the input audio signal onto a set of output channels, wherein the set of spectral mapping data represent ratios of the band-based output-to-input signal level and the set of spectral mapping data are provided for each temporal period indicating a transform window and transform windows are overlapped at particular time (t), and the set of spectral mapping data are time varying coefficients that are defined in an encoding process; - generating an output signal having the set of output channels by mapping said spectral components of the input audio signal onto the output channels by applying the spectral mapping data, wherein the number of output channels is different from the number of channels of the input audio signal. - receiving an input audio signal (1, 3) along with a set of spectral mapping data for mapping spectral components of the input audio signal onto a set of output channels, wherein the set of spectral mapping data represent ratios of the band-based output-to-input signal level and the set of spectral mapping data are provided for each temporal period indicating a transform window and transform windows are overlapped at particular time (t), and the set of spectral mapping data are time varying coefficients that are defined in an encoding process; - generating an output signal having the set of output channels by mapping said spectral components of the input audio signal onto the output channels by applying the spectral mapping data, wherein the number of output channels is different from the number of channels of the input audio signal.
A fastener (100, 200) for retaining a plurality of components (334, 534, 348, 548) within an electronic device, the fastener comprising: a body having a bottom end and a top end, a longitudinal direction extending between the bottom end and the top end; a mechanical interlocking feature integrally formed with the bottom end; a head integrally formed with the top end, the head including a groove or recess to receive a driver and being configured to receive torque from the driver to drive the fastener into a board, housing (344, 544), or other portion of the electronic device; a shoulder integrally formed with the body and positioned between the mechanical interlocking feature and the head; and a neck positioned between the shoulder and the head, wherein a neck outer diameter is less than a head outer diameter and a shoulder outer diameter, wherein a total height of the body is less than 3 millimeters, and wherein the shoulder outer diameter is greater than a total height of the body. a body having a bottom end and a top end, a longitudinal direction extending between the bottom end and the top end; a mechanical interlocking feature integrally formed with the bottom end; a head integrally formed with the top end, the head including a groove or recess to receive a driver and being configured to receive torque from the driver to drive the fastener into a board, housing (344, 544), or other portion of the electronic device; a shoulder integrally formed with the body and positioned between the mechanical interlocking feature and the head; and a neck positioned between the shoulder and the head, wherein a neck outer diameter is less than a head outer diameter and a shoulder outer diameter, wherein a total height of the body is less than 3 millimeters, and wherein the shoulder outer diameter is greater than a total height of the body.
A device comprising: a container for holding a vaporizable liquid, the container including an opening therein; and a porous wick having a first section comprised of a material with a predetermined pore size and a second section comprised of a material with a predetermined pore size that is greater than that of the first section, positioned so that a lower region of the wick will be in contact with the liquid to be held by the container and an upper region of the wick is exposed to the ambient air to dispense the vaporizable liquid; wherein the opening in the container is substantially sealed by the wick, and the second section of the wick forms an outer layer which surrounds the portion of the wick that is exposed to the ambient air; further comprising a neck closure having a hole, wherein the neck closure fits tightly into the opening of the container and the wick fits tightly into the hole of the neck closure, such that the opening of the container is substantially sealed by the neck closure and the wick; the first section extends into the bottle and is in contact with the liquid whereby the smaller pores of the first section of the wick prevent leakage, while the larger pores of the second section provide a maximum release rate of the vaporizable liquid off the surface of the wick that is exposed to the ambient air. a container for holding a vaporizable liquid, the container including an opening therein; and a porous wick having a first section comprised of a material with a predetermined pore size and a second section comprised of a material with a predetermined pore size that is greater than that of the first section, positioned so that a lower region of the wick will be in contact with the liquid to be held by the container and an upper region of the wick is exposed to the ambient air to dispense the vaporizable liquid; wherein the opening in the container is substantially sealed by the wick, and the second section of the wick forms an outer layer which surrounds the portion of the wick that is exposed to the ambient air; further comprising a neck closure having a hole, wherein the neck closure fits tightly into the opening of the container and the wick fits tightly into the hole of the neck closure, such that the opening of the container is substantially sealed by the neck closure and the wick; the first section extends into the bottle and is in contact with the liquid whereby the smaller pores of the first section of the wick prevent leakage, while the larger pores of the second section provide a maximum release rate of the vaporizable liquid off the surface of the wick that is exposed to the ambient air.