mhurhangee/ep-ind-claims huggingface dataset:
A precoding method, comprising: aligning, in the same space, interference channels of one or more terminal devices included in an edge region of a cell corresponding with an interference base station; generating a reception beamforming vector of one or more terminal devices included in an edge region of a cell of a serving base station, based on the interference channels of the interference base station that are aligned in the same space; and generating a precoding vector with respect to the one or more terminal devices included in the edge region of the cell of the serving base station, based on a basis vector of each of the interference channels of the interference base station that are aligned in the same space, and an interference channel of the serving base station, and transmitting, to the one or more terminal devices included in the edge region of the cell of the serving base station, the reception beamforming vector and data that is precoded using the generated precoding vector. aligning, in the same space, interference channels of one or more terminal devices included in an edge region of a cell corresponding with an interference base station; generating a reception beamforming vector of one or more terminal devices included in an edge region of a cell of a serving base station, based on the interference channels of the interference base station that are aligned in the same space; and generating a precoding vector with respect to the one or more terminal devices included in the edge region of the cell of the serving base station, based on a basis vector of each of the interference channels of the interference base station that are aligned in the same space, and an interference channel of the serving base station, and transmitting, to the one or more terminal devices included in the edge region of the cell of the serving base station, the reception beamforming vector and data that is precoded using the generated precoding vector.
Modular multifunctional socket, comprising a base housing formed with a rear installation face for flush-mounted installation of the multifunctional socket and with a front functional face having an insertion compartment made therein for receiving in each case exactly one of a plurality of replaceable functional modules for providing different user functions, comprising an electricity access device formed on the rear installation face on the base housing for electrically connecting the multifunctional socket to a low-voltage system, and comprising an electrical contact device electrically coupled to the electricity access device via the base housing and formed on the front functional face in the insertion compartment so as to be electrically touch-proofed with electrical contacts for contacting corresponding electrical counter contacts of a functional module plugged into the insertion compartment; characterised in that the electrical contacts of the electrical contact device are formed in the insertion compartment as touch-proofed plug-in and/or clamp contacts for receiving contact bridges, contact pins and/or contact clamps as counter contacts on the functional modules, electrical contacts assigned to different low-voltage lines being arranged side by side in the insertion compartment, in the form of a contact block, two contact blocks being formed in the insertion compartment with the respective electrical contacts thereof opposing one another for daisy-chaining multiphase alternating current lines. comprising a base housing formed with a rear installation face for flush-mounted installation of the multifunctional socket and with a front functional face having an insertion compartment made therein for receiving in each case exactly one of a plurality of replaceable functional modules for providing different user functions, comprising an electricity access device formed on the rear installation face on the base housing for electrically connecting the multifunctional socket to a low-voltage system, and comprising an electrical contact device electrically coupled to the electricity access device via the base housing and formed on the front functional face in the insertion compartment so as to be electrically touch-proofed with electrical contacts for contacting corresponding electrical counter contacts of a functional module plugged into the insertion compartment; characterised in that the electrical contacts of the electrical contact device are formed in the insertion compartment as touch-proofed plug-in and/or clamp contacts for receiving contact bridges, contact pins and/or contact clamps as counter contacts on the functional modules, electrical contacts assigned to different low-voltage lines being arranged side by side in the insertion compartment, in the form of a contact block, two contact blocks being formed in the insertion compartment with the respective electrical contacts thereof opposing one another for daisy-chaining multiphase alternating current lines.
A compressor comprising: a shell assembly housing a compression mechanism including a drive shaft configured to be rotatably driven to impart a force on the compression mechanism; and a motor assembly; a suction gas inlet fitting in fluid communication with the interior of the shell assembly; a suction window configured to allow suction gas to flow into the compression mechanism from the interior of the shell assembly; a counterweight fixed to the drive shaft; and a counterweight cover, the counterweight cover including: an annular body having a recess at least partially defined by an outer circumferential portion, an inner circumferential portion, and a upper portion connecting said outer circumferential portion and said inner circumferential portion, said recess being configured to receive said counterweight between said outer circumferential portion and said inner circumferential portion; characterised in that a suction baffle is disposed on said annular body, the suction baffle configured to direct a flow of suction gas entering the shell assembly through the suction gas inlet fitting towards the suction window and away from the counterweight. a shell assembly housing a compression mechanism including a drive shaft configured to be rotatably driven to impart a force on the compression mechanism; and a motor assembly; a suction gas inlet fitting in fluid communication with the interior of the shell assembly; a suction window configured to allow suction gas to flow into the compression mechanism from the interior of the shell assembly; a counterweight fixed to the drive shaft; and a counterweight cover, the counterweight cover including: an annular body having a recess at least partially defined by an outer circumferential portion, an inner circumferential portion, and a upper portion connecting said outer circumferential portion and said inner circumferential portion, said recess being configured to receive said counterweight between said outer circumferential portion and said inner circumferential portion; characterised in that a suction baffle is disposed on said annular body, the suction baffle configured to direct a flow of suction gas entering the shell assembly through the suction gas inlet fitting towards the suction window and away from the counterweight. an annular body having a recess at least partially defined by an outer circumferential portion, an inner circumferential portion, and a upper portion connecting said outer circumferential portion and said inner circumferential portion, said recess being configured to receive said counterweight between said outer circumferential portion and said inner circumferential portion; characterised in that a suction baffle is disposed on said annular body, the suction baffle configured to direct a flow of suction gas entering the shell assembly through the suction gas inlet fitting towards the suction window and away from the counterweight.
Process for producing an olefinic thermoplastic elastomer, comprising the successive steps of: - feeding 100 parts by weight of LDPE and/or LLDPE to a mouth of a cavity open at the top of a densifying apparatus, which is delimited by a casing and within which a blade is rotatably mounted about a vertical axis and subjects the LDPE and/or LLDPE to a shear stress, heating it to a temperature between 130 and 150 °C at which said LDPE and/or LLDPE melts, - feeding into said cavity 33 to 54 parts by weight of atactic polypropylene copolymer in which the percentage by weight of ethylene units is between 35 and 45% and which is mixed with the LDPE and/or LLDPE to form a composite melt, - feeding into said cavity water at a temperature not exceeding 25 °C, which brings about the solidification of said composite melt that is shredded by said blade into granules not exceeding 14 mm in size, and - loading said granules into an inlet end of a single-screw extruder, from which said thermoplastic elastomer is extruded through an outlet die. - feeding 100 parts by weight of LDPE and/or LLDPE to a mouth of a cavity open at the top of a densifying apparatus, which is delimited by a casing and within which a blade is rotatably mounted about a vertical axis and subjects the LDPE and/or LLDPE to a shear stress, heating it to a temperature between 130 and 150 °C at which said LDPE and/or LLDPE melts, - feeding into said cavity 33 to 54 parts by weight of atactic polypropylene copolymer in which the percentage by weight of ethylene units is between 35 and 45% and which is mixed with the LDPE and/or LLDPE to form a composite melt, - feeding into said cavity water at a temperature not exceeding 25 °C, which brings about the solidification of said composite melt that is shredded by said blade into granules not exceeding 14 mm in size, and - loading said granules into an inlet end of a single-screw extruder, from which said thermoplastic elastomer is extruded through an outlet die.
A stereolithography method for forming a formed object that corresponds to a set of three-dimensional objects in a formation area on an elevator platform by selectively directing a light beam to a curable material and curing the curable material, the method comprising: by a controller, placing the set of three-dimensional objects in the formation area, by the controller, setting a plurality of placement zones in the formation area, wherein the placement zones are defined by borderlines extending in an extension direction of a recoater for leveling a liquid surface, and by the controller, placing the three-dimensional objects in the placement zones in descending order of height, wherein the three-dimensional objects are placed in each of the placement zones in order from a first placement zone of the placement zones, and wherein the three-dimensional objects are placed in each of the placement zones along the extension direction of the recoater; characterised in that after a first placement of three-dimensional objects is completed in each placement zone and before placing three-dimensional objects in a next placement zone, three-dimensional objects that are yet to be placed in an empty region in the placement zone, in which the three-dimensional objects have been already placed, are checked in descending order of height if the three-dimensional object can be placed in the empty region. by a controller, placing the set of three-dimensional objects in the formation area, by the controller, setting a plurality of placement zones in the formation area, wherein the placement zones are defined by borderlines extending in an extension direction of a recoater for leveling a liquid surface, and by the controller, placing the three-dimensional objects in the placement zones in descending order of height, wherein the three-dimensional objects are placed in each of the placement zones in order from a first placement zone of the placement zones, and wherein the three-dimensional objects are placed in each of the placement zones along the extension direction of the recoater; characterised in that after a first placement of three-dimensional objects is completed in each placement zone and before placing three-dimensional objects in a next placement zone, three-dimensional objects that are yet to be placed in an empty region in the placement zone, in which the three-dimensional objects have been already placed, are checked in descending order of height if the three-dimensional object can be placed in the empty region.
Tool carrier for attaching and removing a tool for a loader, with a tool carrier frame and with a locking device which is arranged on the tool carrier and with which a tool can be locked on the tool carrier by a transversely movable bar, wherein the bar, with the tool attached and locked, is movable from a locking position to a transversely spring-preloaded unlocking position in which the bar bears on the tool carrier frame, wherein the locking device comprises positioning and holding means which, by attachment of a tool to the tool carrier, can be brought to a spring-preloaded position and, upon removal of the unlocked tool from the tool carrier, release the bar by means of spring force from its unlocking position bearing on the tool carrier frame, wherein the positioning and holding means adopt a holding position and the bar is movable from the unlocking position to a transversely spring-preloaded pre-locking position in which the bar bears on the positioning and holding means, wherein the positioning and holding means can be brought from the holding position to the spring-preloaded position by renewed attachment of a tool, and the bar thus freed can be brought from the pre-locking position to the locking position by a transverse spring force, wherein the bar has a grip for manually moving the bar from the locking position to the unlocking position, characterized in that the grip side of the bar has a positioning and holding portion and, oriented parallel to the latter, a first guiding and locking portion, wherein the bar, at the side opposite the grip, has a second guiding and locking portion, which is oriented transversely flush with the first guiding and locking portion.
An illumination assembly for an interactive input system, comprising: at least one imaging device capturing image frames of a region of interest; a plurality of illumination sources (84a, 84b, 84c) associated with each imaging device and being located at different positions relative to said imaging device, wherein one illumination source is generally vertically aligned with the at least one imaging device, and at least one other illumination source (84a, 84b) is positioned on each side of said imaging device, said illumination sources providing illumination to said region of interest; and a controller communicating with said illumination sources, said controller conditioning said illumination sources so that the illumination sources provide illumination to said region of interest in succession, the timing of image frame capture by said imaging device being coordinated with the illumination pattern of said illumination sources, wherein said controller conditions said illumination sources so that for an exposure cycle of said imaging device the imaging device captures: an image frame with each illumination source (84a, 84b, 84c) on and the other illumination sources (84a, 84b, 84c) off and an image frame with all illumination sources (84a, 84b, 84c) off. at least one imaging device capturing image frames of a region of interest; a plurality of illumination sources (84a, 84b, 84c) associated with each imaging device and being located at different positions relative to said imaging device, wherein one illumination source is generally vertically aligned with the at least one imaging device, and at least one other illumination source (84a, 84b) is positioned on each side of said imaging device, said illumination sources providing illumination to said region of interest; and a controller communicating with said illumination sources, said controller conditioning said illumination sources so that the illumination sources provide illumination to said region of interest in succession, the timing of image frame capture by said imaging device being coordinated with the illumination pattern of said illumination sources, wherein said controller conditions said illumination sources so that for an exposure cycle of said imaging device the imaging device captures: an image frame with each illumination source (84a, 84b, 84c) on and the other illumination sources (84a, 84b, 84c) off and an image frame with all illumination sources (84a, 84b, 84c) off.
An electrical energy storage device electrolyte comprising: a) an aprotic organic solvent system; b) an alkali metal salt; and c) at least one of the following phosphate based compounds wherein: A is oxygen or sulfur; Ph is a phenyl ring; L is oxygen or sulfur; x and y are either 1 or 2, but must sum to equal 3; R is a phenyl ring with at least one of the hydrogen atoms on the ring being replaced by a halogen, alkoxy, silyl, sulfoxide, perfluorinated alkyl, azo, amide, thiyl group or combination thereof. a) an aprotic organic solvent system; b) an alkali metal salt; and c) at least one of the following phosphate based compounds A is oxygen or sulfur; Ph is a phenyl ring; L is oxygen or sulfur; x and y are either 1 or 2, but must sum to equal 3; R is a phenyl ring with at least one of the hydrogen atoms on the ring being replaced by a halogen, alkoxy, silyl, sulfoxide, perfluorinated alkyl, azo, amide, thiyl group or combination thereof.
Use of an apparatus comprising at least one chemically sensitive sensor, wherein the chemically sensitive sensor comprises cubic nanoparticle conductive cores capped with an organic coating, the cubic nanoparticles capped with an organic coating being in a configuration selected from 1D wires, 2D films, and 3D assemblies, for detecting volatile and non-volatile compounds, wherein the apparatus further comprises at least one of a chemiresistor, chemicapacitor, bulk acoustic wave and surface acoustic wave resonator, electrochemical cell, surface plasmon resonance, and optical spectroscope.
A method of wireless communication, comprising: determining that data scheduled for transmission using a Time-Division Duplex, TDD, band over a TDD subframe includes Ultra-Reliable Low-Latency Communications, URLLC, data; and utilizing, in response to the determining, a URLLC subframe configuration for the TDD subframe, wherein the URLLC subframe configuration includes a plurality of downlink intervals (401, 404) and a plurality of uplink intervals (402, 405); transmitting to a wireless apparatus at least a portion of the URLLC data over the TDD subframe, having a URLLC subframe configuration, during the plurality of downlink intervals; and receiving an acknowledgement from the wireless apparatus, in response to the transmitted at least a portion of the URLLC data, over a Frequency-Division Duplex, FDD, band.
A method for transmitting control information to a User Equipment, UE, in a wireless communication system in which multiple antenna ports are defined, the method comprising: transmitting, through Radio Resource Control, RRC, signaling, a configuration for at least one resource block for transmitting the control information; generating the control information; and transmitting, using localized transmission, the control information on an enhanced physical downlink control channel, ePDCCH, using at least one enhanced Control Channel Element, eCCE, in the at least one resource block, wherein in localized transmission, an eCCE includes resource elements from one resource block, wherein the ePDCCH is associated with at least one antenna port, and characterized in that the at least one antenna port is determined according to a lowest eCCE index of the at least one eCCE and a number of eCCEs used for the ePDCCH. transmitting, through Radio Resource Control, RRC, signaling, a configuration for at least one resource block for transmitting the control information; generating the control information; and transmitting, using localized transmission, the control information on an enhanced physical downlink control channel, ePDCCH, using at least one enhanced Control Channel Element, eCCE, in the at least one resource block, wherein in localized transmission, an eCCE includes resource elements from one resource block, wherein the ePDCCH is associated with at least one antenna port, and characterized in that the at least one antenna port is determined according to a lowest eCCE index of the at least one eCCE and a number of eCCEs used for the ePDCCH.
A method of aligning shear webs for the construction of a wind turbine blade, the method comprising: - providing one or more jigs (401, 911, 912, 913), each configured to receive one or more spacer elements (701, 910); - providing one or more spacer elements (701, 910); - placing first and second shear web panels (801, 802) on the one or more jigs to align them; - restraining the first and second shear web panels relative to each other, the shear web panels being separated by the one or more spacer elements; - removing the first and second shear web panels together with the one or more spacer elements from the jig. - providing one or more jigs (401, 911, 912, 913), each configured to receive one or more spacer elements (701, 910); - providing one or more spacer elements (701, 910); - placing first and second shear web panels (801, 802) on the one or more jigs to align them; - restraining the first and second shear web panels relative to each other, the shear web panels being separated by the one or more spacer elements; - removing the first and second shear web panels together with the one or more spacer elements from the jig.
A cable retaining insert configured to be used with a plate member of a bone plate assembly, the cable retaining insert (5, 5') including a top side and an opposite bottom side, a first portion (51, 51') adjacent to the bottom side comprising an engagement structure configured to engage a corresponding engagement structure in the plate member, a second portion adjacent to the top side comprising at least one aperture configured to retain a cable to the plate member, wherein the first portion of the cable retaining insert (5, 5') has a recess (52, 52') at the bottom side for accommodating at least a portion of a head of a bone anchor. a top side and an opposite bottom side, a first portion (51, 51') adjacent to the bottom side comprising an engagement structure configured to engage a corresponding engagement structure in the plate member, a second portion adjacent to the top side comprising at least one aperture configured to retain a cable to the plate member, wherein the first portion of the cable retaining insert (5, 5') has a recess (52, 52') at the bottom side for accommodating at least a portion of a head of a bone anchor.
Fitting for a window or a door, wherein a locking element is provided for engaging with a lock-engaging element in a displacement direction running along a rebate, and in its locked position said locking element engages in a laterally-open locking slot of the lock-engaging element, the locking slot running along the rebate, characterised in that a stationary stop is associated with and at a distance of a few millimetres from the locking element on the transverse edge of the lock-engaging element opposite the locking slot, wherein the stop has a lock and a detachable detent mechanism for the lock, the lock being capable of being subjected to force from an energy store in the direction of the lock-engaging element, and the detent mechanism is triggered when the lock-engaging mechanism is triggered when the lock-engaging element contacts the stop.