mhurhangee/patent-ind-claim-en huggingface dataset:
A clip for a bracelet and/or a necklace, said clip in a closed state having a through hole allowing said clip to wreathe an elongated member of a bracelet and/or necklace, said through hole defining a through hole axis extending in an axial direction, with a radial direction extending radially from the axial direction; said clip comprising: • a first part and a second part , the first and second parts being connected by a hinge ; and • a first resilient element arranged in said second part, the first resilient element comprising a first gripping surface for frictionally gripping a surface of the elongated member; wherein the second part comprises a cavity extending in the radial direction, the first resilient element comprises a first resilient part arranged inside said cavity and a second resilient part arranged outside said cavity and extending in the radial direction from said cavity into said through hole, wherein the cavity is configured to secure the first resilient element in said second part, characterized in that the clip may be forced to move along the elongated member, on which it is position by exerting a force in the axial direction, preferably using a hand. • a first part and a second part , the first and second parts being connected by a hinge ; and • a first resilient element arranged in said second part, the first resilient element comprising a first gripping surface for frictionally gripping a surface of the elongated member;
A method for encoding an input sequence of symbols, the symbols belonging to a finite alphabet, wherein a context model specifies a predefined probability set, and wherein each symbol of the input sequence of symbols is assigned a probability from the predefined probability set on the basis of the context model , the method comprising: selecting a new probability set , wherein the new probability set is not identical to the predefined probability set and is a subset of the predefined probability set; assigning each of the symbols of the input sequence a respective probability from the new probability set based upon a mapping , wherein the mapping maps each of the probabilities of the predefined probability set to a respective one of the probabilities from the new probability set, wherein assigning each of the symbols includes defining the mapping by determining, for each probability of the predefined probability set, to which one of the probabilities from the new probability set it is mapped, and wherein determining is based on selecting the one of the probabilities from the new probability set that minimizes a relative entropy expression; and entropy encoding the input sequence of symbols , wherein the entropy encoding includes grouping symbols on the basis of their respective assigned probabilities from the new probability set. selecting a new probability set , wherein the new probability set is not identical to the predefined probability set and is a subset of the predefined probability set; assigning each of the symbols of the input sequence a respective probability from the new probability set based upon a mapping , wherein the mapping maps each of the probabilities of the predefined probability set to a respective one of the probabilities from the new probability set, wherein assigning each of the symbols includes defining the mapping by determining, for each probability of the predefined probability set, to which one of the probabilities from the new probability set it is mapped, and wherein determining is based on selecting the one of the probabilities from the new probability set that minimizes a relative entropy expression; and entropy encoding the input sequence of symbols , wherein the entropy encoding includes grouping symbols on the basis of their respective assigned probabilities from the new probability set.
A procedure of processing a workpiece, comprising preparing a bonded stack comprising a carrier layer , a workpiece layer , and an interposer layer therebetween; processing the workpiece layer ; and delivering a gas jet through a nozzle at a junction between two adjacent layers in the stack to separate or debond said two adjacent layers, and said two adjacent layers are the carrier layer and the interposer layer, wherein the step of delivering a gas jet is carried out by spinning the stack relative to the stationary nozzle or spinning the nozzle relative to the stationary stack , and further comprising a step of mechanically and/or chemically disrupting or destroying a portion of an outer periphery of the junction, before delivering the gas jet thereto. preparing a bonded stack comprising a carrier layer , a workpiece layer , and an interposer layer therebetween; processing the workpiece layer ; and delivering a gas jet through a nozzle at a junction between two adjacent layers in the stack to separate or debond said two adjacent layers, and said two adjacent layers are the carrier layer and the interposer layer,
A sealant liquid container for repairing an inflatable article, preferably a tyre, comprising a casing defining an inner volume for a sealant liquid, a first inlet port for the inlet of a pressurized gas into the inner volume , an outlet port for injection of the sealant liquid following pressurization of the inlet port , a closing unit which can be configured between a closing position in which the sealant liquid is retained in the inner volume and an opening position reached following pressurization of the inlet port in which the inlet port and the outlet port are connected by means of the inner volume , characterized in that it comprises a second inlet port connected to the outlet port parallel to the first inlet port and a duct (C) for connecting the second inlet port to the outlet port and surrounded by the inner volume .
A method of forming a laser ablation perimeter surrounding a defect in an optical device, the method characterized by comprising: (A) a. starting application of a laser with a laser focus at a first position , the first position within an area that will be surrounded by the laser ablation perimeter; b. translating the laser focus from the first position to a second position , the second position , being a part of the laser ablation perimeter; c. translating the laser focus about the defect along the laser ablation perimeter until the laser focus is proximate the second position ; d. closing the laser ablation perimeter by overlapping the laser focus at the second position; and e. returning the laser focus to the area surrounded by the laser ablation perimeter where laser ablation is then ceased; or (B) a. starting application of a laser with a laser focus at a first position , within an area that will be surrounded by the laser ablation perimeter; and b. translating the laser focus from the first position and about the defect until the laser focus crosses its own path, but not at the first position. (A) a. starting application of a laser with a laser focus at a first position , the first position within an area that will be surrounded by the laser ablation perimeter; b. translating the laser focus from the first position to a second position , the second position , being a part of the laser ablation perimeter; c. translating the laser focus about the defect along the laser ablation perimeter until the laser focus is proximate the second position ; d. closing the laser ablation perimeter by overlapping the laser focus at the second position; and e. returning the laser focus to the area surrounded by the laser ablation perimeter where laser ablation is then ceased; or a. starting application of a laser with a laser focus at a first position , the first position within an area that will be surrounded by the laser ablation perimeter; b. translating the laser focus from the first position to a second position , the second position , being a part of the laser ablation perimeter; c. translating the laser focus about the defect along the laser ablation perimeter until the laser focus is proximate the second position ; d. closing the laser ablation perimeter by overlapping the laser focus at the second position; and e. returning the laser focus to the area surrounded by the laser ablation perimeter where laser ablation is then ceased; or (B) a. starting application of a laser with a laser focus at a first position , within an area that will be surrounded by the laser ablation perimeter; and b. translating the laser focus from the first position and about the defect until the laser focus crosses its own path, but not at the first position. a. starting application of a laser with a laser focus at a first position , within an area that will be surrounded by the laser ablation perimeter; and b. translating the laser focus from the first position and about the defect until the laser focus crosses its own path, but not at the first position.
An apparatus for measuring the oxygen concentration in an aircraft fuel tank application or an aircraft air separation module application, the apparatus including: an oxygen sensitive fluorescent material including a combination of: an oxygen sensitive dye and an oxygen insensitive dye, wherein both of the dyes are fluorophores; a large diameter optical fibre , the fibre having two ends , to transmit photons and transmit emissions from the excited fluorophores, wherein the fluorescent material is located on an end of the large diameter optical fibre ; an excitation source, wherein the photons from the excitation source are transmitted by the large diameter optical fibre to excite the fluorophores; and two photodetectors each of which measure the emission of a dye; characterized in that the apparatus further comprises a trichroic prism configured to separate the three wavelengths made up of the excitation and the emission from each dye, wherein the excitation source is positioned such that excitation light is transmitted through the trichroic prism towards the fluorophores, and wherein the excitation source is configured to emit pulsed light to measure the lifetime of the emission. an oxygen sensitive fluorescent material including a combination of: an oxygen sensitive dye and an oxygen insensitive dye, wherein both of the dyes are fluorophores; a large diameter optical fibre , the fibre having two ends , to transmit photons and transmit emissions from the excited fluorophores, wherein the fluorescent material is located on an end of the large diameter optical fibre ; an excitation source, wherein the photons from the excitation source are transmitted by the large diameter optical fibre to excite the fluorophores; and two photodetectors each of which measure the emission of a dye; characterized in that the apparatus further comprises a trichroic prism configured to separate the three wavelengths made up of the excitation and the emission from each dye, wherein the excitation source is positioned such that excitation light is transmitted through the trichroic prism towards the fluorophores, and wherein the excitation source is configured to emit pulsed light to measure the lifetime of the emission.
A memory controller comprising logic to: receive a data request from a requestor via a data bus for data stored in a nonvolatile memory; retrieve the data from the nonvolatile memory; determine whether the data bus is in an idle state; and in response to a determination that the data bus is in an idle state, the logic is further configured to: transmit the data from the memory controller to the requestor over the data bus while the data is being retrieved from the nonvolatile memory to the memory controller; initiate an error correction code algorithm on the data while the data is being transmitted to the requestor; and transmit an error correction code indicator to the requestor over the data bus; or in response to a determination that the data bus is not in an idle state, the logic is further configured to: initiate an error correction code algorithm on the data; correct any errors in the data; and subsequently transmit the data to the requestor. receive a data request from a requestor via a data bus for data stored in a nonvolatile memory; retrieve the data from the nonvolatile memory; determine whether the data bus is in an idle state; and in response to a determination that the data bus is in an idle state, the logic is further configured to: transmit the data from the memory controller to the requestor over the data bus while the data is being retrieved from the nonvolatile memory to the memory controller; initiate an error correction code algorithm on the data while the data is being transmitted to the requestor; and transmit an error correction code indicator to the requestor over the data bus; or transmit the data from the memory controller to the requestor over the data bus while the data is being retrieved from the nonvolatile memory to the memory controller; initiate an error correction code algorithm on the data while the data is being transmitted to the requestor; and transmit an error correction code indicator to the requestor over the data bus; or in response to a determination that the data bus is not in an idle state, the logic is further configured to: initiate an error correction code algorithm on the data; correct any errors in the data; and subsequently transmit the data to the requestor. initiate an error correction code algorithm on the data; correct any errors in the data; and subsequently transmit the data to the requestor.
An airbag inflator comprising: a pressure vessel ; an initiator positioned at one end of the pressure vessel ; a manifold positioned at an opposite end of the pressure vessel ; and a generant holder assembly secured in the pressure vessel adjacent the initiator , the generant holder assembly defining an annular space that is configured to secure a generant , wherein a center of the generant holder assembly is open, wherein the generant holder assembly comprises a generant holder including a tubular body and an annular ledge , the annular ledge having a larger diameter than the tubular body and a generant cover including a central opening sized to fit over the tubular body of the generant holder characterized in that the annular ledge is sized to be press fit into the pressure vessel and in that the generant cover includes an outside diameter sized to be press fit into the pressure vessel . a pressure vessel ; an initiator positioned at one end of the pressure vessel ; a manifold positioned at an opposite end of the pressure vessel ; and a generant holder assembly secured in the pressure vessel adjacent the initiator , the generant holder assembly defining an annular space that is configured to secure a generant , wherein a center of the generant holder assembly is open, wherein the generant holder assembly comprises a generant holder including a tubular body and an annular ledge , the annular ledge having a larger diameter than the tubular body and a generant cover including a central opening sized to fit over the tubular body of the generant holder characterized in that the annular ledge is sized to be press fit into the pressure vessel and in that the generant cover includes an outside diameter sized to be press fit into the pressure vessel . wherein the generant holder assembly comprises a generant holder including a tubular body and an annular ledge , the annular ledge having a larger diameter than the tubular body and a generant cover including a central opening sized to fit over the tubular body of the generant holder characterized in that the annular ledge is sized to be press fit into the pressure vessel and in that the generant cover includes an outside diameter sized to be press fit into the pressure vessel .
A method for wireless communication at a user equipment, UE , comprising: monitoring for a plurality of codewords from a base station in at least one transmission time interval ; determining , based at least in part on an indication received from the base station , whether to include individual HARQ feedback for each of the plurality of codewords, or to include bundled HARQ feedback for the plurality of codewords in a single uplink channel transmission , wherein when it is determined to include individual HARQ feedback for each of the plurality of codewords, the UE includes negative acknowledgement HARQ feedback for at least one unscheduled transmission in the at least one transmission time interval providing side information, wherein the side information provides a reference for decoding HARQ feedback for scheduled transmissions including the plurality of codewords; and transmitting the HARQ feedback for the plurality of codewords in the single uplink channel based at least in part on the determination. monitoring for a plurality of codewords from a base station in at least one transmission time interval ; determining , based at least in part on an indication received from the base station , whether to include individual HARQ feedback for each of the plurality of codewords, or to include bundled HARQ feedback for the plurality of codewords in a single uplink channel transmission , wherein when it is determined to include individual HARQ feedback for each of the plurality of codewords, the UE includes negative acknowledgement HARQ feedback for at least one unscheduled transmission in the at least one transmission time interval providing side information, wherein the side information provides a reference for decoding HARQ feedback for scheduled transmissions including the plurality of codewords; and transmitting the HARQ feedback for the plurality of codewords in the single uplink channel based at least in part on the determination.
An organ container for accommodating an organ, comprising: an opening that allows passage of the organ ; and a pouch-shaped insulating sheet configured to hold the organ inserted through said opening , wherein said insulating sheet has an inner surface of an uneven shape which includes a plurality of linear projections parallel to an edge of said opening and projecting toward an internal space of said pouch-shaped insulating sheet , said plurality of linear projections have a square shape in section, and square corners of said plurality of linear projections in cross section further have a taper surface. an opening that allows passage of the organ ; and a pouch-shaped insulating sheet configured to hold the organ inserted through said opening , wherein said insulating sheet has an inner surface of an uneven shape which includes a plurality of linear projections parallel to an edge of said opening and projecting toward an internal space of said pouch-shaped insulating sheet , said plurality of linear projections have a square shape in section, and square corners of said plurality of linear projections in cross section further have a taper surface.
A control device for controlling a machine tool, wherein the machine tool and the control device are configured in such a way that a tool and/or a workpiece disposed on the machine tool can be moved with at least one first speed and at least one second speed , wherein the control device has an input device for triggering the movement with the second speed , characterized in that the control device is further configured in such a way that, when switching from a movement with the first speed to a movement with the second speed , the tool or the workpiece is at first stopped prior to the execution of the movement with the second speed if the second speed is greater that the first speed by at least a predetermined factor, and the subsequent execution of the movement with the second speed is triggered by an operator input on the input device.
A proximity sensor for a portable device, the sensor being configured to detect proximity of a body portion to the portable device, and to reject objects having a dielectric permittivity substantially lower than a dielectric permittivity of the human body, comprising: one main electrode facing the outside of the portable device; one auxiliary reference electrode ; a readout circuit operatively arranged for acquiring a first capacitance of the main electrode by applying a same potential to the main electrode and to the auxiliary reference electrode , and for acquiring a second capacitance of the main electrode while keeping the auxiliary reference electrode floating, and a decision unit configured to generate a proximity signal (PROX) based on said first capacitance and second capacitance.
Spoke wheel rim for a tubeless tyre with a rim ring which comprises a rim base and two rim flanges , and with spokes which connect a hub to the rim ring , wherein - grooves are provided on the rim ring running in the radial direction, in which the spokes each engage with a complementarily formed spoke head , - each spoke head has a passage opening formed transversely to the spoke axis , - a pin is provided on each groove , which pin crosses the groove and the through opening of the spoke head and is held on both sides of the groove in a pin retainer , characterized in that - the grooves and the pin retainers are arranged in the radial direction in a region between the rim flange and the rim base . - grooves are provided on the rim ring running in the radial direction, in which the spokes each engage with a complementarily formed spoke head , - each spoke head has a passage opening formed transversely to the spoke axis , - a pin is provided on each groove , which pin crosses the groove and the through opening of the spoke head and is held on both sides of the groove in a pin retainer , characterized in that - the grooves and the pin retainers are arranged in the radial direction in a region between the rim flange and the rim base .
A simultaneous laser welding apparatus of a vehicle light comprising: - a placement support for supporting a container body and a lenticular body of a vehicle light to be welded together at reciprocal perimeter profiles joined at a welding interface , - a plurality of laser sources suitable for emitting light beams, - a plurality of optical fibres , each extending from an input end to an output end , the optical fibres being associated with said plurality of laser sources and being suitable to transmit said light beams, - a fibre-holder support device for supporting the optical fibres , suitable to block in predetermined positions, spaced by a pitch (P), said output ends of the optical fibres directing the latter towards said welding interface , characterised in that a single optical fibre is associated at its input end to each laser source so as to receive, channel and transmit towards the welding interface , the light beam produced by said corresponding laser source , wherein the apparatus comprises a light guide provided with at least one hollow seat extending from a light input wall , which receives the light beams coming from the output ends of the optical fibres to a light output wall which sends the light beams towards the welding interface . - a placement support for supporting a container body and a lenticular body of a vehicle light to be welded together at reciprocal perimeter profiles joined at a welding interface , - a plurality of laser sources suitable for emitting light beams, - a plurality of optical fibres , each extending from an input end to an output end , the optical fibres being associated with said plurality of laser sources and being suitable to transmit said light beams, - a fibre-holder support device for supporting the optical fibres , suitable to block in predetermined positions, spaced by a pitch (P), said output ends of the optical fibres directing the latter towards said welding interface , a single optical fibre is associated at its input end to each laser source so as to receive, channel and transmit towards the welding interface , the light beam produced by said corresponding laser source , wherein the apparatus comprises a light guide provided with at least one hollow seat extending from a light input wall , which receives the light beams coming from the output ends of the optical fibres to a light output wall which sends the light beams towards the welding interface .