mhurhangee/ep-ind-claims huggingface dataset:
A portable data terminal having a housing in surrounding relation to one or more components for use in outputting decoded data, said portable data terminal comprising: a memory; a control circuit communicatively coupled to the memory; an encoded information reader unit responsive to a signal from the control circuit, the encoded information reader unit comprising a data collection hardware device for use in reading decodable indicia and outputting of decoded data; characterized by a location data providing unit configured to output location data; an interface bus communicatively coupled to one or more of the memory, the control circuit, and the encoded information reader unit; an environmentally responsive device communicating with the interface bus, the environmentally responsive device comprising a sensing portion and a protective cap disposed over the sensing portion and configured in a manner that permits the sensing portion to be in communication with an environment external to the housing in a manner for capturing an environmental reading for the environment; and wherein the decodable indicia is a barcode, and the portable data terminal is configured to operate in a plurality of modes comprising a first operating mode in which the portable data terminal captures the environmental reading at a first configurable time and a second configurable time that is different from the first configurable time, and that the device is configured, in the first operating mode, to collect the environmental reading from the sensing portion and location data from the location data providing unit in response to said data collection hardware device decoding the barcode, to store the environmental reading, the location data, and the decoded barcode information in memory, the decoded barcode information and the environmental reading correlated to the location data. a memory; a control circuit communicatively coupled to the memory; an encoded information reader unit responsive to a signal from the control circuit, the encoded information reader unit comprising a data collection hardware device for use in reading decodable indicia and outputting of decoded data; a location data providing unit configured to output location data; an interface bus communicatively coupled to one or more of the memory, the control circuit, and the encoded information reader unit; an environmentally responsive device communicating with the interface bus, the environmentally responsive device comprising a sensing portion and a protective cap disposed over the sensing portion and configured in a manner that permits the sensing portion to be in communication with an environment external to the housing in a manner for capturing an environmental reading for the environment; and wherein the decodable indicia is a barcode, and the portable data terminal is configured to operate
Liquid dispensing device for a high pressure cleaning device, comprising a liquid inlet, which is connectable to a pump outlet of the high pressure cleaning device by way of a pressure conduit for pressurized cleaning liquid, a liquid outlet for dispensing the cleaning liquid in the direction of an object to be cleaned, an input apparatus, a display apparatus, and a control unit for controlling the high pressure cleaning device, wherein the control unit comprises a storage member in which control parameters can be stored, and wherein at least one control parameter can be output from the control unit to the high pressure cleaning device, characterized in that the liquid dispensing device comprises an object detection unit for contactlessly detecting the object to be cleaned, wherein object information corresponding to the object to be cleaned is transmittable from the object detection unit to the control unit and is processable by the control unit for providing at least one control parameter adapted to the object to be cleaned.
A switchable autostereoscopic display device having 2D and 3D modes of operation, comprising: a display panel having an array of display pixels for producing a display, the display pixels being arranged in rows and columns; and a lens arrangement comprising a lens element arrangement and a replica structure, characterized in that one of the lens element arrangement and the replica structure is formed of a blue phase LC material and the other is formed of a non-switchable isotropic material, the lens arrangement being for directing the output from different pixels to different spatial positions to enable an autostereoscopic image to be viewed, and in that the device further comprises a controller adapted to switch the blue phase material to an isotropic state for the 2D mode and to a birefringent state for the 3D mode, and wherein in the 2D mode, the refractive index of the blue phase material matches the refractive index of the non-switchable isotropic material. a display panel having an array of display pixels for producing a display, the display pixels being arranged in rows and columns; and a lens arrangement comprising a lens element arrangement and a replica structure, characterized in that one of the lens element arrangement and the replica structure is formed of a blue phase LC material and the other is formed of a non-switchable isotropic material, the lens arrangement being for directing the output from different pixels to different spatial positions to enable an autostereoscopic image to be viewed, and in that the device further comprises a controller adapted to switch the blue phase material to an isotropic state for the 2D mode and to a birefringent state for the 3D mode, and wherein in the 2D mode, the refractive index of the blue phase material matches the refractive index of the non-switchable isotropic material.
A data transmission method, applied to a terminal device, comprising: receiving a physical downlink shared channel, PDSCH; characterized in that the method further comprises: mapping, at least to a first target transmission position, hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback information corresponding to a PDSCH with repetition transmissions, wherein the first target transmission position is a position corresponding to a last transmission of the repetition transmissions of the PDSCH in a semi-static HARQ-ACK codebook. receiving a physical downlink shared channel, PDSCH; characterized in that the method further comprises: mapping, at least to a first target transmission position, hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback information corresponding to a PDSCH with repetition transmissions, wherein the first target transmission position is a position corresponding to a last transmission of the repetition transmissions of the PDSCH in a semi-static HARQ-ACK codebook.
Built-in element, preferably built-in light, having at least two holding bodies by means of which the built-in element can be held in an installation opening of a built-in element receptacle, wherein the holding bodies have an external dimension, wherein the external dimension of the holding bodies is variable, further having a guide body with respect to which the holding bodies are variably positionable, with the result that the external dimension of the holding bodies is variable, wherein each holding body has a rail, wherein the two rails are variably positionable in a first horizontal direction, characterized by a basic body against which the guide body can be pressed by means of one or more fastening means, and the holding bodies can be fixed thereby, wherein each rail is variably positionable in a corresponding rail guide of the guide body, and wherein the two rails are arranged so as to be offset parallel to one another in a second horizontal direction perpendicular to the first horizontal direction.
A sensing element comprising: a first sensing part extending in a first direction; a second sensing part; a third sensing part; a first metal sheet; and a second metal sheet, the first metal sheet extending from a first end of the first sensing part in a second direction that is perpendicular to the first direction, and the second metal sheet extending from a second end of the first sensing part in the second direction, wherein inner sides of the first metal sheet, the second metal sheet and the first sensing part define a rectangular region and the rectangular region is reserved for accommodating a T-shaped antenna element to be disposed within the rectangular region, wherein the second sensing part and the third sensing part each comprise portions that extend in the second direction, wherein the first sensing apart, the second sensing part, and the third sensing part are connected together to serve as a sensor, wherein the first sensing part is separated into multiple pieces, including a first gap and a second gap along the first direction, wherein the second sensing part and the third sensing part join the adjacent two pieces respectively at the first gap and the second gap. a first sensing part extending in a first direction; a second sensing part; a third sensing part; a first metal sheet; and a second metal sheet, the first metal sheet extending from a first end of the first sensing part in a second direction that is perpendicular to the first direction, and the second metal sheet extending from a second end of the first sensing part in the second direction, wherein inner sides of the first metal sheet, the second metal sheet and the first sensing part define a rectangular region and the rectangular region is reserved for accommodating a T-shaped antenna element to be disposed within the rectangular region, wherein the second sensing part and the third sensing part each comprise portions that extend in the second direction, wherein the first sensing apart, the second sensing part, and the third sensing part are connected together to serve as a sensor, wherein the first sensing part is separated into multiple pieces, including a first gap and a second gap along the first direction, wherein the second sensing part and the third sensing part join the adjacent two pieces respectively at the first gap and the second gap.
A coalescent composition comprising at least one glycol ether of the formula R1(O-CH 2 -CH(CH 3)) n -OH, wherein R1 is an alkyl group of at least 3 carbon atoms, and n has an average value of from 4 to 6, wherein n = 4 for at least 60% by weight of the glycol ethers, and no more than 15% by weight of the glycol ethers have an n value of 3 or less.
A powered toothbrush comprising: a handle having a neck; a head mounted to the neck and having a first surface and an opposed second surface; at least one fixed tuft block (28, 30) mounted to the head in a fixed orientation and having a plurality of tooth cleaning elements extending outwardly away from the first surface; a movable tuft block having a plurality of tooth cleaning elements extending outwardly away from the first surface; and a drive assembly operably connected to the movable tuft block to move the movable tuft block with respect to each fixed tuft block (28,30); characterised in that the movable tuft block is flexibly connected to each fixed tuft block (28, 30) by a plurality of flexible bridge members. a handle having a neck; a head mounted to the neck and having a first surface and an opposed second surface; at least one fixed tuft block (28, 30) mounted to the head in a fixed orientation and having a plurality of tooth cleaning elements extending outwardly away from the first surface; a movable tuft block having a plurality of tooth cleaning elements extending outwardly away from the first surface; and a drive assembly operably connected to the movable tuft block to move the movable tuft block with respect to each fixed tuft block (28,30);
A method of encoding a picture of a video stream of multiple pictures (10, 40, 42, 50), said method comprising: determining, for said picture, at least one reference picture (40, 42) of said multiple pictures (10, 40, 42, 50) as encoding reference for said picture; providing, for each reference picture (40, 42) among said at least one reference picture (40, 42), a picture identifier identifying said reference picture (40, 42) among said at least one reference picture (40, 42), generating, based on said at least one picture identifier, buffer description information defining said at least one reference picture (40, 42); inserting said buffer description information in a data structure in the encoded representation of said picture, wherein all reference pictures present in a decoded picture buffer (530,650) and not being associated with any of said at least one picture identifier determined based on said buffer description information are to be marked as unused for reference; characterized in that decoded pictures to be used as reference pictures during decoding are specified in an absolute and explicit way independently of an encoded representation of previous pictures in the video stream. determining, for said picture, at least one reference picture (40, 42) of said multiple pictures (10, 40, 42, 50) as encoding reference for said picture; providing, for each reference picture (40, 42) among said at least one reference picture (40, 42), a picture identifier identifying said reference picture (40, 42) among said at least one reference picture (40, 42), generating, based on said at least one picture identifier, buffer description information defining said at least one reference picture (40, 42); inserting said buffer description information in a data structure in the encoded representation of said picture, wherein all reference pictures present in a decoded picture buffer (530,650) and not being associated with any of said at least one picture identifier determined based on said buffer description information are to be marked as unused for reference; characterized in that decoded pictures to be used as reference pictures during decoding are specified in an absolute and explicit way independently of an encoded representation of previous pictures in the video stream.
A drum mounting clamp for releasable mounting of a mounting rod to a musical drum body, the drum mounting clamp comprising: a mounting base for mounting upon the musical drum body; and a mounting clamp mounted upon the mounting base, said mounting clamp comprising a clamp base and a clamp element, the clamp base and clamp element being reversibly adjustable between a first, spaced position for receiving the mounting rod and a second, clamping position for securely grasping the mounting rod, characterized in that the mounting clamp is configured for releasable mounting the mounting rod to the musical drum body and wherein the drum mounting clamp is constructed such that it can replace and act in place of one of the drum lugs of a drum. a mounting base for mounting upon the musical drum body; and a mounting clamp mounted upon the mounting base, said mounting clamp comprising a clamp base and a clamp element, the clamp base and clamp element being reversibly adjustable between a first, spaced position for receiving the mounting rod and a second, clamping position for securely grasping the mounting rod,
A method for adjusting the position of a harvester header comprising: receiving, at a control system, a plurality of output signals from a plurality of transducers; determining, by the control system, a tilt adjustment signal and a rate for transmitting the tilt adjustment signal based upon the output signals; transmitting, by the control system and at the determined rate, the tilt adjustment signal to a tilt adjustment mechanism (32, 39) operably connected to the control system; and adjusting, by the tilt adjustment mechanism (32, 39), the lateral tilt of the harvester header in response to the tilt adjustment signal, characterized in that: the determining of the tilt adjustment signal and the rate of the tilt adjustment signal; being such that a responsiveness of the tilt adjustment increases and a sensitivity of the tilt adjustment decreases with an increasing forward speed of the harvester. receiving, at a control system, a plurality of output signals from a plurality of transducers; determining, by the control system, a tilt adjustment signal and a rate for transmitting the tilt adjustment signal based upon the output signals; transmitting, by the control system and at the determined rate, the tilt adjustment signal to a tilt adjustment mechanism (32, 39) operably connected to the control system; and adjusting, by the tilt adjustment mechanism (32, 39), the lateral tilt of the harvester header in response to the tilt adjustment signal, characterized in that: the determining of the tilt adjustment signal and the rate of the tilt adjustment signal; being such that a responsiveness of the tilt adjustment increases and a sensitivity of the tilt adjustment decreases with an increasing forward speed of the harvester. the determining of the tilt adjustment signal and the rate of the tilt adjustment signal; being such that a responsiveness of the tilt adjustment increases and a sensitivity of the tilt adjustment decreases with an increasing forward speed of the harvester.
An electronic device (101, 200, 300, 400), comprising: a camera module (180, 212, 213, 440); a speaker module disposed in a first direction with respect to the camera module (180, 212, 213, 440); a first support comprising a speaker support configured to support the speaker module and a camera support configured to support the camera module (180, 212, 213, 440); a second support having at least a portion coupled to the first support; a sound hole (207, 214, 480) connected to the outside of the electronic device (101, 200, 300, 400); a first sound outlet positioned in the first direction with respect to the camera module (180, 212, 213, 440) and connected to the sound hole (207, 214, 480); a second sound outlet positioned in a second direction opposite to the first direction with respect to the camera module (180, 212, 213, 440) and connected to the sound hole (207, 214, 480); a first sound channel (610, 1101) configured to connect the speaker module and the first sound outlet; and a second sound channel (620, 1102) configured to connect the speaker module and the second sound outlet, wherein the second sound channel (620, 1102) comprises a space provided between the camera support of the first support and the second support. a camera module (180, 212, 213, 440); a speaker module disposed in a first direction with respect to the camera module (180, 212, 213, 440); a first support comprising a speaker support configured to support the speaker module and a camera support configured to support the camera module (180, 212, 213, 440); a second support having at least a portion coupled to the first support; a sound hole (207, 214, 480) connected to the outside of the electronic device (101, 200, 300, 400); a first sound outlet positioned in the first direction with respect to the camera module (180, 212, 213, 440) and connected to the sound hole (207, 214, 480); a second sound outlet positioned in a second direction opposite to the first direction with respect to the camera module (180, 212, 213, 440) and connected to the sound hole (207, 214, 480); a first sound channel (610, 1101) configured to connect the speaker module and the first sound outlet; and a second sound channel (620, 1102) configured to connect the speaker module and the second sound outlet, wherein the second sound channel (620, 1102) comprises a space provided between the camera support of the first support and the second support.
A method for managing compressed data transaction sizes in a system on a chip, "SoC", in a portable computing device, "PCD", characterized in that the method comprises: determining lengths of compressed data tiles associated in a group, wherein the compressed data tiles are comprised within a compressed image file; determining, based on the determined lengths, whether to aggregate the compressed data tiles into a single multi-tile transaction; aggregating the compressed data tiles into a single multi-tile transaction in response to a determination to aggregate the compressed data tiles into a single multi-tile transaction if a sum of the lengths of the compressed data tiles is smaller than a footprint of one uncompressed data tile in a memory component; generating a metadata file in association with the single multi-tile transaction, wherein the metadata file identifies the transaction as a multi-tile transaction and provides offset data to distinguish data associated with the compressed data tiles; and writing the single multi-tile transaction to the memory component in a location representing a footprint of a first uncompressed data tile rather than to both the location representing the footprint of the first uncompressed data tile and a location representing the footprint of a second uncompressed data tile. determining lengths of compressed data tiles associated in a group, wherein the compressed data tiles are comprised within a compressed image file; determining, based on the determined lengths, whether to aggregate the compressed data tiles into a single multi-tile transaction; aggregating the compressed data tiles into a single multi-tile transaction in response to a determination to aggregate the compressed data tiles into a single multi-tile transaction if a sum of the lengths of the compressed data tiles is smaller than a footprint of one uncompressed data tile in a memory component; generating a metadata file in association with the single multi-tile transaction, wherein the metadata file identifies the transaction as a multi-tile transaction and provides offset data to distinguish data associated with the compressed data tiles; and writing the single multi-tile transaction to the memory component in a location representing a footprint of a first uncompressed data tile rather than to both the location representing the footprint of the first uncompressed data tile and a location representing the footprint of a second uncompressed data tile.
A modulator (10,20), for use in a switching amplifier, the modulator comprising: a pulse generator, for supplying a composite pulse stream, wherein the composite pulse stream contains: positive pulses (42a, 42b, 42c 42d), having positive mean amplitudes and having a controllable first pulse frequency, and negative pulses (46a, 46b, 46c, 46d), having negative mean amplitudes and having a second pulse frequency that is controllable independently of the first pulse frequency characterised in that the positive pulses form a continuous positive pulse stream, in that the negative pulses form a continuous negative pulse stream and in that the composite pulse stream is a combination of the continuous positive pulse stream and the continuous negative pulse stream. positive pulses (42a, 42b, 42c 42d), having positive mean amplitudes and having a controllable first pulse frequency, and negative pulses (46a, 46b, 46c, 46d), having negative mean amplitudes and having a second pulse frequency that is controllable independently of the first pulse frequency characterised in that the positive pulses form a continuous positive pulse stream, in that the negative pulses form a continuous negative pulse stream and in that the composite pulse stream is a combination of the continuous positive pulse stream and the continuous negative pulse stream.