mhurhangee/patent-ind-claim-en huggingface dataset:
A microprocessor system , comprising: a matrix computational unit (313, 351-357) that includes one or more processing elements; and a control unit configured to provide a matrix processor instruction to the matrix computational unit (313, 351-357), wherein the matrix processor instruction specifies a floating-point operand formatted with an exponent that has been biased with a specified configurable bias, wherein the floating-point operand is a matrix, and wherein the matrix processor instruction specifies a floating-point format for the floating-point operand from a group of floating-point formats . a matrix computational unit (313, 351-357) that includes one or more processing elements; and a control unit configured to provide a matrix processor instruction to the matrix computational unit (313, 351-357), wherein the matrix processor instruction specifies a floating-point operand formatted with an exponent that has been biased with a specified configurable bias, wherein the floating-point operand is a matrix,
A method of controlling radio communication in a wireless communication network, the method comprising: a wireless device (11; 600; 1100) determining a position of the wireless device (11; 600; 1100) based on an optical communication signal transmitted between the wireless device (11; 600; 1100) and one or more first access points (10; 800; 1200) of the wireless communication network; and characterised by based on the determined position, the wireless device (11; 600; 1100) controlling beamforming processing of radio communication signals transmitted between the wireless device (11; 600; 1100) and one or more second access points (10; 800; 1200) of the wireless communication network. a wireless device (11; 600; 1100) determining a position of the wireless device (11; 600; 1100) based on an optical communication signal transmitted between the wireless device (11; 600; 1100) and one or more first access points (10; 800; 1200) of the wireless communication network; and characterised by based on the determined position, the wireless device (11; 600; 1100) controlling beamforming processing of radio communication signals transmitted between the wireless device (11; 600; 1100) and one or more second access points (10; 800; 1200) of the wireless communication network.
Method for operating a lane-keeping assistant system of an at least partially assisted motor vehicle , in which, by means of an optical detection device of the lane-keeping assistant system , surroundings of the motor vehicle with a potential lane are detected and evaluated by means of an electronic computing device of the lane-keeping assistant system , and in which, according to the evaluated surroundings , an at least partially assisted lane-keeping movement is carried out according to the evaluated surroundings by means of a transverse control device of the lane-keeping assistant system , in which, when the surroundings are evaluated, swarm data provided by an electronic computing device external to the vehicle is taken into account, in which, based on the swarm data , a route which can be driven in the future, which is outside of a detection region of the optical detection device , is evaluated, and a future partially assisted lane-keeping movement for the transverse control device is determined, in which, based on the swarm data , an at least partially drivable length (L) of the lane and/or a time in the lane which can be driven with at least partial assistance is determined without detecting the lane by means of the optical detection device , characterized in that , when determining the length (L) and/or the time, current weather and/or a road type and/or an event and/or a driver status of a driver of the motor vehicle and/or a history of the swarm data are taken into account. based on the swarm data , a route which can be driven in the future, which is outside of a detection region of the optical detection device , is evaluated, and a future partially assisted lane-keeping movement for the transverse control device is determined, in which, based on the swarm data , an at least partially drivable length (L) of the lane and/or a time in the lane which can be driven with at least partial assistance is determined without detecting the lane by means of the optical detection device , characterized in that , when determining the length (L) and/or the time, current weather and/or a road type and/or an event and/or a driver status of a driver of the motor vehicle and/or a history of the swarm data are taken into account.
A handle arrangement for a door , comprising a handle arranged to move rotationally around a rotational axis (C) between an open state and a closed state, and a locking means for engaging with a locking element on a door frame , an intermediate link arranged between the handle and the locking means and arranged for transforming the rotational movement of the handle to substantially linear movement of the locking means, a connection element , a handle body comprising an arced portion , wherein the handle is connected to the intermediate link by the connection element , and the intermediate link is arranged to perform a movement following an arcuate path when the handle is moved between the open state and the closed state, characterized in that the arcuate path of the intermediate link corresponds to the curvature of the arced portion of the handle body , and in that the arced portion of the handle body comprises a guide track arranged to guide the intermediate link along its arcuate path. a handle arranged to move rotationally around a rotational axis (C) between an open state and a closed state, and a locking means for engaging with a locking element on a door frame , an intermediate link arranged between the handle and the locking means and arranged for transforming the rotational movement of the handle to substantially linear movement of the locking means, a connection element , a handle body comprising an arced portion , wherein the handle is connected to the intermediate link by the connection element , and the intermediate link is arranged to perform a movement following an arcuate path when the handle is moved between the open state and the closed state, characterized in that the arcuate path of the intermediate link corresponds to the curvature of the arced portion of the handle body , and in that the arced portion of the handle body comprises a guide track arranged to guide the intermediate link along its arcuate path.
An accumulator for storing fluid, comprising: a shell that defines an interior volume , the shell including at least one port for providing fluid to a fluid system; an accumulator shaft disposed in the interior volume and extending at least partially across the interior volume from a first interior surface of the shell along a longitudinal axis (A-A) of the shell ; and a piston-plate disposed in the interior volume such that the piston-plate and a second interior surface of the shell define a chamber in the interior volume , the chamber to be in fluid communication with the fluid system via the at least one port ; a motor coupled to the piston-plate and having a shaft that interfaces to the accumulator shaft , wherein a rotational movement of the motor translates to a linear movement of the piston-plate along the accumulator shaft such that a volume of the chamber varies based on a position of the piston-plate along the accumulator shaft , a decreasing chamber volume to inject fluid into the system via the at least one port and an increasing chamber volume to receive fluid from the system via the at least one port for storage in the chamber, characterised in that : the motor has an outer radial surface that interfaces to an interior surface of the shell , and in that the motor is an outer-rotor type motor and the interface between the interior surface of the shell and the outer radial surface of the motor is a threaded surface. a shell that defines an interior volume , the shell including at least one port for providing fluid to a fluid system; an accumulator shaft disposed in the interior volume and extending at least partially across the interior volume from a first interior surface of the shell along a longitudinal axis (A-A) of the shell ; and a piston-plate disposed in the interior volume such that the piston-plate and a second interior surface of the shell define a chamber in the interior volume , the chamber to be in fluid communication with the fluid system via the at least one port ; a motor coupled to the piston-plate and having a shaft that interfaces to the accumulator shaft , wherein a rotational movement of the motor translates to a linear movement of the piston-plate along the accumulator shaft such that a volume of the chamber varies based on a position of the piston-plate along the accumulator shaft , a decreasing chamber volume to inject fluid into the system via the at least one port and an increasing chamber volume to receive fluid from the system via the at least one port for storage in the chamber, characterised in that : the motor has an outer radial surface that interfaces to an interior surface of the shell , and in that the motor is an outer-rotor type motor and the interface between the interior surface of the shell and the outer radial surface of the motor is a threaded surface.
A method for removing soil from a surface to be cleaned, wherein the method is performed in a dish washer, and wherein the method comprises the steps of: a) providing one or more soiled ware, particularly soiled dishes, in a dish washer; b) contacting the one or more soiled ware in contact with an aqueous cleaning composition, wherein the cleaning composition contains both a detergent with a peroxidation catalyst and a rinse aid with an oxygen source, wherein the detergent is a detergent mixture; and c) contacting the one or more soiled ware with the rinse aid, while the ware is covered with the cleaning composition. a) providing one or more soiled ware, particularly soiled dishes, in a dish washer; b) contacting the one or more soiled ware in contact with an aqueous cleaning composition, wherein the cleaning composition contains both a detergent with a peroxidation catalyst and a rinse aid with an oxygen source, wherein the detergent is a detergent mixture; and c) contacting the one or more soiled ware with the rinse aid, while the ware is covered with the cleaning composition.
A system for speed control during motoring of a first gas turbine engine of an aircraft comprising at least two gas turbine engines , the system comprising: an air turbine starter ; a starter air valve operable to deliver compressed air to the air turbine starter ; and a controller operable to adjust the starter air valve to control motoring of the first gas turbine engine based on measured feedback with lead compensation providing a phase lead with a positive phase angle frequency response to reject disturbances attributable to dual to single or single to dual engine starting transitions between the at least two gas turbine engines . an air turbine starter ; a starter air valve operable to deliver compressed air to the air turbine starter ; and a controller operable to adjust the starter air valve to control motoring of the first gas turbine engine based on measured feedback with lead compensation providing a phase lead with a positive phase angle frequency response to reject disturbances attributable to dual to single or single to dual engine starting transitions between the at least two gas turbine engines .
A method of allocating transport resources in the transport network to beams in a network area, wherein the beams comprise beam formed radio channels between antenna points and wireless devices in the network area, the method comprising: receiving candidate beam information relating to a plurality of candidate beams for use in future communications between antenna points and wireless devices ; and predicting which nodes of the network will require more or less transport resources than they are currently provided with, based on the candidate beam information; and allocating transport resources to one or more antenna points in the network area based on the candidate beam information . receiving candidate beam information relating to a plurality of candidate beams for use in future communications between antenna points and wireless devices ; and predicting which nodes of the network will require more or less transport resources than they are currently provided with, based on the candidate beam information; and allocating transport resources to one or more antenna points in the network area based on the candidate beam information .
Headpiece for a dental or surgical handpiece , wherein the headpiece serves to releasably receive a dental tool , wherein a clamping mechanism for releasably holding the tool is formed in the headpiece , which has a pushbutton for actuating the clamping mechanism , characterized in that the pushbutton consists of a thermally insulating, electrically non-conductive plastic or ceramic material in which a plate-shaped recess is formed, an RFID transponder provided for identifying the handpiece being arranged in said plate-shaped recess. wherein the headpiece serves to releasably receive a dental tool , wherein a clamping mechanism for releasably holding the tool is formed in the headpiece , which has a pushbutton for actuating the clamping mechanism , characterized in that the pushbutton consists of a thermally insulating, electrically non-conductive plastic or ceramic material in which a plate-shaped recess is formed, an RFID transponder provided for identifying the handpiece being arranged in said plate-shaped recess.
A screen capture method, comprising: when it is detected that two fingers swipe parallel in a same direction on a screen, acquiring a screen capture region according to the same-direction parallel swiping; acquiring swipe tracks of the same-direction parallel swiping according to the same-direction parallel swiping; acquiring start point positions and/or end point positions of the same-direction parallel swiping according to the same-direction parallel swiping; and acquiring, according to the screen capture region, an image displayed in the screen capture region; wherein the acquiring a screen capture region according to the same-direction parallel swiping specifically comprises: acquiring the screen capture region according to any one or any combination of multiple of the start point positions, the end point positions, and the swipe tracks when the start point positions and/or the end point positions are in a display region at a screen edge. when it is detected that two fingers swipe parallel in a same direction on a screen, acquiring a screen capture region according to the same-direction parallel swiping; acquiring swipe tracks of the same-direction parallel swiping according to the same-direction parallel swiping; acquiring start point positions and/or end point positions of the same-direction parallel swiping according to the same-direction parallel swiping; and acquiring, according to the screen capture region, an image displayed in the screen capture region; wherein the acquiring a screen capture region according to the same-direction parallel swiping specifically comprises: acquiring the screen capture region according to any one or any combination of multiple of the start point positions, the end point positions, and the swipe tracks when the start point positions and/or the end point positions are in a display region at a screen edge.
Interface element (60; 60') for a utility vehicle (N), comprising electronic components, wherein the electronic components have at least one connection (62; 62') to at least one data interface of a utility vehicle (N), wherein the connection (62; 62') is suitable and is provided for the exchange of measurement data and/or control and/or regulation data for the regulation of electronic components, wherein the electronic components further have at least one integrated measurement and/or control and/or regulation unit, wherein the interface element (60; 60') does not have a sensor and/or an actuator, characterized in that the interface element enables decentralized control and/or regulation electronics which are independent of central control units in the vehicle architecture, and wherein the interface element (60; 60') can be used to actuate valves of an ABS system of the utility vehicle, an electronic brake system of the utility vehicle, an air suspension system of the utility vehicle, an air treatment system of the utility vehicle or a pressure supply system of the utility vehicle.
An image forming system operable to perform image formation on a sheet, the system comprising: a storage unit for storing a sheet; conveyance means for conveying a sheet along a conveyance path; sheet size setting means for setting a size of the sheet stored in the storage unit; sheet size detection means for detecting a size of the sheet conveyed by the conveyance means; obtainment means (80, S1102) for obtaining a difference between the size set by the sheet size setting means and the size detected by the sheet size detection means; and control means for controlling image formation, wherein when the difference is greater than a first reference value, the control means interrupts image formation, and when the difference is less than or equal to the first reference value and greater than a second reference value, which is smaller than the first reference value, the control means notifies a warning without interrupting image formation. a storage unit for storing a sheet; conveyance means for conveying a sheet along a conveyance path; sheet size setting means for setting a size of the sheet stored in the storage unit; sheet size detection means for detecting a size of the sheet conveyed by the conveyance means; obtainment means (80, S1102) for obtaining a difference between the size set by the sheet size setting means and the size detected by the sheet size detection means; and control means for controlling image formation, wherein when the difference is greater than a first reference value, the control means interrupts image formation, and when the difference is less than or equal to the first reference value and greater than a second reference value, which is smaller than the first reference value, the control means notifies a warning without interrupting image formation.
Procedure for detecting a harmonic pollution within an electricity distribution network transmitting an electrical current, comprising - A measurement step for at least one voltage and at least one magnitude of the said current, for each of the said phases, at a metering point (P1, P2, P3, P4) of the said network; characterized by : - A calculation step of a first quaternion-based impedance corresponding to the basic frequency of the said current; - A calculation step of at least one second quaternion-based impedance corresponding to a harmonic frequency of the said current; The said impedances are calculated by transforming the said voltages and magnitudes in a two-dimensional transform, defined according to an angle based on the said frequency in order to provide a system of 2 vectors of 3 quantities, ud, uq, uo and id, iq, io, respectively. Then, after using quaternion notation, by applying the expressions: For the real part: Z r = u d × i d + u q × i q i d × i d + i q × i q For the imaginary part: Zi = u q × i d + u d × i q i d × i d + i q × i q - A determination step of a harmonic pollution based on the difference between the said first impedance and the said at least second impedance. - A measurement step for at least one voltage and at least one magnitude of the said current, for each of the said phases, at a metering point (P1, P2, P3, P4) of the said network; - A calculation step of a first quaternion-based impedance corresponding to the basic frequency of the said current; - A calculation step of at least one second quaternion-based impedance corresponding to a harmonic frequency of the said current; The said impedances are calculated by transforming the said voltages and magnitudes in a two-dimensional transform, defined according to an angle based on the said frequency in order to provide a system of 2 vectors of 3 quantities, ud, uq, uo and id, iq, io, respectively. Then, after using quaternion notation, by applying the expressions: For the real part: Z r = u d × i d + u q × i q i d × i d + i q × i q For the imaginary part: Zi = u q × i d + u d × i q i d × i d + i q × i q For the real part: Z r = u d × i d + u q × i q i d × i d + i q × i q For the imaginary part: Zi = u q × i d + u d × i q i d × i d + i q × i q - A determination step of a harmonic pollution based on the difference between the said first impedance and the said at least second impedance.
Forged synchronizer ring , with a main body , on which radially outwardly extending indexing lobes and centring faces are configured, the synchronizer ring comprising radially extending locking teeth on its outer circumference, at least one indexing lobe having a cut-out at a position which is spaced apart from a stop face which points in the circumferential direction, characterized in that the cut-out is of completely penetrating configuration, that is to say the cut-out cuts out both the indexing lobe and the skirt which supports the locking teeth .
Communication module (CM) for a building technology device (BTD), especially a luminaire, wherein the communication module (CM) is configured to be connectable to an IoT-network (N) and a communication bus to which at least one bus device is detachably connected, and being configured for a bi-directional communication on the IoT-network (N) and the communication bus , wherein the communication module (CM) is configured to convert communication data between the communication bus and the IoT-network (N), and characterized in that the communication module (CM) is configured to receive, from a bus device (BD1) configured to selectively operate as a bus master, a request for assignment of a communication bus address on the communication bus including unique identifier of the bus device (BD1), that the communication module (CM) is configured to assign an address by associating the address with the unique identifier of the bus device (BD1) and the communication module (CM) is configured to respond to the request by sending, to the bus device (BD1), the assigned address with communication bus address data, including the unique identifier, on the communication bus . the communication module (CM) is configured to be connectable to an IoT-network (N) and a communication bus to which at least one bus device is detachably connected, and being configured for a bi-directional communication on the IoT-network (N) and the communication bus , wherein the communication module (CM) is configured to convert communication data between the communication bus and the IoT-network (N), and characterized in that the communication module (CM) is configured to receive, from a bus device (BD1) configured to selectively operate as a bus master, a request for assignment of a communication bus address on the communication bus including unique identifier of the bus device (BD1), that the communication module (CM) is configured to assign an address by associating the address with the unique identifier of the bus device (BD1) and the communication module (CM) is configured to respond to the request by sending, to the bus device (BD1), the assigned address with communication bus address data, including the unique identifier, on the communication bus .