mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless transmitting method, comprising: encoding a data packet to be transmitted from a source station to a destination station in a wireless local area network, wherein the data packet comprises one or more signaling fields, hereinafter SIG fields, and a data field; inserting a Dual Carrier Modulation, hereinafter DCM, indication bit in a signaling field that indicates whether DCM is applied in one of the fields; modulating encoded bits of a field over a first sub-carrier using a first mapping scheme, and modulating the same encoded bits over a second sub-carrier using a second mapping scheme if DCM is applied for the field; and transmitting the data packet to the destination station, characterized in that the data packet is a multi-user, hereinafter MU, PPDU having a SIG-A field followed by a SIG-B field , wherein the SIG-A field comprises the DCM indication bit indicating whether DCM is applied for the SIG-B field . encoding a data packet to be transmitted from a source station to a destination station in a wireless local area network, wherein the data packet comprises one or more signaling fields, hereinafter SIG fields, and a data field; inserting a Dual Carrier Modulation, hereinafter DCM, indication bit in a signaling field that indicates whether DCM is applied in one of the fields; modulating encoded bits of a field over a first sub-carrier using a first mapping scheme, and modulating the same encoded bits over a second sub-carrier using a second mapping scheme if DCM is applied for the field; and transmitting the data packet to the destination station, characterized in that the data packet is a multi-user, hereinafter MU, PPDU having a SIG-A field followed by a SIG-B field , wherein the SIG-A field comprises the DCM indication bit indicating whether DCM is applied for the SIG-B field .
A terminal comprising: a receiver , configured to receive first downlink DL, control information DCI, and a second DCI; and circuitry , configured to demultiplex a DL data signal from a received signal, using the first DCI and the second DCI, wherein the receiver is configured to identify a second DCI size in accordance with a modulation and coding scheme, MCS, for the DL data signal, indicated by the first DCI. a receiver , configured to receive first downlink DL, control information DCI, and a second DCI; and circuitry , configured to demultiplex a DL data signal from a received signal, using the first DCI and the second DCI, wherein the receiver is configured to identify a second DCI size in accordance with a modulation and coding scheme, MCS, for the DL data signal, indicated by the first DCI.
An insert device for a destination part made of molded or thermoformed synthetic material, comprising an insert , of the attachment insert type or the like, comprising a base in the form of a synthetic material pad overmolded onto the insert , said base comprising at least one application face provided, projecting therefrom, with a protuberance of smaller general cross-section than that of said base , characterized in that the protuberance has a polygonal cross-section , at least one side of which defines a bearing facet designed, in cooperation with a suitable bearing facet of an opening or recess in a destination part , to define means for indexing and rotationally locking the insert device relative to said part .
Electronic parking brake system of a motor vehicle, comprising a brake actuator which can be moved to a braking position in order to act upon a wheel of the motor vehicle with a braking force, a manually operated actuating element for a user to control the brake actuator , a control unit that communicates electronically with the actuating element for actuating a control valve connected to the brake actuator , wherein the control unit comprises an interface for communicating with an external control system which comprises sensors and/or actors that define the operating condition of the motor vehicle as well as computation instructions for evaluating a data packet sent by the control system for actuating the brake actuator of the parking brake system when the data packet is evaluated correspondingly, characterised in that the motor vehicle comprises a tractor and a trailer, and by way of the external control system via the control unit , independently of one another, a service brake of the trailer which is part of the parking brake system and a parking brake of the tractor which is part of the parking brake system can be actuated.
An information protection method for a micro control unit, MCU, chip to protect programs from being stolen by users and cooperative companies, wherein, the MCU chip comprises an instruction bus, a data bus, a flash controller and a user area of a flash memory; the flash controller is used to divide the user area into a first sub-area and a second sub-area and programs of the cooperative companies are written separately in their own sub-areas; wherein the MCU chip comprises a central processing unit, CPU, with a Harvard architecture; the method comprising: when the instruction bus accesses the user area, determining whether the instruction bus accesses the first sub-area; if yes, entering the first sub-area working state; in the first sub-area working state, allowing the instruction bus to access the user area; allowing the data bus to access the first sub-area but prohibiting the data bus from accessing the second sub-area; when the flash controller is in the first sub-area working state, if the instruction bus accesses the second sub-area, entering a transition state; in the transition state, temporarily prohibiting the instruction bus from accessing the user area, allowing the data bus to access the first sub-area, but prohibiting the data bus from accessing the second sub-area; determining whether the time in the transition state reaches a preset waiting time set to ensure the data accessing of the first working sub-area is completely accomplished; if yes, entering the second sub-area working state, in the second sub-area working state, allowing the instruction bus to access the user area, prohibiting the data bus from accessing the first sub-area, but allowing the data bus to access the second sub-area. when the instruction bus accesses the user area, determining whether the instruction bus accesses the first sub-area; if yes, entering the first sub-area working state; in the first sub-area working state, allowing the instruction bus to access the user area; allowing the data bus to access the first sub-area but prohibiting the data bus from accessing the second sub-area; when the flash controller is in the first sub-area working state, if the instruction bus accesses the second sub-area, entering a transition state; in the transition state, temporarily prohibiting the instruction bus from accessing the user area, allowing the data bus to access the first sub-area, but prohibiting the data bus from accessing the second sub-area; determining whether the time in the transition state reaches a preset waiting time set to ensure the data accessing of the first working sub-area is completely accomplished; if yes, entering the second sub-area working state, in the second sub-area working state, allowing the instruction bus to access the user area, prohibiting the data bus from accessing the first sub-area, but allowing the data bus to access the second sub-area.
A urea-SCR system for reducing nitrogen oxide emissions in a flue gas of a power plant comprising SOx at a concentration of 20 ppm or greater, which system comprising: (a) a solution comprising urea and at least one NO 2 forming compound, wherein the at least one NO 2 forming compound comprises a metal salt of a nitrate, which is an alkaline earth metal nitrate, iron nitrate, manganese nitrate or mixtures thereof; (b) an SCR catalyst; and (c) a device for introducing the solution into a stream of the flue gas prior to the flue gas coming into contact with the SCR catalyst, wherein the urea SCR system is at temperatures in the range of 200 to 350 °C.
A method for efficient use of radio resources for secure transmission of multicast data streams in a mobile satellite system characterised by comprising: receiving, by a wireless gateway of a communications network , a message packet from at least one host terminal , wherein the message packet is destined for a multicast control node of the communications network, and the message packet includes a multicast session identifier that identifies a multicast session being joined by the host terminal, wherein the wireless gateway updates a group membership by adding the host terminal to a group of the multicast session, if the host terminal is joining a previously set up multicast session, wherein the wireless gateway schedules periodic channel quality feedback from the host terminal and determines a modulation, coding scheme, and power based on the channel quality feedback to reach the host terminal according to a modulation and coding scheme, as well as power to reach the worst-case user; encapsulating, by the wireless gateway , the message packet of each host terminal as a transport layer unicast tunnel packet, including at least one source identifier of the host terminal and at least one destination identifier of the multicast control node ; and transmitting the transport layer unicast tunnel packet to the multicast control node , wherein the transport layer unicast tunnel packet is configured to direct the multicast control node to bind to a multicast distribution tree associated with the multicast session. receiving, by a wireless gateway of a communications network , a message packet from at least one host terminal , wherein the message packet is destined for a multicast control node of the communications network, and the message packet includes a multicast session identifier that identifies a multicast session being joined by the host terminal, wherein the wireless gateway updates a group membership by adding the host terminal to a group of the multicast session, if the host terminal is joining a previously set up multicast session, wherein the wireless gateway schedules periodic channel quality feedback from the host terminal and determines a modulation, coding scheme, and power based on the channel quality feedback to reach the host terminal according to a modulation and coding scheme, as well as power to reach the worst-case user; encapsulating, by the wireless gateway , the message packet of each host terminal as a transport layer unicast tunnel packet, including at least one source identifier of the host terminal and at least one destination identifier of the multicast control node ; and transmitting the transport layer unicast tunnel packet to the multicast control node , wherein the transport layer unicast tunnel packet is configured to direct the multicast control node to bind to a multicast distribution tree associated with the multicast session.
A slip resistant footwear having an outsole, said footwear comprising: an upper secured to an outsole; and the outsole including a forefoot portion , a midfoot portion and a heel portion , at least one of said portions , , including a tread portion constructed from a polymeric material, said tread portion being positioned on the forefoot portion and being particularly suited for channeling liquid from a floor surface, said tread portion including a plurality of lugs , each lug comprising a pedestal at a proximal end thereof and a plurality of protuberances at a distal end thereof, said pedestals being arranged in a generally rectangular array and being separated by grooves between adjacent lugs , said protuberances on a said lug being arranged in a generally rectangular array and adjacent said protuberances being separated by sipes between adjacent said protuberances on a respective said lug , said sipes dividing said lug into a 5 by 5 array, where two corner protuberances replace three corner protuberances , said sipes being in flow communication with adjacent grooves , said grooves being deeper than said sipes , wherein two of said protuberances at each corner of the array are separated by a diagonal sipe connecting interior sipes to the grooves . an upper secured to an outsole; and the outsole including a forefoot portion , a midfoot portion and a heel portion , at least one of said portions , , including a tread portion constructed from a polymeric material, said tread portion being positioned on the forefoot portion and being particularly suited for channeling liquid from a floor surface, said tread portion including a plurality of lugs , each lug comprising a pedestal at a proximal end thereof and a plurality of protuberances at a distal end thereof, said pedestals being arranged in a generally rectangular array and being separated by grooves between adjacent lugs , said protuberances on a said lug being arranged in a generally rectangular array and adjacent said protuberances being separated by sipes between adjacent said protuberances on a respective said lug , said sipes dividing said lug into a 5 by 5 array, where two corner protuberances replace three corner protuberances , said sipes being in flow communication with adjacent grooves , said grooves being deeper than said sipes , wherein two of said protuberances at each corner of the array are separated by a diagonal sipe connecting interior sipes to the grooves .
A flexible tube container comprising tube head and a skirt formed from a multi-layer polymeric material produced as a blown film, the skirt comprising a longitudinal weld or join , the multi-layer polymeric material comprising a thickness of between 200 and 400 micrometers, said multi-layer polymeric material comprising two polyethylene (PE) based surface layers , at least two non-metallic barrier layers , and a plurality of PE based inner layers between said surface layers , wherein the multi-layer polymeric material comprises pigments in several inner layers .
An elevator system , comprising: at least one guide rail ; a plurality of safeties to respectively selectively impede or permit movement of an elevator car along a corresponding guide rail ; first and second electronic safety actuators (ESAs) respectively coupled to at least one corresponding safety , the first ESA comprising a first braking surface located a first distance (D) from the corresponding guide rail , the second ESA comprising a second braking surface located a second distance (D) from the corresponding guide rail , and the first and second braking surfaces deployable across the first and second distances (D), respectively, to contact the corresponding guide rails ; characterized by : a sensing system to determine the first and second distances (D); and a control system to deploy the first and second braking surfaces toward the corresponding guide rails in response to an over-speed or an over-acceleration condition with synchronization based at least in part on the first and second distances (D). at least one guide rail ; a plurality of safeties to respectively selectively impede or permit movement of an elevator car along a corresponding guide rail ; first and second electronic safety actuators (ESAs) respectively coupled to at least one corresponding safety , the first ESA comprising a first braking surface located a first distance (D) from the corresponding guide rail , the second ESA comprising a second braking surface located a second distance (D) from the corresponding guide rail , and the first and second braking surfaces deployable across the first and second distances (D), respectively, to contact the corresponding guide rails ; characterized by : a sensing system to determine the first and second distances (D); and a control system to deploy the first and second braking surfaces toward the corresponding guide rails in response to an over-speed or an over-acceleration condition with synchronization based at least in part on the first and second distances (D). a sensing system to determine the first and second distances (D); and a control system to deploy the first and second braking surfaces toward the corresponding guide rails in response to an over-speed or an over-acceleration condition with synchronization based at least in part on the first and second distances (D).
A method of forming a workpiece by stamping a sheet metal blank , comprising the following steps: (a) placing the sheet metal blank on a stamping forming tool comprising a die and a punch capable of engaging with the die ; (b) the die and the punch are brought together in a working direction to form the workpiece ; in step (a), the sheet blank comprising at least one tab with at least one edge, and in step (b), the or each of the tabs being bent between the die and the punch and holding the sheet blank, the sheet blank being generally elongated in a longitudinal direction, the or each of the edges comprising the tab or tabs being at one end, in said direction, of the sheet blank , the tooling comprising at least one blank clamp disposed laterally at the edge One of the punch and of the die and capable of clamping the sheet blank with the other of the punch and of the die , the blank clamp or clamps being slidably mounted against an elastic force, in step (b), the or at least one of the blank clamps clamping the longitudinal edges of the elongated sheet blank , characterized in that in step (b), the or at least one of the blank clamps clamps the front tab or tabs It is folded between the die and the punch . (a) placing the sheet metal blank on a stamping forming tool comprising a die and a punch capable of engaging with the die ; (b) the die and the punch are brought together in a working direction to form the workpiece ;
A computer-implemented method of rendering a sub-portion of a digital image file on a graphical user interface, GUI, comprising: encoding a digital image file into an adaptable scalable texture compression (ASTC) file comprising a single file ; dividing, logically, the ASTC file into a sub-image comprising a sub-portion of the ASTC file , the dividing comprising separating a block from a plurality of blocks that form a part of the ASTC file (2C02), wherein the block comprises a sub-portion of digital image data contained in the ASTC file; copying the sub-image to a computer memory ; associating an ASTC header with the sub-image in the computer memory ; storing a combination of the ASTC header and the sub-image in the computer memory as a new ASTC file ; receiving a request to render the sub-portion of the digital image file (2D02); identifying the new ASTC file as corresponding to the sub-portion of the digital image file (2D04); and rendering the new ASTC file on the GUI (2D06). encoding a digital image file into an adaptable scalable texture compression (ASTC) file comprising a single file ; dividing, logically, the ASTC file into a sub-image comprising a sub-portion of the ASTC file , the dividing comprising separating a block from a plurality of blocks that form a part of the ASTC file (2C02), wherein the block comprises a sub-portion of digital image data contained in the ASTC file; copying the sub-image to a computer memory ; associating an ASTC header with the sub-image in the computer memory ; storing a combination of the ASTC header and the sub-image in the computer memory as a new ASTC file ; receiving a request to render the sub-portion of the digital image file (2D02); identifying the new ASTC file as corresponding to the sub-portion of the digital image file (2D04); and rendering the new ASTC file on the GUI (2D06).
A method for repairing or producing an endless belt made from a belt with a belt body , wherein the belt body has a first surface and a second surface , wherein the first surface and the second surface are connected to each other by means of side surfaces , wherein each of the side surfaces is smaller than each of the surfaces , wherein at least one of the surfaces of the belt is coated with a coating having at least one layer , characterized in that in a step i) a recess , in particular a gap-type or hole-type recess, interrupting the coating is created around a region to be processed of the belt , which recess is at least partially delimited by opposite sections of the at least one coating , wherein toward the middle of the recess , the coating is slanted and/or staggered, in each case forming one upper side and steps adjoining it and having front sides, wherein in the case of a staggering, a level of the upper sides of the steps decreases from an edge of the recess towards a middle of the recess with respect to the surface of the belt body , wherein after processing the belt in the region to be processed, in a step ii) the recess is at least partially filled up with at least one material of the same type as the at least one layer of the coating , wherein a spraying method is used for filling up the recess with the material of the coating.
An in vivo gelling ophthalmic pre-formulation comprising: (a) at least one first compound comprising more than one nucleophilic group, wherein the first compound is pentaerythritol polyethylene glycol amine (4ARM-PEG-NH2), hexaglycerol polyethylene glycol amine (8ARM-PEG-NH2), pentaerythritol polyethylene glycol amino acetate (4ARM-PEG-AA) or hexaglycerol polyethylene glycol amino acetate (8ARM-PEG-AA); (b) at least one second compound comprising more than one electrophilic group, wherein the second compound is pentaerythritol polyethylene glycol succinimidyl glutaramide (4ARM-PEG-SGA) or hexaglycerol polyethylene glycol succinimidyl glutarate (8ARM-PEG-SG); (c) an aqueous buffer in the pH range of 6.0 to 8.5; and (d) a viscosity enhancer; wherein the in vivo gelling ophthalmic formulation at least in part polymerizes and/or gels at a target site of an eye to form a biocompatible retinal patch. (a) at least one first compound comprising more than one nucleophilic group, wherein the first compound is pentaerythritol polyethylene glycol amine (4ARM-PEG-NH2), hexaglycerol polyethylene glycol amine (8ARM-PEG-NH2), pentaerythritol polyethylene glycol amino acetate (4ARM-PEG-AA) or hexaglycerol polyethylene glycol amino acetate (8ARM-PEG-AA); (b) at least one second compound comprising more than one electrophilic group, wherein the second compound is pentaerythritol polyethylene glycol succinimidyl glutaramide (4ARM-PEG-SGA) or hexaglycerol polyethylene glycol succinimidyl glutarate (8ARM-PEG-SG); (c) an aqueous buffer in the pH range of 6.0 to 8.5; and (d) a viscosity enhancer;
A rubber composition, comprising: a compound having a group represented by the following formula (I): wherein R 11 and R 12 are the same or different and each represent a hydrogen atom or a substituted or unsubstituted monovalent hydrocarbon group optionally containing a heteroatom; and a sulfur atom-containing vulcanization accelerator, the rubber composition being obtained by, before kneading a rubber component with any sulfur, kneading the rubber component and the sulfur atom-containing vulcanization accelerator, and then kneading the kneaded mixture with sulfur. a compound having a group represented by the following formula (I): wherein R 11 and R 12 are the same or different and each represent a hydrogen atom or a substituted or unsubstituted monovalent hydrocarbon group optionally containing a heteroatom; and a sulfur atom-containing vulcanization accelerator, the rubber composition being obtained by, before kneading a rubber component with any sulfur, kneading the rubber component and the sulfur atom-containing vulcanization accelerator, and then kneading the kneaded mixture with sulfur.