mhurhangee/patent-ind-claim-en huggingface dataset:
A small gas generator , having a combustion chamber for generating gas, for a gas actuator for operating a safety device, the generator comprising, in the combustion chamber, first gas generant molded articles containing a fuel agent including a guanidine derivative and/or a tetrazole derivative, and an oxidizing agent containing a metal nitrate and/or a perchlorate; and second gas generant molded articles containing smokeless powders including nitrocellulose as a major ingredient, wherein the fuel agent contains one or more selected out of nitroguanidine, guanidine nitrate, bitetrazole, azobistetrazole, and 5-aminotetrazole, and the oxidizing agent is a mixture of ammonium perchlorate and strontium nitrate, or potassium perchlorate, and the first gas generant molded articles further contains a binder, which contains a mixture of hydroxypropylmethylcellulose and polyacrylamide, and each first gas generant molded article further contains an additive, and the content of the fuel agent is 20 to 55% by weight; the content of the oxidizing agent is 40 to 70% by weight; the content of the binder is 2 to 10% by weight; and the content of the additive is 2 to 10% by weight, which are controlled so that the total of the fuel agent, the oxidizing agent, the binder, and the additive is 100% by weight, wherein the ratio Aw/Bw between the whole weight Aw of the first gas generant molded articles and the whole weight Bw of the second gas generant molded articles is 0.5 to 2.0.
A welding-type power supply , comprising: power conversion circuitry configured to convert input power to welding-type power and to output the welding-type power to a welding-type torch; the welding-type power supply being characterised by the following: a communication circuit configured to receive a synergic control signal from a remote control device during a welding-type operation; and control circuitry configured to: based on the synergic control signal , synergically control at least two of a voltage of the welding-type power output by the power conversion circuitry, a current of the welding-type power, or a wire feed speed; output a feedback control signal to control an operator feedback device to generate an output that is directly proportional or inversely proportional to a value of the synergic control signal . power conversion circuitry configured to convert input power to welding-type power and to output the welding-type power to a welding-type torch; the welding-type power supply being characterised by the following: a communication circuit configured to receive a synergic control signal from a remote control device during a welding-type operation; and control circuitry configured to: based on the synergic control signal , synergically control at least two of a voltage of the welding-type power output by the power conversion circuitry, a current of the welding-type power, or a wire feed speed; output a feedback control signal to control an operator feedback device to generate an output that is directly proportional or inversely proportional to a value of the synergic control signal . a communication circuit configured to receive a synergic control signal from a remote control device during a welding-type operation; and control circuitry configured to: based on the synergic control signal , synergically control at least two of a voltage of the welding-type power output by the power conversion circuitry, a current of the welding-type power, or a wire feed speed; output a feedback control signal to control an operator feedback device to generate an output that is directly proportional or inversely proportional to a value of the synergic control signal .
A method for an initiating User Equipment, in the following also referred to as UE, to establish a one-to-one sidelink communication with a target UE, comprising: transmitting a first PC5 signalling used for establishing the one-to-one sidelink communication to a broadcast address associated with a Vehicle-to-Everything, in the following also referred to as V2X, service or a V2X application offering the V2X service , characterized in that the first PC5 signalling includes an upper layer identity of the target UE and an identity of the V2X service. transmitting a first PC5 signalling used for establishing the one-to-one sidelink communication to a broadcast address associated with a Vehicle-to-Everything, in the following also referred to as V2X, service or a V2X application offering the V2X service , characterized in that the first PC5 signalling includes an upper layer identity of the target UE and an identity of the V2X service.
A spark plug comprising: a center electrode extending in an axial direction (CL1); a cylindrical insulator provided with an axial hole into which the center electrode is inserted; a cylindrical metal shell disposed on an outer periphery of the insulator ; and a ground electrode having one end fixed to a leading end of the metal shell and another end having a facing surface that faces a leading end surface of the center electrode , wherein the spark plug has an annular space which is formed by an outer peripheral surface of the center electrode and an inner peripheral surface of the axial hole and is opened toward a leading end side in the axial direction (CL1), wherein, when C (mm) is a distance between the outer peripheral surface of the center electrode and the inner peripheral surface of the axial hole in an opening of the annular space along a direction orthogonal to the axial line, C≥0.2 mm is satisfied, wherein, in a cross-section which includes the axial line (CL1) and is orthogonal to the center axis (CL2) of the ground electrode , a contour line of a lateral surface (27S1, 27S2) of the ground electrode , which is adjacent to the facing surface , has a curved shape which is convexed outward, wherein a contour line of the facing surface is linearly shaped in the cross-section, and wherein, when B (mm) is an outer diameter of the leading end surface of the center electrode , and D (mm) is a length of the contour line of the facing surface in the cross-section, D≤B is satisfied. a center electrode extending in an axial direction (CL1); a cylindrical insulator provided with an axial hole into which the center electrode is inserted; a cylindrical metal shell disposed on an outer periphery of the insulator ; and a ground electrode having one end fixed to a leading end of the metal shell and another end having a facing surface that faces a leading end surface of the center electrode , wherein the spark plug has an annular space which is formed by an outer peripheral surface of the center electrode and an inner peripheral surface of the axial hole and is opened toward a leading end side in the axial direction (CL1), wherein, when C (mm) is a distance between the outer peripheral surface of the center electrode and the inner peripheral surface of the axial hole in an opening of the annular space along a direction orthogonal to the axial line, C≥0.2 mm is satisfied, wherein, in a cross-section which includes the axial line (CL1) and is orthogonal to the center axis (CL2) of the ground electrode , a contour line of a lateral surface (27S1, 27S2) of the ground electrode , which is adjacent to the facing surface , has a curved shape which is convexed outward, wherein a contour line of the facing surface is linearly shaped in the cross-section, and wherein, when B (mm) is an outer diameter of the leading end surface of the center electrode , and D (mm) is a length of the contour line of the facing surface in the cross-section, D≤B is satisfied.
Solid rubber tyre, comprising a main tyre body, which comes into contact with a rim and has a bottom part , a cover layer and an intermediate layer , and comprising a tread part , which comes into contact with a roadway and is composed of a rubber compound predominantly or exclusively containing silicic acid as a filler, and comprising two sidewalls , which laterally cover at least the intermediate layer , wherein the maximum permissible abrasive wear of the tread part is indicated by markings on the sides of the tread part, characterized in that arranged between the intermediate layer and the tread part is a cushion rubber , which has lateral flanks , which are completely covered by the sidewalls and consist of a rubber material of a thermal conductivity that is greater than the thermal conductivity of the intermediate layer and is at least 0.25 W/mK.
A surface inspection method for a steel sheet coated with a resin, the surface inspection method of imaging the steel sheet coated with the resin and inspecting for a surface defect, the surface inspection method comprising the steps of: irradiating the steel sheet with sheet-like light that has been linearly polarized on a light-emitting side at a predetermined polarization angle; and imaging linearly-polarized light, polarized by a polarizing filter on a light-receiving side, at an acceptance angle shifted by a predetermined angle with respect to a regular reflection angle of incident light, wherein a polarization angle of the polarizing filter is set to from -5 degrees to 5 degrees to a direction of a normal line of the steel sheet, and the acceptance angle is shifted by 2 to 5 degrees in a descending direction of the regular reflection angle, wherein the steel sheet is irradiated with the sheet-like light at an incidence angle different from Brewster's angle of the coating by 1 degree or greater. irradiating the steel sheet with sheet-like light that has been linearly polarized on a light-emitting side at a predetermined polarization angle; and imaging linearly-polarized light, polarized by a polarizing filter on a light-receiving side, at an acceptance angle shifted by a predetermined angle with respect to a regular reflection angle of incident light, wherein a polarization angle of the polarizing filter is set to from -5 degrees to 5 degrees to a direction of a normal line of the steel sheet, and the acceptance angle is shifted by 2 to 5 degrees in a descending direction of the regular reflection angle,
Multilayer fire protection tape for inserting into openings in walls or ceilings of buildings, with at least two layers made of an intumescing material, in which the layers each have a first longitudinal edge on an exterior and a second longitudinal edge on an opposite exterior, in which the layers are connected flexibly to each other, in which a thread or a clip is provided, which connect(s) the layers to each other with positive locking and/or bonding, in order to create a connection between both layers , characterised in that the connection may be loosened at a temperature below the intumescence temperature of both layers , in which the thread or clip consists of a plastic, the softening, melting or decomposition temperature of which is below the intumescence temperature of both layers .
Cleaning system, comprising a cleaning cart and a data processing device, wherein the cleaning cart comprises a frame that can be fitted with cleaning utensils , wherein the frame is provided with a biunique machine-readable identifier , wherein the cleaning cart is uniquely identifiable by the identifier and wherein the cleaning cart is identifiable by the machine-readable identifier in the data processing device, the identifier being an optically readable code, characterized in that the data processing device has a central database and at least one mobile data processing unit, the mobile data processing unit being provided with a device for reading the machine-readable identifier, wherein the data processing unit is equipped to access the database.
A powered ophthalmic lens, the powered ophthalmic lens comprising: a contact lens or an intraocular lens comprising a variable-focus or variable-power optic; an eye gaze tracking system incorporated into the contact lens, the eye gaze tracking system including a sensor to determine and track eye position, a system controller cooperatively associated with the sensor, the system controller configured to determine and track gaze direction in spatial coordinates based on information from the sensor and to output a control signal based on a decision algorithm, and at least one actuator configured to receive the output control signal and switch the variable-focus or variable-power optic between a far-focus state and a near-focus state; and wherein the system controller of the eye gaze tracking system implements a learning algorithm during a calibration phase, wherein the learning algorithm references inputs from the sensor before and after a feedback or control signal is received from a user to refine the decision algorithm and specially tune it to the natural eye behaviour of the user. a contact lens or an intraocular lens comprising a variable-focus or variable-power optic; an eye gaze tracking system incorporated into the contact lens, the eye gaze tracking system including a sensor to determine and track eye position, a system controller cooperatively associated with the sensor, the system controller configured to determine and track gaze direction in spatial coordinates based on information from the sensor and to output a control signal based on a decision algorithm, and at least one actuator configured to receive the output control signal and switch the variable-focus or variable-power optic between a far-focus state and a near-focus state; and wherein the system controller of the eye gaze tracking system implements a learning algorithm during a calibration phase, wherein the learning algorithm references inputs from the sensor before and after a feedback or control signal is received from a user to refine the decision algorithm and specially tune it to the natural eye behaviour of the user.
A Wi-Fi Direct connecting method for a plurality of devices, the method comprising: connecting each of a first device and a second device to an access point, AP, for communication; transmitting, by the first device, a request for a Wi-Fi Direct connection to the second device, the request being transmitted through the AP; the second device entering a standby mode in response to receiving said request for Wi-Fi Direct connection, wherein the standby mode is a state in which the second device may be connected to another device by using a Wi-Fi Direct connection; transmitting, by the first device, a provisioning discovery request message to the second device in the standby mode; and based on a provisioning discovery response message being received from the second device in response to the provisioning discovery request message, establishing the Wi-Fi Direct connection between the first device and the second device. connecting each of a first device and a second device to an access point, AP, for communication; transmitting, by the first device, a request for a Wi-Fi Direct connection to the second device, the request being transmitted through the AP; the second device entering a standby mode in response to receiving said request for Wi-Fi Direct connection, wherein the standby mode is a state in which the second device may be connected to another device by using a Wi-Fi Direct connection; transmitting, by the first device, a provisioning discovery request message to the second device in the standby mode; and based on a provisioning discovery response message being received from the second device in response to the provisioning discovery request message, establishing the Wi-Fi Direct connection between the first device and the second device.
A method (M100) of generating manufacturing parameters during a dental procedure for a dental prosthesis, the method comprising the steps of: a) intra-orally scanning (S101) a patient to generate intra-oral data; b) extra-orally scanning (S102) the patient during a mandibular motion to generate dynamic extra-oral maxillofacial data; c) resolving (S103) the intra-oral data with the dynamic extra-oral maxillofacial data to generate a combined data model; d) generating (S104) a model representation of the dental prosthesis based on the combined data model and displaying the model representation to a user; and e) generating (S105) said manufacturing parameters based on the combined data model, further comprising a step prior to step c), of identifying the patient; and a further step after step d), of exporting the intra-oral data and associating it with a dental record of the patient, and characterised in that said step of identifying the patient is performed using facial recognition based on the dynamic extra-oral maxillofacial data and/or static extra-oral maxillofacial data. a) intra-orally scanning (S101) a patient to generate intra-oral data; b) extra-orally scanning (S102) the patient during a mandibular motion to generate dynamic extra-oral maxillofacial data; c) resolving (S103) the intra-oral data with the dynamic extra-oral maxillofacial data to generate a combined data model; d) generating (S104) a model representation of the dental prosthesis based on the combined data model and displaying the model representation to a user; and e) generating (S105) said manufacturing parameters based on the combined data model, further comprising a step prior to step c), of identifying the patient; and a further step after step d), of exporting the intra-oral data and associating it with a dental record of the patient, and characterised in that said step of identifying the patient is performed using facial recognition based on the dynamic extra-oral maxillofacial data and/or static extra-oral maxillofacial data.
A method for fabricating a semiconductor component comprising: providing a bonding capillary configured to wire bond a wire ; providing a semiconductor substrate having a circuit side , a backside , an integrated circuit, and a substrate contact on the circuit side in electrical communication with the integrated circuit, the substrate contact having an inner surface ; thinning the semiconductor substrate from the backside of the semiconductor substrate to a selected thickness (T); forming an opening in the semiconductor substrate from the backside of the semiconductor substrate to the inner surface of the substrate contact by endpointing on the inner surface of the substrate contact with the opening large enough to allow access for the bonding capillary to the inner surface of the substrate contact while maintaining electrical communication between the integrated circuit and the substrate contact ; and forming a conductive interconnect in the opening by forming a wire bonded connection between the wire and the inner surface of the substrate contact using the bonding capillary in the opening and then severing the wire to a selected length (L) from the backside of the semiconductor substrate using the bonding capillary , the conductive interconnect comprising the wire bonded connection and the wire projecting from the backside of the semiconductor substrate as a terminal pin contact with the length (L). providing a bonding capillary configured to wire bond a wire ; providing a semiconductor substrate having a circuit side , a backside , an integrated circuit, and a substrate contact on the circuit side in electrical communication with the integrated circuit, the substrate contact having an inner surface ; thinning the semiconductor substrate from the backside of the semiconductor substrate to a selected thickness (T); forming an opening in the semiconductor substrate from the backside of the semiconductor substrate to the inner surface of the substrate contact by endpointing on the inner surface of the substrate contact with the opening large enough to allow access for the bonding capillary to the inner surface of the substrate contact while maintaining electrical communication between the integrated circuit and the substrate contact ; and forming a conductive interconnect in the opening by forming a wire bonded connection between the wire and the inner surface of the substrate contact using the bonding capillary in the opening and then severing the wire to a selected length (L) from the backside of the semiconductor substrate using the bonding capillary , the conductive interconnect comprising the wire bonded connection and the wire projecting from the backside of the semiconductor substrate as a terminal pin contact with the length (L).
A method of receiving resource allocation information by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, second resource allocation information scheduling a second bandwidth part, BWP, through a first BWP, wherein, at receiving the second resource allocation information, the first BWP is an active BWP and the second BWP is a BWP different from the active BWP; and receiving, from the base station, a data channel scheduled by the second resource allocation information through the second BWP, characterised in that the second resource allocation information bit size is set to be the same bit size as the bit size of the first resource allocation information used for scheduling the first BWP. receiving, from a base station, second resource allocation information scheduling a second bandwidth part, BWP, through a first BWP, wherein, at receiving the second resource allocation information, the first BWP is an active BWP and the second BWP is a BWP different from the active BWP; and receiving, from the base station, a data channel scheduled by the second resource allocation information through the second BWP, characterised in that the second resource allocation information bit size is set to be the same bit size as the bit size of the first resource allocation information used for scheduling the first BWP.
A wind turbine comprising a tower , a pod , at least one smoke detector in the region of the tower and/or in the region of the pod , characterized by means for detecting whether there are people in the wind turbine or whether the wind turbine is in a maintenance mode, at least one fan arranged in the tower and/or in the pod , and a control unit which detects a fire situation or smoke development in the wind turbine by means of the smoke detectors and activates the fans disposed in the tower and/or in the pod in order to suck away the smoke produced to the exterior and to prevent smoke poisoning of people in the wind turbine.
A computer program product embodied on a non-transitory computer readable medium, said computer readable medium having instructions stored thereon that, when executed by a computer, which implements or operates in conjunction with at least one classification and/or segmentation processor, causes the computer to perform: receiving modelled seismic data including modelled aliased data and modelled unaliased data that is to be recognized by the at least one processor; training the at least one classification and/or segmentation processor to identify characteristics of the modelled aliased data in the modelled seismic data by analysing the aliased data and unaliased data; receiving actual seismic data acquired in a seismic survey after training the at least one classification and/or segmentation processor, wherein the actual seismic data includes aliasing, and wherein the actual seismic data is represented within a transform domain; and identifying, using the trained at least one classification and/or segmentation processor, aliased data in the actual seismic data. receiving modelled seismic data including modelled aliased data and modelled unaliased data that is to be recognized by the at least one processor; training the at least one classification and/or segmentation processor to identify characteristics of the modelled aliased data in the modelled seismic data by analysing the aliased data and unaliased data; receiving actual seismic data acquired in a seismic survey after training the at least one classification and/or segmentation processor, wherein the actual seismic data includes aliasing, and wherein the actual seismic data is represented within a transform domain; and identifying, using the trained at least one classification and/or segmentation processor, aliased data in the actual seismic data.