mhurhangee/patent-ind-claim-en huggingface dataset:
A method of aligning a mobile device having an accelerometer , a gyroscope , and an alignment axis to a reference frame of a vehicle, the method comprising: placing the mobile device in the vehicle; obtaining acceleration data from the accelerometer of the mobile device during a driving event; partitioning the acceleration data into a plurality of windows; classifying the acceleration data within each window of the plurality of windows to detect: one or more braking events represented by acceleration data classified as a braking event in a first set of windows of the plurality of windows during the driving event; and one or more forward acceleration events represented by acceleration data classified as a forward acceleration event in a second set of windows during the driving event; determining, using the one or more forward acceleration and/or the one or more braking events, a direction of travel of the vehicle with respect to the reference frame of the vehicle relative to the direction of the mobile device; obtaining angular measurement data from the gyroscope of the mobile device; and during the driving event, aligning, using the angular measurement data, the alignment axis of the mobile device to the reference frame of the vehicle. placing the mobile device in the vehicle; obtaining acceleration data from the accelerometer of the mobile device during a driving event; partitioning the acceleration data into a plurality of windows; classifying the acceleration data within each window of the plurality of windows to detect: one or more braking events represented by acceleration data classified as a braking event in a first set of windows of the plurality of windows during the driving event; and one or more forward acceleration events represented by acceleration data classified as a forward acceleration event in a second set of windows during the driving event; one or more braking events represented by acceleration data classified as a braking event in a first set of windows of the plurality of windows during the driving event; and one or more forward acceleration events represented by acceleration data classified as a forward acceleration event in a second set of windows during the driving event; determining, using the one or more forward acceleration and/or the one or more braking events, a direction of travel of the vehicle with respect to the reference frame of the vehicle relative to the direction of the mobile device; obtaining angular measurement data from the gyroscope of the mobile device; and during the driving event, aligning, using the angular measurement data, the alignment axis of the mobile device to the reference frame of the vehicle.
A method for correcting a State of Health, SOH, comprising: obtaining a relationship curve between a ratio of an accumulated charge/discharge capacity variation to a corresponding voltage-parameter variation of a battery cell and a voltage parameter; determining a valid peak point on the relationship curve; determining a SOH calibration value corresponding to a voltage parameter datum at the valid peak point based on a pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values; and correcting a current SOH according to the SOH calibration value, wherein the method is characterised in that the determining a SOH calibration value corresponding to a voltage parameter datum at the valid peak point based on a pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values comprises: determining a unique valid peak point from all peak points on the relationship curve; and determining a SOH calibration value corresponding to a voltage parameter datum at the unique valid peak point based on the pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values. obtaining a relationship curve between a ratio of an accumulated charge/discharge capacity variation to a corresponding voltage-parameter variation of a battery cell and a voltage parameter; determining a valid peak point on the relationship curve; determining a SOH calibration value corresponding to a voltage parameter datum at the valid peak point based on a pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values; and correcting a current SOH according to the SOH calibration value, wherein the method is characterised in that the determining a SOH calibration value corresponding to a voltage parameter datum at the valid peak point based on a pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values comprises: determining a unique valid peak point from all peak points on the relationship curve; and determining a SOH calibration value corresponding to a voltage parameter datum at the unique valid peak point based on the pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values. determining a unique valid peak point from all peak points on the relationship curve; and determining a SOH calibration value corresponding to a voltage parameter datum at the unique valid peak point based on the pre-calibrated corresponding relationship between peak voltage parameter data and SOH calibration values.
A method for removing acidic noxious gases from an exhaust gas having a low exhaust-gas temperature, in which the exhaust gas is conducted via an exhaust-gas channel into a reaction section and sodium carbonate, which has been produced beforehand by means of the activation and splitting of a precursor product of sodium carbonate, is supplied to the exhaust gas in the exhaust-gas channel or in the reaction section and the sodium carbonate reacts as a sorbent with the noxious gases in the reaction section so that the exhaust gas, after it has passed a filter following the reaction section , is present as clean gas, a portion of the clean gas being branched off as partial clean gas flow into a return line which leads back into the exhaust-gas channel and/or into the reaction section , the precursor product of sodium carbonate being dosed into the partial clean gas flow at a dosing point in the return line and split there, the partial clean gas flow being heated to an activation temperature upstream of the dosing point , so that the precursor product of sodium carbonate is dosed into a heated partial clean gas flow at the dosing point , and at least 85% of the precursor product having been split in the return line before it is returned with the partial clean gas flow into the reaction section , characterized in that the method is applied at an exhaust-gas temperature of less than 150°C, in that the residence time of the sorbent in the reaction section is chosen such that it is converted at least to 85% to reaction product on leaving the reaction section and is no longer present as hydrogen carbonate, in that the portion of the clean gas, which is branched off as partial clean gas flow into the return line , is less than 8% of the clean gas flow, in that the partial clean gas flow in the return line is heated such that the return temperature thereof, that is the temperature which is present before return into the reaction section , is 150-180°C, in that the activation temperature is 180-300°C, preferably 180-260°C, and in that the activation temperature is regulated by means of a predetermined set-point value for the return temperature, wherein a heating device is provided for heating the partial clean gas flow in the return line , the output of which is regulated in the case of a set constant partial clean gas flow in such a manner that the return temperature corresponds to the set-point temperature.
A vertical axis wind power generation device comprising: a wind turbine of a vertical axis type including a support column , a main shaft disposed on an upper portion of the support column so as to be rotatable about a vertical axis, a plurality of blades extending in a vertical direction around the main shaft and coupled to the main shaft through arms ; a power generator configured to generate electric power by rotation of the main shaft; and a container having a standard dimension for freight transport, wherein the wind turbine is accommodatable in the container together with the power generator, the container is provided with a support-column fixing part configured to fix the support column of the wind turbine to the container, and the support-column fixing part includes a two-pronged metal fitting having a semicircular receiving part matching a part of an outer periphery of the support column and a base end fixed to a lower surface of a ceiling of the container . a wind turbine of a vertical axis type including a support column , a main shaft disposed on an upper portion of the support column so as to be rotatable about a vertical axis, a plurality of blades extending in a vertical direction around the main shaft and coupled to the main shaft through arms ; a power generator configured to generate electric power by rotation of the main shaft; and a container having a standard dimension for freight transport, wherein the wind turbine is accommodatable in the container together with the power generator, the container is provided with a support-column fixing part configured to fix the support column of the wind turbine to the container, and the support-column fixing part includes a two-pronged metal fitting having a semicircular receiving part matching a part of an outer periphery of the support column and a base end fixed to a lower surface of a ceiling of the container .
A manufacturing method of an electronic device, comprising steps of: forming (S01) a flexible substrate on a rigid carrier plate , wherein the flexible substrate includes an active region (Al); forming (S02) a plurality of thin-film devices directly on the flexible substrate in the active region (A1) of the flexible substrate ; forming (S03) a thin-film conductive line directly on the flexible substrate , wherein the thin-film conductive line is directly electrically connected with the thin-film devices ; forming (S04) a plurality of electrical connection pads on the flexible substrate , wherein the electrical connection pads are electrically connected with the thin-film conductive line , and a thickness of the electrical connection pads is between 2 micrometers and 20 micrometers disposing a plurality of solders on the electrical connection pads respectively; disposing (S05) a plurality of surface-mount devices, SMDs, on the solders respectively by a surface-mount technology, SMT, wherein the SMDs are electrically connected with the thin-film devices through the solders , the electrical connection pads and the thin-film conductive line , and wherein the SMDs are disposed on the active region (A1) of the flexible substrate , so that each thin-film device of the plurality of thin-film devices controls one or more SMDs, of the plurality of SMDs, , wherein the SMDs do not overlap with the thin-film devices ; and removing (S06) the rigid carrier plate . forming (S01) a flexible substrate on a rigid carrier plate , wherein the flexible substrate includes an active region (Al); forming (S02) a plurality of thin-film devices directly on the flexible substrate in the active region (A1) of the flexible substrate ; forming (S03) a thin-film conductive line directly on the flexible substrate , wherein the thin-film conductive line is directly electrically connected with the thin-film devices ; forming (S04) a plurality of electrical connection pads on the flexible substrate , wherein the electrical connection pads are electrically connected with the thin-film conductive line , and a thickness of the electrical connection pads is between 2 micrometers and 20 micrometers disposing a plurality of solders on the electrical connection pads respectively; disposing (S05) a plurality of surface-mount devices, SMDs, on the solders respectively by a surface-mount technology, SMT, wherein the SMDs are electrically connected with the thin-film devices through the solders , the electrical connection pads and the thin-film conductive line , and wherein the SMDs are disposed on the active region (A1) of the flexible substrate , so that each thin-film device of the plurality of thin-film devices controls one or more SMDs, of the plurality of SMDs, , wherein the SMDs do not overlap with the thin-film devices ; and removing (S06) the rigid carrier plate .
An embossing roll having a cylindrical surface , the cylindrical surface comprising a central portion having an embossing pattern and side portions arranged on each side of the central portion, which are free from embossing pattern, characterised in that circumferential buffer channels are provided on each side of the central portion , between the central portion and the side portions, along the cylindrical surface of the embossing roll.
A beverage extraction device , comprising: a base for supporting components of the beverage extraction device; at least one clamp arm mounted to the base and movable to clamp a beverage container neck; a body movably mounted to the base; and a needle having at least one lumen extending from a proximal end to a distal end, the proximal end of the needle being mounted to the body, the needle being arranged to be inserted through a closure at an opening of the beverage container with movement of the body relative to the base characterized in that the at least one clamp arm is spring biased to move and clamp the container neck with a spring force sufficient to suspend the device on a beverage container. a base for supporting components of the beverage extraction device; at least one clamp arm mounted to the base and movable to clamp a beverage container neck; a body movably mounted to the base; and a needle having at least one lumen extending from a proximal end to a distal end, the proximal end of the needle being mounted to the body, the needle being arranged to be inserted through a closure at an opening of the beverage container with movement of the body relative to the base characterized in that the at least one clamp arm is spring biased to move and clamp the container neck with a spring force sufficient to suspend the device on a beverage container.
A heat exchange system for a turbomachine, comprising a heat exchanger that comprises a support wall (22; 54; 53) that extends substantially along a longitudinal direction L and a plurality of fins (23; 230; 230a; 230b) each extending along a radial direction from a radially outer surface of the support wall (22; 54; 53) and intended to be swept by a flow of air, characterized in that the heat exchanger comprises a first profiled wall (25; 51a, 55a) arranged upstream of the fins (23; 230; 230a; 230b) and configured so as to guide and slow down the flow of air entering the heat exchanger through the fins and a second profiled wall (26; 51b, 55b) arranged downstream of the fins and configured to accelerate the flow of air exiting the heat exchanger, each first and second profiled wall (25, 26; 51a, 55a, 51b, 55b) being attached to the support wall via support elements extending radially from the radially outer surface .
An electronic mirror apparatus comprising: pickup means provided on at least one of a right lateral surface and a left lateral surface of a vehicle , the pickup means being configured to pick up an image of a predetermined pickup range in a vehicle lateral direction and in a vehicle rearward direction; display means disposed at such a position that a driver visually recognizes the display means; and processing means configured to perform a process for displaying the image picked up by the pickup means , on the display means , the processing means being configured to display, on the image, an assist image expressing at least one of an outer part of a region in which the vehicle occupies a road surface in planar view of the vehicle and an outside position a predetermined distance away from the outer part of the region in which the vehicle occupies the road surface in the planar view of the vehicle , characterized in that the image picked up by the pickup means and the image displayed on the display means are the same image of the predetermined pickup range, and the processing means are configured to perform a process for displaying the predetermined pickup range on the display means , the predetermined pickup range being one of - a range from a vehicle right lateral direction to a vehicle right rearward direction and that contains the road surface, and - a range from a vehicle left lateral direction to a vehicle left rearward direction and that contains the road surface. pickup means provided on at least one of a right lateral surface and a left lateral surface of a vehicle , the pickup means being configured to pick up an image of a predetermined pickup range in a vehicle lateral direction and in a vehicle rearward direction; display means disposed at such a position that a driver visually recognizes the display means; and processing means configured to perform a process for displaying the image picked up by the pickup means , on the display means , the processing means being configured to display, on the image, an assist image expressing at least one of an outer part of a region in which the vehicle occupies a road surface in planar view of the vehicle and an outside position a predetermined distance away from the outer part of the region in which the vehicle occupies the road surface in the planar view of the vehicle , - a range from a vehicle right lateral direction to a vehicle right rearward direction and that contains the road surface, and - a range from a vehicle left lateral direction to a vehicle left rearward direction and that contains the road surface.
An article of footwear , comprising: an upper , the upper comprising a plantar section , side sections , and a dorsal section , the plantar , side and dorsal sections defining a void ; a chassis comprising a base and a frame , wherein the chassis is located in a bottom of the void , a bottom side of the base is fixed relative to a top surface of the plantar section , the frame is disposed at a top side of the base , and the frame comprises a network of interconnected walls defining a plurality of cells , each of at least a portion of the cells having a bottom at least partially closed by an underlying portion of the base ; and a sock liner within the void and resting on a top of the chassis , wherein a bottom of the sock liner includes downwardly-extending tabs , each of the tabs extending into a corresponding one of the cells . an upper , the upper comprising a plantar section , side sections , and a dorsal section , the plantar , side and dorsal sections defining a void ; a chassis comprising a base and a frame , wherein the chassis is located in a bottom of the void , a bottom side of the base is fixed relative to a top surface of the plantar section , the frame is disposed at a top side of the base , and the frame comprises a network of interconnected walls defining a plurality of cells , each of at least a portion of the cells having a bottom at least partially closed by an underlying portion of the base ; and the chassis is located in a bottom of the void , a bottom side of the base is fixed relative to a top surface of the plantar section , the frame is disposed at a top side of the base , and the frame comprises a network of interconnected walls defining a plurality of cells , each of at least a portion of the cells having a bottom at least partially closed by an underlying portion of the base ; and a sock liner within the void and resting on a top of the chassis , wherein a bottom of the sock liner includes downwardly-extending tabs , each of the tabs extending into a corresponding one of the cells .
A front-end for a frequency-modulated continuous wave radar system comprising: a transmit path including a power amplifier and a transmit antenna , the transmit path being configured for transmitting a transmit signal ; a receive path including a receive antenna and a low-noise amplifier , the receive path being configured for receiving at least a leakage from the transmit path, and for generating an amplified signal thereof; a reference path derived from the transmit path and configured for generating a reference signal ; and a mixer configured for mixing the amplified signal with the reference signal to generate an output signal at intermediate frequency; wherein the front-end further comprises a compensation unit in the reference path, the compensation unit being configured for generating compensation for a leakage path between the transmit path and the receive path and for applying the generated compensation to the reference signal to generate a compensated reference signal ; and wherein the compensation unit is further configured for compensating for delay in leakage propagation time due to at least the leakage between the transmit path and the receive path; and wherein the front-end further comprises a leakage suppression filter in the receive path, the leakage suppression filter being configured for removing DC components in the output signal resulting from mixing the amplified signal with the compensated reference signal . a transmit path including a power amplifier and a transmit antenna , the transmit path being configured for transmitting a transmit signal ; a receive path including a receive antenna and a low-noise amplifier , the receive path being configured for receiving at least a leakage from the transmit path, and for generating an amplified signal thereof; a reference path derived from the transmit path and configured for generating a reference signal ; and a mixer configured for mixing the amplified signal with the reference signal to generate an output signal at intermediate frequency; wherein the front-end further comprises a compensation unit in the reference path, the compensation unit being configured for generating compensation for a leakage path between the transmit path and the receive path and for applying the generated compensation to the reference signal to generate a compensated reference signal ; and wherein the compensation unit is further configured for compensating for delay in leakage propagation time due to at least the leakage between the transmit path and the receive path; and wherein the front-end further comprises a leakage suppression filter in the receive path, the leakage suppression filter being configured for removing DC components in the output signal resulting from mixing the amplified signal with the compensated reference signal .