mhurhangee/ep-ind-claims huggingface dataset:
A radar antenna, comprising: an antenna body; a plurality of components (9, 10, 11, 12) for controlling the antenna body, the plurality of components (9, 10, 11, 12) including a drive motor and a circuit board; a housing accommodating the plurality of components (9, 10, 11, 12); and a ventilation path formed in a predetermined ventilating direction and penetrating the housing; wherein the antenna body is rotatably coupled to the drive motor with a rotary drive shaft; characterised in that: the plurality of components (9, 10, 11, 12) includes a magnetron; the radar antenna further comprises a frame to which the plurality of components (9, 10, 11, 12) are attached; the ventilation path includes a ventilation section formed by the frame, and a ventilation hole formed in the housing at each end of the ventilation section and communicating with the ventilation section; and the circuit board is separated from the magnetron and the drive motor with the ventilation path therebetween. an antenna body; a plurality of components (9, 10, 11, 12) for controlling the antenna body, the plurality of components (9, 10, 11, 12) including a drive motor and a circuit board; a housing accommodating the plurality of components (9, 10, 11, 12); and a ventilation path formed in a predetermined ventilating direction and penetrating the housing; wherein the antenna body is rotatably coupled to the drive motor with a rotary drive shaft; characterised in that: the plurality of components (9, 10, 11, 12) includes a magnetron; the radar antenna further comprises a frame to which the plurality of components (9, 10, 11, 12) are attached; the ventilation path includes a ventilation section formed by the frame, and a ventilation hole formed in the housing at each end of the ventilation section and communicating with the ventilation section; and the circuit board is separated from the magnetron and the drive motor with the ventilation path therebetween. the plurality of components (9, 10, 11, 12) includes a magnetron; the radar antenna further comprises a frame to which the plurality of components (9, 10, 11, 12) are attached; the ventilation path includes a ventilation section formed by the frame, and a ventilation hole formed in the housing at each end of the ventilation section and communicating with the ventilation section; and the circuit board is separated from the magnetron and the drive motor with the ventilation path therebetween.
A method of transmitting data in a wirel ess multiple-input multiple output, MIMO, communication system, comprising: coding and modulating a first plurality of data streams to obtain a first plurality of data symbol streams; using a steered spatial multiplexing mode, spatially processing the first plurality of data symbol streams with a first plurality of steering vectors to obtain a first plurality of transmit symbol streams for transmission from a plurality of antennas to a first user terminal in a first transmission interval; coding and modulating a second plurality of data streams to obtain a second plurality of data symbol streams; and using a non-steered spatial multiplexing mode, providing the second plurality of data symbol streams as a second plurality of transmit symbol streams for transmission from the plurality of antennas to a second user terminal in a second transmission interval. coding and modulating a first plurality of data streams to obtain a first plurality of data symbol streams; using a steered spatial multiplexing mode, spatially processing the first plurality of data symbol streams with a first plurality of steering vectors to obtain a first plurality of transmit symbol streams for transmission from a plurality of antennas to a first user terminal in a first transmission interval; coding and modulating a second plurality of data streams to obtain a second plurality of data symbol streams; and using a non-steered spatial multiplexing mode, providing the second plurality of data symbol streams as a second plurality of transmit symbol streams for transmission from the plurality of antennas to a second user terminal in a second transmission interval.
A wig base, wherein: one end of a first adjusting belt which can expand and contract, one end of a second adjusting belt which can expand and contract and one end of a third adjusting belt which can expand and contract are fixed to arbitrary three positions on an inner surface of the wig base respectively, characterised in that the other ends of the first to third adjusting belts (10, 20, 30) are coupled at one position in a trifurcate shape.
An injection molding device comprising: a first mold half; an index plate that in a molding position is at least partly received in the first mold half; an index plate axle connected with the index plate, which index plate axle (550 is arranged for linear movement along its longitudinal axis relative to the first mold half so that the index plate can be moved between the molding position and a turning position in which the index plate can be rotated with respect to the first mold half; an adaptor plate connected with the first mold half; wherein the adaptor plate comprises a drive and a first coupling element coupled with the drive, which first coupling element is arranged eccentric with respect to the longitudinal axis of the index plate axle; and the first mold half comprises a second coupling element engaged with the first coupling element, the second coupling element is coupled with the index plate axle for rotating the index plate axle around the longitudinal axis. a first mold half; an index plate that in a molding position is at least partly received in the first mold half; an index plate axle connected with the index plate, which index plate axle (550 is arranged for linear movement along its longitudinal axis relative to the first mold half so that the index plate can be moved between the molding position and a turning position in which the index plate can be rotated with respect to the first mold half; an adaptor plate connected with the first mold half; wherein the adaptor plate comprises a drive and a first coupling element coupled with the drive, which first coupling element is arranged eccentric with respect to the longitudinal axis of the index plate axle; and the first mold half comprises a second coupling element engaged with the first coupling element, the second coupling element is coupled with the index plate axle for rotating the index plate axle around the longitudinal axis.
A method of forming a glass plate, wherein the glass plate is placed on a convex curved surface (2, 22) of a forming die (1, 21), thereafter the glass plate is bent into a shape along the curved surface (2, 22) by heating the glass plate, the method comprising: a placing step of placing the glass plate on the curved surface (2, 22) of the forming die (1, 21), wherein the method further comprises a processing step of bending the glass plate by softening the glass plate by heating the glass plate while applying a force to at least any part of a peripheral edge of the glass plate, wherein the glass plate has a first side and a second side being opposite to each other, the first side and the second side contacting with an upper end of the forming die (1, 21) in the placing step respectively, wherein, in the processing step, the force is applied to at least any part of the peripheral edge of the glass plate with a plate-like weight (12, 13) placed on each of the first side and the second side, or the force is applied to the peripheral edge of the glass plate with a frame-shaped weight placed on an entire portion of the peripheral edge of the glass plate, and wherein the weight (12, 13, 32) is made of glass having a same composition as a composition of glass constituting the glass plate. a placing step of placing the glass plate on the curved surface (2, 22) of the forming die (1, 21), wherein the method further comprises a processing step of bending the glass plate by softening the glass plate by heating the glass plate while applying a force to at least any part of a peripheral edge of the glass plate, wherein the glass plate has a first side and a second side being opposite to each other, the first side and the second side contacting with an upper end of the forming die (1, 21) in the placing step respectively, wherein, in the processing step, the force is applied to at least any part of the peripheral edge of the glass plate with a plate-like weight (12, 13) placed on each of the first side and the second side, or the force is applied to the peripheral edge of the glass plate with a frame-shaped weight placed on an entire portion of the peripheral edge of the glass plate, and wherein the weight (12, 13, 32) is made of glass having a same composition as a composition of glass constituting the glass plate.
An in vitro method for improving the expression and establishment efficiency of a self-replicating non- integrative episomal S/MAR expression vector in a target vertebrate cell comprising the following steps: a. providing an episomal S/MAR expression vector comprising: i. a bacterial replication-selection region comprising a bacterial origin of replication and a selectable marker; ii. a transcription unit for expression of a transgene in a vertebrate cell, comprising a promoter, a 5' UTR, a transgene, and a 3' UTR; iii. an S/MAR insert located within said 3' UTR; and b. modifying the episomal S/MAR expression vector such that the S/MAR is flanked by a 5' splice donor site and a 3' splice acceptor site within said 3' UTR, whereby the resultant self-replicating non-integrative episomal S/MAR expression vector has improved expression and establishment efficiency after transfection of a vertebrate cell. a. providing an episomal S/MAR expression vector comprising: i. a bacterial replication-selection region comprising a bacterial origin of replication and a selectable marker; ii. a transcription unit for expression of a transgene in a vertebrate cell, comprising a promoter, a 5' UTR, a transgene, and a 3' UTR; iii. an S/MAR insert located within said 3' UTR; and i. a bacterial replication-selection region comprising a bacterial origin of replication and a selectable marker; ii. a transcription unit for expression of a transgene in a vertebrate cell, comprising a promoter, a 5' UTR, a transgene, and a 3' UTR; iii. an S/MAR insert located within said 3' UTR; and b. modifying the episomal S/MAR expression vector such that the S/MAR is flanked by a 5' splice donor site and a 3' splice acceptor site within said 3' UTR, whereby the resultant self-replicating non-integrative episomal S/MAR expression vector has improved expression and establishment efficiency after transfection of a vertebrate cell.
A localization system for a vehicle running on a guideway including portions obscured from satellite view, comprising: at least one GNSS receiver placed at one or more strategic locations in view of navigation satellites; GNSS transmitters for retransmitting received GNSS signals along an obscured portion of the guideway; and a GNSS receiver on the vehicle for picking up GNSS signals directly from the navigation satellites or retransmitted from the GNSS transmitters when on an obscured portion of the guideway; and characterised by: coded targets placed at known locations along the guideway; a proximity sensor on the vehicle for detecting the coded targets; and an on-board computer for synchronizing the location obtained from the GNSS signals with the location obtained from the proximity sensor. at least one GNSS receiver placed at one or more strategic locations in view of navigation satellites; GNSS transmitters for retransmitting received GNSS signals along an obscured portion of the guideway; and a GNSS receiver on the vehicle for picking up GNSS signals directly from the navigation satellites or retransmitted from the GNSS transmitters when on an obscured portion of the guideway; and characterised by: coded targets placed at known locations along the guideway; coded targets placed at known locations along the guideway; a proximity sensor on the vehicle for detecting the coded targets; and an on-board computer for synchronizing the location obtained from the GNSS signals with the location obtained from the proximity sensor.
A method to forward Ethernet frames associated with a service instance of a service at a node in a first network supporting an implementation of a protocol for creating logical loop-free topologies, wherein media access control, MAC, address registration in the first network complies with an implementation of multiple MAC registration protocol, MMRP, wherein nodes of the first network interested in the service instance issue multiple MAC registration protocol data units, MMRPDUs, the method comprising: receiving a first plurality of MMRPDUs at the node from links, wherein each MMRPDU of the first plurality of MMRPDUs contains a first interested node list including one or more interested nodes identified by MAC addresses; identifying a service instance identifier, SID, for the service instance by extracting information from at least one of: one Ethernet frame encapsulating an MMRPDU and one MMRPDU itself; identifying a first set of MAC addresses interested in the service instance, the first set of MAC addresses being associated with the node and the SID; storing the first set of MAC addresses interested in the service instance; sending a second plurality of MMRPDUs to a set of links associated with the service instance, wherein for each link of the set of links, an MMRPDU is sent, wherein the MMRPDU contains a second set of MAC addresses interested in the service instance including MAC addresses not received from that link; and installing filtering at the node such that an Ethernet frame is forwarded to its destination if the Ethernet frame is destined to one or more interested nodes identified by the first set of MAC addresses. receiving a first plurality of MMRPDUs at the node from links, wherein each MMRPDU of the first plurality of MMRPDUs contains a first interested node list including one or more interested nodes identified by MAC addresses; identifying a service instance identifier, SID, for the service instance by extracting information from at least one of: one Ethernet frame encapsulating an MMRPDU and one MMRPDU itself; one Ethernet frame encapsulating an MMRPDU and one MMRPDU itself; identifying a first set of MAC addresses interested in the service instance, the first set of MAC addresses being associated with the node and the SID; storing the first set of MAC addresses interested in the service instance; sending a second plurality of MMRPDUs to a set of links associated with the service instance, wherein for each link of the set of links, an MMRPDU is sent, wherein the MMRPDU contains a second set of MAC addresses interested in the service instance including MAC addresses not received from that link; and installing filtering at the node such that an Ethernet frame is forwarded to its destination if the Ethernet frame is destined to one or more interested nodes identified by the first set of MAC addresses.
A footrest intended to be installed inside the passenger compartment of a vehicle, in particular an automobile, between a part of the apron and the floor of that vehicle, the footrest having a rigid flat sole intended to support the foot of a driver by being inclined towards the front of the vehicle at an angle of inclination extending horizontally to the rear of the lower end of the sole and intended to rest directly on the floor or on a soundproof mat; characterized by a frangible zone arranged horizontally along the intersection between the said inclined sole and the said horizontal leg, the frangible zone being configured to break under a predetermined longitudinal shear stress.
A refrigerator, comprising: an enclosed, refrigerated space; a plurality of shelves in the refrigerated space for holding items to be refrigerated; a plurality of doors for permitting access to the shelves; a plurality of vertically extending mullions interspersed among the doors, each mullion including an interior surface that faces inwardly relative to the enclosed refrigerated space; and a plurality of lighting devices, each installed on the interior surface of a respective one of the mullions, each of the lighting devices comprising: a light emitting diode having a main axis of light emission; characterized by each of the lighting devices further comprising a lens element positioned adjacent the LED, the lens element having a geometry defined by at least partial revolution of a cross-sectional profile around an axis of revolution; the lens element positioned relative to the LED such that said axis of revolution crosses the main axis of light emission of the LED, the lens element operative to apply total internal reflection to at least some light rays emitted from the LED. an enclosed, refrigerated space; a plurality of shelves in the refrigerated space for holding items to be refrigerated; a plurality of doors for permitting access to the shelves; a plurality of vertically extending mullions interspersed among the doors, each mullion including an interior surface that faces inwardly relative to the enclosed refrigerated space; and a plurality of lighting devices, each installed on the interior surface of a respective one of the mullions, each of the lighting devices comprising: a light emitting diode having a main axis of light emission; characterized by each of the lighting devices further comprising a lens element positioned adjacent the LED, the lens element having a geometry defined by at least partial revolution of a cross-sectional profile around an axis of revolution; the lens element positioned relative to the LED such that said axis of revolution crosses the main axis of light emission of the LED, the lens element operative to apply total internal reflection to at least some light rays emitted from the LED. a light emitting diode having a main axis of light emission; characterized by each of the lighting devices further comprising a lens element positioned adjacent the LED, the lens element having a geometry defined by at least partial revolution of a cross-sectional profile around an axis of revolution; the lens element positioned relative to the LED such that said axis of revolution crosses the main axis of light emission of the LED, the lens element operative to apply total internal reflection to at least some light rays emitted from the LED.
A halftone raster image for creating the illusion of a continuous-tone image on a printed copy, wherein said halftone raster image comprises a plurality of halftone dots which comprise (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral, and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral. (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral, and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral.
A variable volume hot melt adhesive dispensing nozzle or die assembly, comprising: a first fluid flow of a first hot melt adhesive; a second fluid flow of a second hot melt adhesive; a plurality of hot melt adhesive dispensing nozzles, each one of said hot melt adhesive dispensing nozzles having a predetermined cross-sectional area; at least one fluid control plate (106 - 128) for combining said first and second fluid flows (190, 196) of said first and second hot melt adhesives into a combined flow of hot melt adhesive, and for conducting said combined flow of hot melt adhesive toward said plurality of hot melt adhesive dispensing nozzles; and first and second chokes (194, 200), upstream of said at least one fluid control plate (106 - 128) for combining said first and second fluid flows (190, 196) of hot melt adhesive into said combined flow of hot melt adhesive, and respectively fluidically operative with said first and second fluid flows (190, 196) of said first and second hot melt adhesives, for effectively delaying the reaction of pressure spikes upon said combined fluid flow when one of said first or second fluid flows (190, 196) of said first and second hot melt adhesives is intermittently discontinued, characterized in that, each one of said first and second chokes (194, 200) has a cross-sectional area which is substantially the same as or less than (≤) the sum total of the cross-sectional areas of all of said plurality of hot melt adhesive dispensing nozzles. a first fluid flow of a first hot melt adhesive; a second fluid flow of a second hot melt adhesive; a plurality of hot melt adhesive dispensing nozzles, each one of said hot melt adhesive dispensing nozzles having a predetermined cross-sectional area; at least one fluid control plate (106 - 128) for combining said first and second fluid flows (190, 196) of said first and second hot melt adhesives into a combined flow of hot melt adhesive, and for conducting said combined flow of hot melt adhesive toward said plurality of hot melt adhesive dispensing nozzles; and first and second chokes (194, 200), upstream of said at least one fluid control plate (106 - 128) for combining said first and second fluid flows (190, 196) of hot melt adhesive into said combined flow of hot melt adhesive, and respectively fluidically operative with said first and second fluid flows (190, 196) of said first and second hot melt adhesives, for effectively delaying the reaction of pressure spikes upon said combined fluid flow when one of said first or second fluid flows (190, 196) of said first and second hot melt adhesives is intermittently discontinued, characterized in that, each one of said first and second chokes (194, 200) has a cross-sectional area which is substantially the same as or less than (≤) the sum total of the cross-sectional areas of all of said plurality of hot melt adhesive dispensing nozzles.