mhurhangee/patent-ind-claim-en huggingface dataset:
A ball rotation amount measurement system for measuring a rotation amount of a ball moving in midair, the system comprising: a magnetic sensor fixed to the ball to measure geomagnetism in at least one axial direction; and a computation unit configured to compute the rotation amount of the ball by using data of a large number of the geomagnetism time-sequentially acquired by the magnetic sensor, wherein the computation unit includes: a difference data calculation unit configured to calculate a difference between two of the time-sequential geomagnetic data to thereby time-sequentially obtain a large number of difference data; a difference waveform calculation unit configured to determine a difference waveform that represents a time variation waveform of a large number of the difference data; and a rotation amount calculation unit configured to calculate the rotation amount of the ball, based on information of zero cross points at which the difference waveform crosses a straight line indicating zero-difference, the magnetic sensor is configured to measure the geomagnetism in three axial directions that are orthogonal to one another, and the difference data calculation unit is configured to calculate the difference data by using geomagnetic data having a largest amplitude among the geomagnetic data obtained in the three axial directions. a magnetic sensor fixed to the ball to measure geomagnetism in at least one axial direction; and a computation unit configured to compute the rotation amount of the ball by using data of a large number of the geomagnetism time-sequentially acquired by the magnetic sensor, wherein the computation unit includes: a difference data calculation unit configured to calculate a difference between two of the time-sequential geomagnetic data to thereby time-sequentially obtain a large number of difference data; a difference waveform calculation unit configured to determine a difference waveform that represents a time variation waveform of a large number of the difference data; and a rotation amount calculation unit configured to calculate the rotation amount of the ball, based on information of zero cross points at which the difference waveform crosses a straight line indicating zero-difference, a difference data calculation unit configured to calculate a difference between two of the time-sequential geomagnetic data to thereby time-sequentially obtain a large number of difference data; a difference waveform calculation unit configured to determine a difference waveform that represents a time variation waveform of a large number of the difference data; and a rotation amount calculation unit configured to calculate the rotation amount of the ball, based on information of zero cross points at which the difference waveform crosses a straight line indicating zero-difference, the magnetic sensor is configured to measure the geomagnetism in three axial directions that are orthogonal to one another, and the difference data calculation unit is configured to calculate the difference data by using geomagnetic data having a largest amplitude among the geomagnetic data obtained in the three axial directions.
A method for configuring an image forming apparatus network, comprising: searching, by an information processing apparatus , neighboring wireless access points, wireless APs, and obtaining a list of searched wireless APs; transmitting, by the information processing apparatus , wireless connection information of a wireless AP from the list and specified by a user to an image forming apparatus , wherein the wireless connection information includes a service set identifier, SSID, of the specified wireless AP; (S401) receiving, by the image forming apparatus , the wireless connection information transmitted by the information processing apparatus ; (S402) searching, by the image forming apparatus , neighboring wireless APs; and obtaining and storing SSIDs, encryption manners, and protected management frame, PMF, attributes, of the searched wireless APs; (S403) comparing, by the image forming apparatus , the received SSID with the stored SSIDs; and if there is consistency, obtaining an encryption manner and a PMF attribute of the received SSID, and generating a configuration file, the configuration file including the received SSID, the encryption manner, and the PMF attributes; and (S404) connecting a wireless network according to the configuration file. searching, by an information processing apparatus , neighboring wireless access points, wireless APs, and obtaining a list of searched wireless APs; transmitting, by the information processing apparatus , wireless connection information of a wireless AP from the list and specified by a user to an image forming apparatus , wherein the wireless connection information includes a service set identifier, SSID, of the specified wireless AP; (S401) receiving, by the image forming apparatus , the wireless connection information transmitted by the information processing apparatus ; (S402) searching, by the image forming apparatus , neighboring wireless APs; and obtaining and storing SSIDs, encryption manners, and protected management frame, PMF, attributes, of the searched wireless APs; (S403) comparing, by the image forming apparatus , the received SSID with the stored SSIDs; and if there is consistency, obtaining an encryption manner and a PMF attribute of the received SSID, and generating a configuration file, the configuration file including the received SSID, the encryption manner, and the PMF attributes; and (S404) connecting a wireless network according to the configuration file.
Method for planning an assisted parking process, wherein the method comprises the following steps: a) reception of parking area information, comprising location-based and distance-based information, within a GPS radius , a vehicle which is searching for a parking space from a server by means of a communication device of the vehicle , wherein the GPS radius moves along while the vehicle is travelling, and the vehicle forms the centre point of the GPS radius or is located at the edge of the GPS radius, b) comparison of the location-based parking area information and a current location information item of the vehicle by a computing unit , and c) determination of an offset from the distance-based parking area information and current distance information which is acquired by surroundings sensors of the vehicle and which is acquired by surroundings sensors of the vehicle, in particular by forming differences, d) path planning of a single-movement parking process of the vehicle by means of a parking assistant , on the basis of the offset and the location-based parking area information. a) reception of parking area information, comprising location-based and distance-based information, within a GPS radius , a vehicle which is searching for a parking space from a server by means of a communication device of the vehicle , wherein the GPS radius moves along while the vehicle is travelling, and the vehicle forms the centre point of the GPS radius or is located at the edge of the GPS radius, b) comparison of the location-based parking area information and a current location information item of the vehicle by a computing unit , and c) determination of an offset from the distance-based parking area information and current distance information which is acquired by surroundings sensors of the vehicle and which is acquired by surroundings sensors of the vehicle, in particular by forming differences, d) path planning of a single-movement parking process of the vehicle by means of a parking assistant , on the basis of the offset and the location-based parking area information.
A method for preparing a polyamide powder PA (homopolyamide or copolyamide) derived at least in part from renewable materials, wherein the particles are of non-spherical shape and have a volume median diameter of less than 30 μm measured by laser diffraction with a Cilas 920 particle size analyzer, the method comprising grinding at ambient temperature a prepolymer powder having inherent viscosity lower than 0.5 (with method 0.5 g/dl in metacresol at 25 °C).
Coupling module for use as an interface between a passenger bridge or passenger boarding stairs and the fuselage of an aircraft, comprising a floor , wherein at least the floor has a floor bumper at its end facing the aircraft fuselage, the floor bumper having a floor bumper segment which is arranged so as to be pivotable about a pivot axis relative to the floor by means of a joint, characterized in that the floor has at least one floor segment , the joint is designed in the manner of a hinge and is arranged on the end face, under or on the floor segment of the coupling module , and in that the pivot axis extends in the main extension plane of the floor segment and is oriented in parallel with its end face. the floor bumper having a floor bumper segment which is arranged so as to be pivotable about a pivot axis relative to the floor by means of a joint, characterized in that the floor has at least one floor segment , the joint is designed in the manner of a hinge and is arranged on the end face, under or on the floor segment of the coupling module , and in that the pivot axis extends in the main extension plane of the floor segment and is oriented in parallel with its end face.
An intraluminal sensing guidewire, comprising: a flexible elongate member configured to be positioned within a body lumen of a patient, wherein the flexible elongate member comprises a metallic core wire extending along a longitudinal axis; a sensing element disposed at a distal portion of the flexible elongate member and configured to obtain physiological data while positioned within the body lumen; a conductive ribbon disposed at a proximal portion of the flexible elongate member; and a filar bundle comprising: a first conductive filar comprising a first material strength, wherein the first conductive filar is configured for electrical communication with the sensing element; a first reinforcement filar comprising a second material strength greater than the first material strength. a flexible elongate member configured to be positioned within a body lumen of a patient, wherein the flexible elongate member comprises a metallic core wire extending along a longitudinal axis; a sensing element disposed at a distal portion of the flexible elongate member and configured to obtain physiological data while positioned within the body lumen; a conductive ribbon disposed at a proximal portion of the flexible elongate member; and a filar bundle comprising: a first conductive filar comprising a first material strength, wherein the first conductive filar is configured for electrical communication with the sensing element; a first reinforcement filar comprising a second material strength greater than the first material strength. a first conductive filar comprising a first material strength, wherein the first conductive filar is configured for electrical communication with the sensing element; a first reinforcement filar comprising a second material strength greater than the first material strength.
A system comprising switching circuitry, wherein the switching circuitry comprises: a metal-oxide-semiconductor field-effect transistor, MOSFET, device coupled to a power source and a load ; and gate drive circuitry coupled to the MOSFET device, wherein the gate drive circuitry comprises a driver coupled to a control terminal of the MOSFET device and processing circuitry coupled to the driver, wherein the processing circuitry is configured to: determine a reverse current surge event across the MOSFET device based on a measurement on the MOSFET device; configure the driver to provide a first voltage as a driving voltage to the MOSFET device that causes the MOSFET device to operate in a third-quadrant conduction mode when there is no reverse current surge event; configure the driver to provide a second voltage as the driving voltage to the MOSFET device that causes the MOSFET device to operate in a body diode mode when there is a reverse current surge event; receive a switching instruction; and cause the driver to provide the driving voltage in response to receiving the switching instruction. a metal-oxide-semiconductor field-effect transistor, MOSFET, device coupled to a power source and a load ; and gate drive circuitry coupled to the MOSFET device, wherein the gate drive circuitry comprises a driver coupled to a control terminal of the MOSFET device and processing circuitry coupled to the driver, wherein the processing circuitry is configured to: determine a reverse current surge event across the MOSFET device based on a measurement on the MOSFET device; configure the driver to provide a first voltage as a driving voltage to the MOSFET device that causes the MOSFET device to operate in a third-quadrant conduction mode when there is no reverse current surge event; configure the driver to provide a second voltage as the driving voltage to the MOSFET device that causes the MOSFET device to operate in a body diode mode when there is a reverse current surge event; receive a switching instruction; and cause the driver to provide the driving voltage in response to receiving the switching instruction. determine a reverse current surge event across the MOSFET device based on a measurement on the MOSFET device; configure the driver to provide a first voltage as a driving voltage to the MOSFET device that causes the MOSFET device to operate in a third-quadrant conduction mode when there is no reverse current surge event; configure the driver to provide a second voltage as the driving voltage to the MOSFET device that causes the MOSFET device to operate in a body diode mode when there is a reverse current surge event; receive a switching instruction; and cause the driver to provide the driving voltage in response to receiving the switching instruction.
A method for storing cards , the method using a packing box storing cards constituting a predetermined number of decks to store the cards in the packing box in a card shooter device for dealing the cards on a game table , wherein the packing box has a rectangular parallelepiped shape, includes a cut line parallel to a longitudinal direction of a rectangular parallelepiped, and is adapted to be able to expose respective side surfaces of the cards within the packing box by dividing the packing box along the cut line to remove a left or right side surface of the packing box , and the card shooter device comprises a main unit including a card storage section storing the cards constituting the predetermined number of decks , and a bottom face , inclined forward, for guiding the cards onto the game table from the card storage section , and a front cover provided in front of the main unit and removably mounted on the main unit in cooperation with an engagement member , the method comprising: a step of removing the front cover from the main unit in the card shooter device ; a side surface exposure step of preparing the packing box storing the cards constituting the predetermined number of decks , and exposing the side surfaces of the cards in the packing box by dividing the packing box along the cut line in the packing box to remove the left or right side surface of the packing box ; a card storage step of sliding and storing the cards in the card storage section while the cards , together with a part of the packing box , are guided by the bottom face from the front of the main unit from which the front cover is removed; and a storage completion step of removing the packing box from the card storage section and leaving only the cards in the card storage section . a step of removing the front cover from the main unit in the card shooter device ; a side surface exposure step of preparing the packing box storing the cards constituting the predetermined number of decks , and exposing the side surfaces of the cards in the packing box by dividing the packing box along the cut line in the packing box to remove the left or right side surface of the packing box ; a card storage step of sliding and storing the cards in the card storage section while the cards , together with a part of the packing box , are guided by the bottom face from the front of the main unit from which the front cover is removed; and a storage completion step of removing the packing box from the card storage section and leaving only the cards in the card storage section .
Mount for fastening a unit , in particular a pump, to a motor vehicle - having a damping element and a fastening element which is connected to the damping element , - wherein the damping element can be connected to the unit , - wherein the fastening element comprises at least one leg and one attachment section which is connected to the leg , - wherein the leg is designed to stiffen the damping element at least sectionally, - wherein the attachment section can be connected to the motor vehicle , - characterized in that a thickness (s 1 , s 2 , s 3 , s 4 ) of the leg decreases with increasing distance (a 1 , a 2 ) from the attachment section . - having a damping element and a fastening element which is connected to the damping element , - wherein the damping element can be connected to the unit , - wherein the fastening element comprises at least one leg and one attachment section which is connected to the leg , - wherein the leg is designed to stiffen the damping element at least sectionally, - wherein the attachment section can be connected to the motor vehicle , - characterized in that a thickness (s 1 , s 2 , s 3 , s 4 ) of the leg decreases with increasing distance (a 1 , a 2 ) from the attachment section .
A method for manufacturing an Ag-based electrical contact material characterized in that it comprises the steps of: a. synthesizing an intermetallic compound of Me x Sn y type ; b. ball milling the intermetallic compound; c. mixing the so obtained intermetallic compound powder with silver powder; d. packing the mixed powders into a green body; e. forming a MeO-SnO 2 cluster structure by internally oxidizing the intermetallic compound Me x Sn y while sintering the green body, wherein Me is selected among: copper, molybdenum, iron, manganese, nickel, indium, antimony. a. synthesizing an intermetallic compound of Me x Sn y type ; b. ball milling the intermetallic compound; c. mixing the so obtained intermetallic compound powder with silver powder; d. packing the mixed powders into a green body; e. forming a MeO-SnO 2 cluster structure by internally oxidizing the intermetallic compound Me x Sn y while sintering the green body,
An electrical connector , comprising: a first-housing having a first-electrical-terminal ; and a second-housing configured to mate with the first-housing , the second-housing including a protective-shroud and a second-electrical-terminal disposed within the protective-shroud , the protective-shroud having a front-side , a back-side aligned parallel to the front-side , a first-wall aligned orthogonal to both the front-side and the back-side , and a second-wall aligned parallel to the first-wall , the front-side defining a first-opening that exposes a leading-edge of the second-electrical-terminal , characterized in that the back-side includes an extension aligned perpendicular to the back-side , the extension defining a second-opening that exposes a portion of a trailing-edge of the second-electrical-terminal , the protective-shroud defines a terminal-slot extending from the second-opening to the first-opening and bounded by the first-wall and the second-electrical-terminal , the terminal-slot configured to receive the first-electrical-terminal , wherein when the first-housing is mated with the second-housing the first-electrical-terminal is disposed within the terminal-slot in electrical and physical contact with the second-electrical-terminal and the first-wall and the extension stabilize the first-electrical-terminal . a first-housing having a first-electrical-terminal ; and a second-housing configured to mate with the first-housing , the second-housing including a protective-shroud and a second-electrical-terminal disposed within the protective-shroud , the protective-shroud having a front-side , a back-side aligned parallel to the front-side , a first-wall aligned orthogonal to both the front-side and the back-side , and a second-wall aligned parallel to the first-wall , the front-side defining a first-opening that exposes a leading-edge of the second-electrical-terminal , characterized in that the back-side includes an extension aligned perpendicular to the back-side , the extension defining a second-opening that exposes a portion of a trailing-edge of the second-electrical-terminal , the protective-shroud defines a terminal-slot extending from the second-opening to the first-opening and bounded by the first-wall and the second-electrical-terminal , the terminal-slot configured to receive the first-electrical-terminal , wherein when the first-housing is mated with the second-housing the first-electrical-terminal is disposed within the terminal-slot in electrical and physical contact with the second-electrical-terminal and the first-wall and the extension stabilize the first-electrical-terminal .
A safety method, performed by a control device for a vehicle assembled from a set of modules , the vehicle comprising at least two modules , including: at least one drive module ; and at least one functional module , wherein the control device is comprised in any of the at least two modules , and wherein the at least one drive module comprises a pair of wheels and is configured to be autonomously operated, the method comprising: detecting (s101) an emergency situation in any of the at least two modules of the assembled vehicle ; transmitting (s102) information about the detected emergency situation to a control centre ; controlling (s103) the module associated with the emergency situation to physically disconnect from the assembled vehicle ; Identifying (s107) a safe space where the emergency situation in the assembled vehicle will have a reduced impact on the environment; and controlling (s108) the assembled vehicle to move to the identified safe space prior to physically disconnecting the module . at least one drive module ; and at least one functional module , detecting (s101) an emergency situation in any of the at least two modules of the assembled vehicle ; transmitting (s102) information about the detected emergency situation to a control centre ; controlling (s103) the module associated with the emergency situation to physically disconnect from the assembled vehicle ; Identifying (s107) a safe space where the emergency situation in the assembled vehicle will have a reduced impact on the environment; and controlling (s108) the assembled vehicle to move to the identified safe space prior to physically disconnecting the module .