mhurhangee/patent-ind-claim-en huggingface dataset:
A global navigation satellite system (GNSS) receiver, comprising: a state monitoring sensor , a processor , and a timer ; wherein the state monitoring sensor is configured to monitor a state of the GNSS receiver , and generate a first triggering signal according to the state of the GNSS receiver ; and wherein the processor is configured to transmit position information about the GNSS receiver to a remote server at a preset frequency; wherein the state monitoring sensor is an acceleration sensor, wherein the acceleration sensor is configured to monitor an acceleration of the GNSS receiver , and generate, in a case where the acceleration of the GNSS receiver is greater than a first preset value, the first triggering signal; wherein the processor is further configured to switch from the wake-up operating state to the resting operating state in response to transmitting the position information about the GNSS receiver continuously N times to the remote server , and the position sent is the same or close to the same, wherein N is a positive integer; wherein the timer is configured to start timing in response to determining that the processor switches from the wake-up operating state to the resting operating state, and generate a second triggering signal in a case where a duration recorded by the timer is greater than a second preset value; and wherein the processor is configured to switch from the resting operating state to the wake-up operating state according to the second triggering signal or the first triggering signal. wherein the state monitoring sensor is configured to monitor a state of the GNSS receiver , and generate a first triggering signal according to the state of the GNSS receiver ; and wherein the processor is configured to transmit position information about the GNSS receiver to a remote server at a preset frequency; wherein the state monitoring sensor is an acceleration sensor, wherein the acceleration sensor is configured to monitor an acceleration of the GNSS receiver , and generate, in a case where the acceleration of the GNSS receiver is greater than a first preset value, the first triggering signal; wherein the processor is further configured to switch from the wake-up operating state to the resting operating state in response to transmitting the position information about the GNSS receiver continuously N times to the remote server , and the position sent is the same or close to the same, wherein N is a positive integer; wherein the timer is configured to start timing in response to determining that the processor switches from the wake-up operating state to the resting operating state, and generate a second triggering signal in a case where a duration recorded by the timer is greater than a second preset value; and wherein the processor is configured to switch from the resting operating state to the wake-up operating state according to the second triggering signal or the first triggering signal.
A vascular shunt frame with improved apposition, comprising a main body tube , wherein at least one end of the main body tube is provided with a sealing covering ; the sealing covering is provided with a main blood flow opening , and an edge of the main blood flow opening is provided with a shaping component; the shaping component is disposed on the sealing covering on an edge of the main blood flow opening away from a side of a side wall of the main body tube ; two opposite ends of the shaping component are coupled to the side wall of the main body tube ; such that the main blood flow opening is enclosed by the shaping component and the side wall of the main body tube .
A mobile station operation method for a power control in a wireless communication system, the method comprising: acquiring an uplink control channel from a base station; determining a location in a downlink subframe of a frame to receive a transmit power control, TPC, command based on a frame index of the uplink control channel, a subframe index of the uplink control channel, and a number of downlink subframes constituting a single frame; and receiving the TPC command in the determined location, and controlling a transmit power based on the TPC command. acquiring an uplink control channel from a base station; determining a location in a downlink subframe of a frame to receive a transmit power control, TPC, command based on a frame index of the uplink control channel, a subframe index of the uplink control channel, and a number of downlink subframes constituting a single frame; and receiving the TPC command in the determined location, and controlling a transmit power based on the TPC command.
A fiber-reinforced resin molding material [C] of a chopped fiber bundle [A] impregnated with a matrix resin [B], having a layered structure including three or more layers in a thickness direction of the fiber-reinforced resin molding material [C] and satisfying Formula 1 and Formula 3, wherein Lao and Tao are respectively a number average fiber length and a number-average fiber bundle thickness of a chopped fiber bundle [Ao] in an outermost layer, Lam and Tam are respectively a number average fiber length and a number-average fiber bundle thickness of a chopped fiber bundle [Am] in a middle layer, Lao > Lam , Tao > Tam , wherein the number average fiber length of chopped fiber bundles, the number average thickness of chopped fiber bundles and the number average width of chopped fiber bundles are determined as specified in the description.
A method of laundering articles, the method comprising: (i) combining a detergent composition and water to provide a detergent solution, wherein the detergent composition comprises a surfactant system containing a betaine as coactive, then (ii) introducing into a washing machine basket the detergent solution so as to dampen articles in the basket; and then (iii) waiting for a duration of time during which no water or further detergent solution is added to the basket containing the dampened articles; wherein the surfactant system comprises a coactive and one or more surfactants, wherein the coactive is cocamidopropylbetaine (CAP-B) and the other surfactants comprise linear alkylbenzenesulfonates (LAS) and alkyl ether sulfates (AES) in a ratio of from 2:8 to 8:2 LAS:AES. (i) combining a detergent composition and water to provide a detergent solution, wherein the detergent composition comprises a surfactant system containing a betaine as coactive, then (ii) introducing into a washing machine basket the detergent solution so as to dampen articles in the basket; and then (iii) waiting for a duration of time during which no water or further detergent solution is added to the basket containing the dampened articles; wherein the surfactant system comprises a coactive and one or more surfactants, wherein the coactive is cocamidopropylbetaine (CAP-B) and the other surfactants comprise linear alkylbenzenesulfonates (LAS) and alkyl ether sulfates (AES) in a ratio of from 2:8 to 8:2 LAS:AES.
A method of attaching a tip extension to a tip end of a wind turbine blade , the method comprising: providing a wind turbine blade having a tip end to be extended; providing a tip extension in the form of a sock; attaching one or more adhesive dams to an outer surface of the blade at the tip end and/or to an inner surface of the tip extension , the adhesive dam(s) being arranged to define one or more bond cavities between the outer surface of the blade and the inner surface of the tip extension when the tip extension is fitted to the blade; sliding the tip extension over the tip end of the blade; and bonding the tip extension to the blade by means of adhesive provided in the one or more bond cavities ; characterised in that the one or more adhesive dams include a friction-reducing layer arranged to facilitate sliding of the tip extension over the tip end of the blade . providing a wind turbine blade having a tip end to be extended; providing a tip extension in the form of a sock; attaching one or more adhesive dams to an outer surface of the blade at the tip end and/or to an inner surface of the tip extension , the adhesive dam(s) being arranged to define one or more bond cavities between the outer surface of the blade and the inner surface of the tip extension when the tip extension is fitted to the blade; sliding the tip extension over the tip end of the blade; and bonding the tip extension to the blade by means of adhesive provided in the one or more bond cavities ; characterised in that the one or more adhesive dams include a friction-reducing layer arranged to facilitate sliding of the tip extension over the tip end of the blade .
Method for checking a function of a vehicle having a control device and/or at least one operating device of a vehicle by means of a hand of a handling device that has movable fingers , a palm and a back of the hand and into which hand are integrated several sensors at least from the group of distance sensor, pressure sensor, temperature sensor, humidity sensor, inertial sensor, ultrasound sensor, optical sensor, with the function being checked contactlessly by moving the hand close to the actual or virtually provided control device and/or operating device.
A robotic control system, comprising: a robot unit including an endoscope operable to generate an endoscope image , and a robot operable to move the endoscope within an anatomical region; and a control unit including an endoscope controller operable to determine an endoscope pose within the anatomical region for an intra-operative visualization of an anatomical feature within the endoscope image , wherein the endoscope pose is derived from a delineation of a volume coordinate position of the anatomical feature within a pre-operative image of the anatomical region, and a robot controller operable to command the robot to move the endoscope to the endoscope pose within the anatomical region to visualize the anatomical feature within the endoscope image , characterised in that the endoscope controller is further operable to a) provide a listing of landmark names of the anatomical region to facilitate a delineation of the volume coordinate position of the anatomical feature, and/or b) provide an atlas of the anatomical region registered to the pre-operative image to facilitate a delineation of the volume coordinate position of the anatomical feature within the pre-operative image of the anatomical region, whereby each anatomical feature of the atlas is associated with a corresponding anatomical feature within the pre-operative image , and allow a user to select an anatomical feature of the atlas for delineating the volume coordinate position of the anatomical feature with the pre-operative image. a robot unit including an endoscope operable to generate an endoscope image , and a robot operable to move the endoscope within an anatomical region; and an endoscope operable to generate an endoscope image , and a robot operable to move the endoscope within an anatomical region; and a control unit including an endoscope controller operable to determine an endoscope pose within the anatomical region for an intra-operative visualization of an anatomical feature within the endoscope image , wherein the endoscope pose is derived from a delineation of a volume coordinate position of the anatomical feature within a pre-operative image of the anatomical region, and a robot controller operable to command the robot to move the endoscope to the endoscope pose within the anatomical region to visualize the anatomical feature within the endoscope image , an endoscope controller operable to determine an endoscope pose within the anatomical region for an intra-operative visualization of an anatomical feature within the endoscope image , wherein the endoscope pose is derived from a delineation of a volume coordinate position of the anatomical feature within a pre-operative image of the anatomical region, and a robot controller operable to command the robot to move the endoscope to the endoscope pose within the anatomical region to visualize the anatomical feature within the endoscope image ,
A method for depositing material on an electronic substrate , the method comprising: positioning an electronic substrate under a deposition head movable by a gantry ; supplying material to a chamber of the deposition head ; extending a needle of the deposition head from the chamber , the needle terminating in an orifice outlet ; pushing a volume of material out of the chamber with an actuator of the deposition head to form a desired volume of material at the orifice outlet ; positioning at least two air jets on opposite sides of the orifice outlet and directing a timed pulse of air to the orifice outlet to create a micro-droplet from the desired volume, and to accelerate the micro-droplet to high velocity to deposit the micro droplet; characterised by , after the deposition operation, moving a collection cup which is placed on a movable slide under the deposition head , and positioning two or more air jets on opposite sides of the orifice outlet and producing a pulse of air directed to the orifice outlet for cleaning it. positioning an electronic substrate under a deposition head movable by a gantry ; supplying material to a chamber of the deposition head ; extending a needle of the deposition head from the chamber , the needle terminating in an orifice outlet ; pushing a volume of material out of the chamber with an actuator of the deposition head to form a desired volume of material at the orifice outlet ; positioning at least two air jets on opposite sides of the orifice outlet and directing a timed pulse of air to the orifice outlet to create a micro-droplet from the desired volume, and to accelerate the micro-droplet to high velocity to deposit the micro droplet; characterised by , after the deposition operation, moving a collection cup which is placed on a movable slide under the deposition head , and positioning two or more air jets on opposite sides of the orifice outlet and producing a pulse of air directed to the orifice outlet for cleaning it.
A method of measuring a hematocrit or a free hemoglobin concentration of a fluid , comprising: providing a fluid in a vessel ; exposing the fluid in the vessel to a light comprising at least the visible wavelength range emitted by a broadband light source so as to cause at least a portion of the light to be reflected by the fluid ; receiving at least a portion of the reflected light; analyzing at least a portion of the received light and differentiating the wavelengths contained within the received light to produce an optical spectrum of the received light, wherein a main wavelength is then determined from the optical spectrum of the received light by using a color specification system; correlating the main wavelength to a hematocrit or a free hemoglobin concentration; and generating an output indicative of the hematocrit or the free hemoglobin concentration corresponding to said main wavelength. providing a fluid in a vessel ; exposing the fluid in the vessel to a light comprising at least the visible wavelength range emitted by a broadband light source so as to cause at least a portion of the light to be reflected by the fluid ; receiving at least a portion of the reflected light; analyzing at least a portion of the received light and differentiating the wavelengths contained within the received light to produce an optical spectrum of the received light, wherein a main wavelength is then determined from the optical spectrum of the received light by using a color specification system; correlating the main wavelength to a hematocrit or a free hemoglobin concentration; and generating an output indicative of the hematocrit or the free hemoglobin concentration corresponding to said main wavelength.
A method for controlling a service interlocking with a first device in an in-vehicle infotainment, IVI, system, the method being performed at the first device and comprising: setting connection with an IVI device in the IVI system and transmitting , to the IVI device, mirroring data corresponding to a displaying screen of a playlist comprising items for a multimedia service used in the first device; setting (314a, b) connection with a second device and receiving a change request for the playlist from the connected second device; updating the playlist to correspond to the change request; and transmitting mirroring data corresponding to a displaying screen of the updated playlist to the IVI device. setting connection with an IVI device in the IVI system and transmitting , to the IVI device, mirroring data corresponding to a displaying screen of a playlist comprising items for a multimedia service used in the first device; setting (314a, b) connection with a second device and receiving a change request for the playlist from the connected second device; updating the playlist to correspond to the change request; and transmitting mirroring data corresponding to a displaying screen of the updated playlist to the IVI device.
A method for electrically characterising at least one cut photovoltaic cell , including: a) measuring the I-V characteristic of an uncut photovoltaic cell ; b) cutting the photovoltaic cell into several photovoltaic sub-cells ; c) measuring the I-V characteristic of each of the photovoltaic sub-cells not electrically connected to the other photovoltaic sub-cells ; d) measuring the I-V characteristic of an assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; e) determining, from the I-V characteristics measured, at least one electric performance parameter of the uncut photovoltaic cell , at least one electric performance parameter of each of the photovoltaic sub-cells and at least one electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; f) calculating, for each of the photovoltaic sub-cells , the difference between the value of the electric performance parameter of the photovoltaic sub-cell and the value of the electric performance parameter of the uncut photovoltaic cell ; g) calculating the difference between the value of the electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel and the value of the electric performance parameter of the uncut photovoltaic cell . a) measuring the I-V characteristic of an uncut photovoltaic cell ; b) cutting the photovoltaic cell into several photovoltaic sub-cells ; c) measuring the I-V characteristic of each of the photovoltaic sub-cells not electrically connected to the other photovoltaic sub-cells ; d) measuring the I-V characteristic of an assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; e) determining, from the I-V characteristics measured, at least one electric performance parameter of the uncut photovoltaic cell , at least one electric performance parameter of each of the photovoltaic sub-cells and at least one electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; f) calculating, for each of the photovoltaic sub-cells , the difference between the value of the electric performance parameter of the photovoltaic sub-cell and the value of the electric performance parameter of the uncut photovoltaic cell ; g) calculating the difference between the value of the electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel and the value of the electric performance parameter of the uncut photovoltaic cell .
A refrigeration cycle apparatus , comprising: a refrigeration cycle circuit that has a compressor , a condenser , an expansion device , and an evaporator that are connected through a pipe, the refrigeration cycle circuit being configured to allow refrigerant to circulate in the refrigeration cycle circuit ; and a controller configured to determine whether the refrigerant leaks or whether the expansion device malfunctions on a basis of a degree of subcooling at an outlet of the condenser and a degree of superheat at an outlet of the evaporator or a degree of superheat at a suction port of the compressor , in a case where the degree of subcooling at the outlet of the condenser is less than or equal to a preset first threshold, and the degree of superheat at the outlet of the evaporator is less than a preset second threshold, the controller being configured to determine that the expansion device malfunctions. a refrigeration cycle circuit that has a compressor , a condenser , an expansion device , and an evaporator that are connected through a pipe, the refrigeration cycle circuit being configured to allow refrigerant to circulate in the refrigeration cycle circuit ; and a controller configured to determine whether the refrigerant leaks or whether the expansion device malfunctions on a basis of a degree of subcooling at an outlet of the condenser and a degree of superheat at an outlet of the evaporator or a degree of superheat at a suction port of the compressor , in a case where the degree of subcooling at the outlet of the condenser is less than or equal to a preset first threshold, and the degree of superheat at the outlet of the evaporator is less than a preset second threshold, the controller being configured to determine that the expansion device malfunctions.
A method for producing a negative electrode carbon material for a lithium secondary battery, the method comprising: coating a graphite particle with a first amorphous carbon film; a first heat treatment of subjecting the graphite particle coated with the first amorphous carbon film to a heat treatment in an oxidizing atmosphere to form a cavity continuing from the first amorphous carbon film to a surface layer of the graphite particle; and a second heat treatment of, following the first heat treatment, subjecting the graphite particle to a heat treatment in an inert gas atmosphere at a higher temperature than in the first heat treatment. coating a graphite particle with a first amorphous carbon film; a first heat treatment of subjecting the graphite particle coated with the first amorphous carbon film to a heat treatment in an oxidizing atmosphere to form a cavity continuing from the first amorphous carbon film to a surface layer of the graphite particle; and a second heat treatment of, following the first heat treatment, subjecting the graphite particle to a heat treatment in an inert gas atmosphere at a higher temperature than in the first heat treatment.