mhurhangee/ep-ind-claims huggingface dataset:
A Media Access Control, MAC, filtering method for high speed switching in an Ethernet network having a ring topology, the MAC filtering method comprising: setting a variable relating to a condition of a target frame to be relayed, with a relay control logic; receiving data from a physical layer; storing the received data in a relay buffer, wherein the data comprises frames; determining whether to relay the received data; monitoring a transmission state of a MAC control logic and relaying the received data while the MAC control logic is not used, to prevent data collision, when as a result of the determination that the received data needs to be relayed; and storing information that the received data is being relayed, into a transmit state memory in the MAC control logic, while the received data is being relayed; wherein determining whether to relay the received data comprises analyzing the frames comprised in the data and determining based on preamble, Destination Address, DA, Source Address, SA, and type fields whether to relay; and wherein in setting the variable relating to a condition, the variable relating to a condition comprises a destination address, DA, a source address, SA, and a type/length. setting a variable relating to a condition of a target frame to be relayed, with a relay control logic; receiving data from a physical layer; storing the received data in a relay buffer, wherein the data comprises frames; determining whether to relay the received data; monitoring a transmission state of a MAC control logic and relaying the received data while the MAC control logic is not used, to prevent data collision, when as a result of the determination that the received data needs to be relayed; and storing information that the received data is being relayed, into a transmit state memory in the MAC control logic, while the received data is being relayed;
A cosmetic mask comprising (i) a water insoluble porous substrate; (ii) 1 to 15% by weight of film forming polymer; and (iii) 0.1 to 5% by weight of a whitening particle, wherein the film forming polymer is water insoluble; wherein the film forming polymer has a solubility in water at 25 °C of less than 1 wt%; and wherein the film forming polymer is selected from an acrylate polymer, a methacrylate polymer, a urethane polymer or co-polymers thereof. (i) a water insoluble porous substrate; (ii) 1 to 15% by weight of film forming polymer; and (iii) 0.1 to 5% by weight of a whitening particle,
A saddle-ride type vehicle comprising a lighting device having a light source (48a, 48b) and a translucent lens that allows light of the light source (48a, 48b) to be transmitted through the lens, and an exterior component that covers an outer periphery of the lens, wherein a panel disposed along the outer periphery of the lens is provided on a surface of the exterior component, and the panel includes a first resin body that forms an outer surface of the exterior component and has translucency, characterized in that the first resin body has recesses and projections in an inner surface thereof, and the panel further includes a second resin body that is stacked on the inner surface of the first resin body and is colored in a metallic color, and a recess is made in the exterior component and the panel is adhered into the recess by an adhesive material, the panel is attached to a downwardly-faced surface of the exterior component.
Kit for producing an unmanned aircraft with a maximum take-off weight of at least 250 kg, the kit having a fuselage structure with a wing structure fastening interface for fastening a wing structure and having, furthermore, a first wing structure and a different second wing structure, the first wing structure having a greater wingspan than the second wing structure and being configured for constructing an unmanned aircraft of the HALE class, and the second wing structure being configured for constructing an unmanned aircraft of the MALE class, the first and the second wing structure (15a, 15b) in each case having a fuselage structure fastening interface of identical configuration for fastening to the wing structure fastening interface of the fuselage structure.
A network device in a network comprising a plurality of network devices, the network device comprising: processing circuitry configured to: receive packet data corresponding to a network flow originating at a first device, the packet data destined to a second device; generate an entropy label to add to a label stack (114, 134, 154) of the packet data, wherein the entropy label is generated from one or more attributes corresponding to the network flow that originated at the first device and is destined to the second device; generate a flow record including the entropy label, wherein the entropy label identifies the network flow amongst a plurality of network flows in the network; send, to a controller (34, 100) of the network, the flow record, wherein the flow record is configured to enable the controller to identify the flow record based on the entropy label corresponding to the network flow originating at the first device and is destined to the second device; wherein the processing circuitry is further configured to send, to the controller of the network, the one or more attributes used to generate the entropy label. receive packet data corresponding to a network flow originating at a first device, the packet data destined to a second device; generate an entropy label to add to a label stack (114, 134, 154) of the packet data, wherein the entropy label is generated from one or more attributes corresponding to the network flow that originated at the first device and is destined to the second device; generate a flow record including the entropy label, wherein the entropy label identifies the network flow amongst a plurality of network flows in the network; send, to a controller (34, 100) of the network, the flow record, wherein the flow record is configured to enable the controller to identify the flow record based on the entropy label corresponding to the network flow originating at the first device and is destined to the second device; wherein the processing circuitry is further configured to send, to the controller of the network, the one or more attributes used to generate the entropy label.
A passenger conveyance passenger tracking control system that controls operation of a passenger conveyance, comprising: at least one call request device configured to receive at least one input from at least one passenger (112, 114) located at an occupancy depth grid (117a, 117b); at least two passenger position three-dimensional (3-D) depth-sensing sensors (116, 118) configured to track a position of the at least one passenger (112, 114) located at the occupancy depth grid (117a, 117b); and an electronic control module in signal communication with the at least one call request device and the at least two passenger position 3-D depth-sensing sensors (116, 118), the electronic control module configured to generate an occupancy depth grid (117a, 117b) identifying the position of the at least one passenger (112, 114) and the location of the at least one occupancy depth grid (117a, 117b) based on an electronic data signal output from the at least two passenger 3-D depth-sensing sensors (116, 118), and control operation of the passenger conveyance based on the position of the at least one passenger with respect to the at least one occupancy depth grid; characterized in that the system is arranged to use serialization of passengers entering the passenger conveyance to associate tracks and incorporates overlapping calibrated sensed volumes such that the position of the at least one passenger (112, 114) in the overlapping calibrated sensed volumes will be known to be at the same spatial position. at least one call request device configured to receive at least one input from at least one passenger (112, 114) located at an occupancy depth grid (117a, 117b); at least two passenger position three-dimensional (3-D) depth-sensing sensors (116, 118) configured to track a position of the at least one passenger (112, 114) located at the occupancy depth grid (117a, 117b); and an electronic control module in signal communication with the at least one call request device and the at least two passenger position 3-D depth-sensing sensors (116, 118), the electronic control module configured to generate an occupancy depth grid (117a, 117b) identifying the position of the at least one passenger (112, 114) and the location of the at least one occupancy depth grid (117a, 117b) based on an electronic data signal output from the at least two passenger 3-D depth-sensing sensors (116, 118), and control operation of the passenger conveyance based on the position of the at least one passenger with respect to the at least one occupancy depth grid; characterized in that the system is arranged to use serialization of passengers entering the passenger conveyance to associate tracks and incorporates overlapping calibrated sensed volumes such that the position of the at least one passenger (112, 114) in the overlapping calibrated sensed volumes will be known to be at the same spatial position.
A refrigerator comprising: a main body having at least one storeroom; at least one door hinged to the main body to open and close the storeroom; and a door opening apparatus gradually decreasing a magnetic binding force between the door and the main body as a rotation angle of the door is increased, the door opening apparatus comprising: a pair of operating levers disposed at upper and lower ends of the door; a door handle connecting the pair of operating levers and being disposed longitudinally in front of the door; a roller rotatably coupled to one end of each operating lever; a pair of coupling units rotatably coupling the pair of operating levers at the upper and lower ends of the door; and a guide member installed to the main body and guiding a rolling motion of the roiier; characterized in that the guide member comprises: a first magnet forming the magnetic binding force with the roller; and a cover surrounding the first magnet and having an inclined and curved surface adapted to increase a distance between the roller and the first magnet and adapted to form part of a locus drawn by the roller as each operating lever is rotated to open the door. a main body having at least one storeroom; at least one door hinged to the main body to open and close the storeroom; and a door opening apparatus gradually decreasing a magnetic binding force between the door and the main body as a rotation angle of the door is increased, the door opening apparatus comprising: a pair of operating levers disposed at upper and lower ends of the door; a door handle connecting the pair of operating levers and being disposed longitudinally in front of the door; a roller rotatably coupled to one end of each operating lever; a pair of coupling units rotatably coupling the pair of operating levers at the upper and lower ends of the door; and a guide member installed to the main body and guiding a rolling motion of the roiier; characterized in that the guide member comprises: a pair of operating levers disposed at upper and lower ends of the door; a door handle connecting the pair of operating levers and being disposed longitudinally in front of the door; a roller rotatably coupled to one end of each operating lever; a pair of coupling units rotatably coupling the pair of operating levers at the upper and lower ends of the door; and a guide member installed to the main body and guiding a rolling motion of the roiier; characterized in that the guide member comprises: a first magnet forming the magnetic binding force with the roller; and a cover surrounding the first magnet and having an inclined and curved surface adapted to increase a distance between the roller and the first magnet and adapted to form part of a locus drawn by the roller as each operating lever is rotated to open the door.
A non-platinum based electrode catalyst for fuel cells which comprises a ruthenium (Ru)-rhodium (Rh) binary alloy, wherein ruthenium and rhodium are each present in the ruthenium-rhodium binary alloy in an amount of 10-90 mol %.
A laser system for ophthalmic surgery, comprising: a laser source, to generate a pulsed laser beam for causing a photodisruption of an ophthalmic tissue of an eye; a first Z scanner, to receive the pulsed laser beam, and to output a Z-scanning beam, scanned in a Z direction over a first Z scanning range, an XY scanner, to receive the Z- scanning beam, and to output a first XYZ-scanning beam, scanned in two directions transverse to a Z direction in addition to the Z direction; a second Z scanner in a scanner housing, to receive the first XYZ-scanning beam, and to output a second XYZ-scanning beam, scanned additionally in the Z direction over a second Z scanning range; a mirror (310,320), to deflect the second XYZ-scanning beam received from the second Z scanner; and an objective, in an objective housing, to receive the deflected XYZ-scanning beam; and to focus the received XYZ-scanning beam onto a target region, wherein the scanner housing is separate from the objective housing, wherein the first Z scanning range is suitable for a corneal surgical procedure, and wherein the second Z scanning range is suitable for an anterior segment surgical procedure. a laser source, to generate a pulsed laser beam for causing a photodisruption of an ophthalmic tissue of an eye; a first Z scanner, to receive the pulsed laser beam, and to output a Z-scanning beam, scanned in a Z direction over a first Z scanning range, to receive the pulsed laser beam, and to output a Z-scanning beam, scanned in a Z direction over a first Z scanning range, to output a Z-scanning beam, scanned in a Z direction over a first Z scanning range, an XY scanner, to receive the Z- scanning beam, and to output a first XYZ-scanning beam, scanned in two directions transverse to a Z direction in addition to the Z direction; to receive the Z- scanning beam, and to output a first XYZ-scanning beam, scanned in two directions transverse to a Z direction in addition to the Z direction; a second Z scanner in a scanner housing, to receive the first XYZ-scanning beam, and to output a second XYZ-scanning beam, scanned additionally in the Z direction over a second Z scanning range; to receive the first XYZ-scanning beam, and to output a second XYZ-scanning beam, scanned additionally in the Z direction over a second Z scanning range; a mirror (310,320), to deflect the second XYZ-scanning beam received from the second Z scanner; and an objective, in an objective housing, to receive the deflected XYZ-scanning beam; and to focus the received XYZ-scanning beam onto a target region, wherein to receive the deflected XYZ-scanning beam; and to focus the received XYZ-scanning beam onto a target region, wherein the scanner housing is separate from the objective housing, wherein the first Z scanning range is suitable for a corneal surgical procedure, and wherein the second Z scanning range is suitable for an anterior segment surgical procedure.
An RJ45 connector, comprising: a mainboard for connecting to strands of a cable, and a plurality of insulation displacement contacts for receiving the strands, the insulation displacement contacts being arranged in two rows (14, 16) on one side of the mainboard, the two rows (14, 16) being positioned at a distance from one another in the longitudinal direction of the cable to be connected, and the RJ45 connector comprising a guide device so as to guide the strands for connecting to the row of insulation displacement contacts lying furthest away from the end of the cable, characterized in that the guide device includes ramps designed in an arc shape for guiding the strands. a mainboard for connecting to strands of a cable, and a plurality of insulation displacement contacts for receiving the strands, the insulation displacement contacts being arranged in two rows (14, 16) on one side of the mainboard, the two rows (14, 16) being positioned at a distance from one another in the longitudinal direction of the cable to be connected, and the RJ45 connector comprising a guide device so as to guide the strands for connecting to the row of insulation displacement contacts lying furthest away from the end of the cable, characterized in that the guide device includes ramps designed in an arc shape for guiding the strands.
A wave spring (1A, 1B) comprising: an annular body in which crests and valleys are alternately and continuously formed in a circumferential direction, wherein at least a portion of the annular body in the circumferential direction is joined by welding, characterised in that the portion joined by welding of the annular body is a flat portion extending in a plane orthogonal to a center axis of the annular body, and wherein the flat portion is positioned between the crests and the valleys in an axial direction along the center axis. an annular body in which crests and valleys are alternately and continuously formed in a circumferential direction, wherein at least a portion of the annular body in the circumferential direction is joined by welding, characterised in that the portion joined by welding of the annular body is a flat portion extending in a plane orthogonal to a center axis of the annular body, and wherein the flat portion is positioned between the crests and the valleys in an axial direction along the center axis.
A method of transferring power between a wireless power source and a wireless power receiver, the method comprising: setting an impedance and an output power level for the source; and determining whether the source is operating in a capacitive mode; characterised by: determining a temporal offset value between current and voltage waveforms in the source; comparing the temporal offset value to a first threshold value; and determining that the source is operating in a capacitive mode if the temporal offset value is less than the first threshold value; and reducing (1118; 1408) the output power level if the source is operating in a capacitive mode. setting an impedance and an output power level for the source; and determining whether the source is operating in a capacitive mode; characterised by: determining a temporal offset value between current and voltage waveforms in the source; comparing the temporal offset value to a first threshold value; and determining that the source is operating in a capacitive mode if the temporal offset value is less than the first threshold value; and determining a temporal offset value between current and voltage waveforms in the source; comparing the temporal offset value to a first threshold value; and determining that the source is operating in a capacitive mode if the temporal offset value is less than the first threshold value; and reducing (1118; 1408) the output power level if the source is operating in a capacitive mode.
An apparatus for cleaning a surface of a pool comprising: a robotic pool cleaner having a housing including an upper portion disposed over a lower portion to define an interior chamber therein, the lower portion including a water inlet and the upper portion having a water discharge port; rotatably-mounted supports supporting and guiding the cleaner along the pool surface; a filter assembly for filtering water drawn through the water inlet; a water pump assembly drawing water and debris from beneath the cleaner through the water inlet, the debris being retained by the filter assembly and the filtered water being discharged through the water discharge port during a cleaning operation; and a buoy assembly tethered to the cleaner via a retractable cable; characterized in that the apparatus further comprises a spool and a spool rotation mechanism to release and retract the cable. a robotic pool cleaner having a housing including an upper portion disposed over a lower portion to define an interior chamber therein, the lower portion including a water inlet and the upper portion having a water discharge port; rotatably-mounted supports supporting and guiding the cleaner along the pool surface; a filter assembly for filtering water drawn through the water inlet; a water pump assembly drawing water and debris from beneath the cleaner through the water inlet, the debris being retained by the filter assembly and the filtered water being discharged through the water discharge port during a cleaning operation; and a buoy assembly tethered to the cleaner via a retractable cable; characterized in that the apparatus further comprises a spool and a spool rotation mechanism to release and retract the cable.
A receiver circuit for an ultrasonic flow meter, the receiver circuit comprising a receiving operational amplifier, characterized in that: the receiver circuit being arranged so that a first receiver impedance between a receiving ultrasonic transducer (TR1, TR2) and an output of the receiving operational amplifier is less than or equal to a second receiver impedance between the receiving ultrasonic transducer (TR1, TR2) and an inverting input of said receiving operational amplifier.
System for transmitting energy and data, comprising a control unit connected to network phases, characterised in that the system has a phase-failure detection means having bistable multivibrator circuits, wherein each bistable multivibrator circuit has an input for setting and an input for resetting, wherein one of the inputs is connected to a digitisation means that digitises the positive half-waves of a particular network phase, wherein the other input is connected to a digitisation means that digitises the negative half-waves of a particular network phase, wherein the effective value of the output voltage of the bistable multivibrator circuit is compared with a threshold by means of a comparison means in order to detect a phase failure.
A method for improving reliability in semi-persistent scheduling activation/reactivation, comprising: a user agent storing a first data element from an access device specifying at least one first transport block size; the user agent deriving a second transport block size based on a second data element received from the access device; the user agent comparing the first transport block size with the second transport block size; and when the first transport block size differs from the second transport block size, the user agent ignoring the received semi-persistent scheduling activation/reactivation data. a user agent storing a first data element from an access device specifying at least one first transport block size; the user agent deriving a second transport block size based on a second data element received from the access device; the user agent comparing the first transport block size with the second transport block size; and when the first transport block size differs from the second transport block size, the user agent ignoring the received semi-persistent scheduling activation/reactivation data.
An active impedance injection module comprising a transformer, the transformer having a transformer core and a multiple-turn secondary winding on the transformer core; the multiple-turn secondary winding being connected to a converter that generates and injects voltages at a phase angle for injection of an inductive or a capacitive impedance onto a high-voltage transmission line; the injection module comprising a controller for controlling the converter; the multiple-turn secondary winding being isolated from ground; characterized in that the injection module is adapted for being directly connected in series to the high voltage transmission line by adapting a primary winding of the transformer for cutting the high-voltage transmission line and splicing the primary winding of the transformer in series with the high voltage transmission line, the transformer core is a non-gapped transformer core with a high-permeability core material, and the primary winding is a multiple-turn primary winding increasing the voltage injection of the active impedance injection module.