mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle rear spoiler control method, comprising: receiving a rear spoiler operation request (S301, S501), the rear spoiler operation request comprising a rear spoiler opening operation request and/or a rear spoiler closing operation request; starting an existing environment perception apparatus of the vehicle , and acquiring environment perception data (S303) before the rear spoiler is operated to move; performing obstacle detection in a preset range of a position where the vehicle rear spoiler is located according to the environment perception data (S305, S509); and controlling operation of the vehicle rear spoiler according to a result of the obstacle detection (S307, S511); wherein before starting the environment perception apparatus of the vehicle , the method further comprises: obtaining a speed of the vehicle (S503); judging whether the speed of the vehicle is larger than or equal to a preset threshold (S505); and if a judging result is no, executing a step of starting the existing environment perception apparatus of the vehicle, and acquiring environment perception data (S507); and if the judging result is yes, executing a rear spoiler operation corresponding to the rear spoiler operation request (S513). receiving a rear spoiler operation request (S301, S501), the rear spoiler operation request comprising a rear spoiler opening operation request and/or a rear spoiler closing operation request; starting an existing environment perception apparatus of the vehicle , and acquiring environment perception data (S303) before the rear spoiler is operated to move; performing obstacle detection in a preset range of a position where the vehicle rear spoiler is located according to the environment perception data (S305, S509); and controlling operation of the vehicle rear spoiler according to a result of the obstacle detection (S307, S511); wherein before starting the environment perception apparatus of the vehicle , the method further comprises: obtaining a speed of the vehicle (S503); judging whether the speed of the vehicle is larger than or equal to a preset threshold (S505); and if a judging result is no, executing a step of starting the existing environment perception apparatus of the vehicle, and acquiring environment perception data (S507); and if the judging result is yes, executing a rear spoiler operation corresponding to the rear spoiler operation request (S513). obtaining a speed of the vehicle (S503); judging whether the speed of the vehicle is larger than or equal to a preset threshold (S505); and if a judging result is no, executing a step of starting the existing environment perception apparatus of the vehicle, and acquiring environment perception data (S507); and if the judging result is yes, executing a rear spoiler operation corresponding to the rear spoiler operation request (S513).
A network element comprising a mobility management entity, MME, or a serving general packet radio service support node, SGSN, for monitoring events associated with a user equipment, UE, configured to provide machine type communications, MTC, in a cellular network, the network element comprising: a memory device; a processor operatively coupled to the memory device and configured to: receive from an MTC interworking function, MTC-IWF, a monitoring request message comprising monitoring event configuration data to configure detection and reporting of a monitoring event on the network element, the monitoring request message originates from a services capability server, SCS, or an application server, AS, configured to receive the MTC; wherein the monitoring event configuration data includes an attribute value pair, AVP, that indicates the monitoring event has to be monitored continuously or monitored at time intervals; and provide a monitoring response message to acknowledge the monitoring request message. a memory device; a processor operatively coupled to the memory device and configured to: receive from an MTC interworking function, MTC-IWF, a monitoring request message comprising monitoring event configuration data to configure detection and reporting of a monitoring event on the network element, the monitoring request message originates from a services capability server, SCS, or an application server, AS, configured to receive the MTC; wherein the monitoring event configuration data includes an attribute value pair, AVP, that indicates the monitoring event has to be monitored continuously or monitored at time intervals; and provide a monitoring response message to acknowledge the monitoring request message. receive from an MTC interworking function, MTC-IWF, a monitoring request message comprising monitoring event configuration data to configure detection and reporting of a monitoring event on the network element, the monitoring request message originates from a services capability server, SCS, or an application server, AS, configured to receive the MTC; wherein the monitoring event configuration data includes an attribute value pair, AVP, that indicates the monitoring event has to be monitored continuously or monitored at time intervals; and provide a monitoring response message to acknowledge the monitoring request message.
A data transmission method, wherein the method comprises: after receiving a first instruction sent by a processor, receiving, by a first camera module, a first data packet sent by a second camera module, wherein the first data packet comprises an identification field, and a value of the identification field in the first data packet indicates a quantity of forwarding times of the first data packet; identifying, by the first camera module, that the value of the identification field in the first data packet is a first value, and modifying the first value to a second value, wherein a difference between the second value and the first value is a preset value; and sending, by the first camera module, a first data packet obtained by modifying the value of the identification field in the first data packet to the second value to the processor. after receiving a first instruction sent by a processor, receiving, by a first camera module, a first data packet sent by a second camera module, wherein the first data packet comprises an identification field, and a value of the identification field in the first data packet indicates a quantity of forwarding times of the first data packet; identifying, by the first camera module, that the value of the identification field in the first data packet is a first value, and modifying the first value to a second value, wherein a difference between the second value and the first value is a preset value; and sending, by the first camera module, a first data packet obtained by modifying the value of the identification field in the first data packet to the second value to the processor.
Data transmission system having a data transmission channel (2; 2 1 , 2 2 ) and a plurality of transmission and reception units , wherein the data transmission channel (2; 2 1 , 2 2 ) is an electrical line, which has a rail (4; 4 1 , 4 2 ) made of an electrically insulating material and has at least one electrical conductor , wherein the at least one electrical conductor in each case runs in a longitudinal direction along a longitudinal axis of the rail (4; 4 1 , 4 2 ), wherein the lateral surface of the rail (4; 4 1 , 4 2 ) is surrounded by one of the electrical conductors and/or at least two of the electrical conductors are in each case kept apart from one other by the rail (4; 4 1 , 4 2 ), wherein the plurality of transmission and reception units are arranged along the rail (4; 4 1 , 4 2 ) and wherein the plurality of transmission and reception units are each configured to couple an electromagnetic wave into the electrical line or out of the electrical line, wherein a coupling device for electromagnetic near-field coupling between the transmission and reception unit and the electrical line is arranged between the transmission and reception unit and the electrical line, and wherein the coupling device has at least two coupling elements with in each case an electrical terminal and/or has at least one coupling element with in each case two electrical terminals , characterized in that the transmission and reception unit has a unit for MIMO equalization and a unit for MIMO control which are in each case connected to the electrical terminals of the coupling elements .
A method for programming a non-volatile analog neuromorphic memory cell, comprising: erasing the cell ; performing a coarse programming sequence on the cell, comprising: performing a first programming operation on the cell with a first voltage increment; and repeating the first programming operation until the current through the cell during a read operation exceeds a first current threshold; performing a first fine programming sequence on the cell, comprising; removing a portion of the charge on the floating gate of the cell; and programming the cell with a second voltage increment until the current through the cell during a read operation exceeds the threshold, wherein the second voltage increment is smaller than the first voltage increment; and performing a second fine programming sequence on the cell, comprising; removing a portion of the charge on the floating gate of the cell; programming the cell with a third voltage increment until the current through the cell during a read operation exceeds the threshold, wherein the third voltage increment is smaller than the second voltage increment. erasing the cell ; performing a coarse programming sequence on the cell, comprising: performing a first programming operation on the cell with a first voltage increment; and repeating the first programming operation until the current through the cell during a read operation exceeds a first current threshold; performing a first programming operation on the cell with a first voltage increment; and repeating the first programming operation until the current through the cell during a read operation exceeds a first current threshold; performing a first fine programming sequence on the cell, comprising; removing a portion of the charge on the floating gate of the cell; and programming the cell with a second voltage increment until the current through the cell during a read operation exceeds the threshold, wherein the second voltage increment is smaller than the first voltage increment; and removing a portion of the charge on the floating gate of the cell; and programming the cell with a second voltage increment until the current through the cell during a read operation exceeds the threshold, wherein the second voltage increment is smaller than the first voltage increment; and performing a second fine programming sequence on the cell, comprising; removing a portion of the charge on the floating gate of the cell; programming the cell with a third voltage increment until the current through the cell during a read operation exceeds the threshold, wherein the third voltage increment is smaller than the second voltage increment.
An optical display device comprising: a substrate having a surface; and a first pixel of a color image comprising first and second sub-pixels according to an additive RGB color scheme; wherein said first sub-pixel comprises a first optical sub-wavelength nanostructure array formed on or in the surface of said substrate; wherein said second sub-pixel comprises a second optical sub-wavelength nanostructure array formed on or in the surface of said substrate; wherein said first and second nanostructure arrays each comprise a plurality of nanostructures and said nanostructures comprise one or more of nanoholes and nano-columns formed on or in said surface of said substrate, characterised in that said first optical sub-wavelength nanostructure array comprises nanostructures with a periodic spacing of about 580 nm to 680 nm wherein said first sub-pixel comprises a red RGB sub-pixel, or nanostructures with a periodic spacing of about 480 nm to 580 nm wherein said first sub-pixel comprises a green RGB sub-pixel, or nanostructures with a periodic spacing of 380 nm to 480 nm wherein said first sub-pixel comprises a blue RGB sub-pixel. a substrate having a surface; and a first pixel of a color image comprising first and second sub-pixels according to an additive RGB color scheme; wherein said first sub-pixel comprises a first optical sub-wavelength nanostructure array formed on or in the surface of said substrate; wherein said second sub-pixel comprises a second optical sub-wavelength nanostructure array formed on or in the surface of said substrate; wherein said first and second nanostructure arrays each comprise a plurality of nanostructures and said nanostructures comprise one or more of nanoholes and nano-columns formed on or in said surface of said substrate, characterised in that said first optical sub-wavelength nanostructure array comprises nanostructures with a periodic spacing of about 580 nm to 680 nm wherein said first sub-pixel comprises a red RGB sub-pixel, or nanostructures with a periodic spacing of about 480 nm to 580 nm wherein said first sub-pixel comprises a green RGB sub-pixel, or nanostructures with a periodic spacing of 380 nm to 480 nm wherein said first sub-pixel comprises a blue RGB sub-pixel.
A method of aligning a tool , the method comprising: capturing a first magnified image of a plurality of microscopic native features belonging to an inherent microscopically visible texture in a first region of a moving workpiece using a first imaging unit of an imaging system at a first location ; capturing a second magnified image of the plurality of microscopic native features in the same first region of the moving workpiece using a second imaging unit of the imaging system at a second location , a time interval passing between capturing the first magnified image and capturing the second magnified image ; determining a correspondence between the plurality of microscopic native features of the inherent microscopically visible texture of the workpiece as captured in the first image and the plurality of microscopic native features of the inherent microscopically visible texture of the workpiece as captured in the second image ; determining a positioning information of the moving workpiece relative to the respective first and second locations , using a controller to analyze the microscopic native features having the correspondence between the first and second images ; and aligning the workpiece and the tool , based upon the positioning information. capturing a first magnified image of a plurality of microscopic native features belonging to an inherent microscopically visible texture in a first region of a moving workpiece using a first imaging unit of an imaging system at a first location ; capturing a second magnified image of the plurality of microscopic native features in the same first region of the moving workpiece using a second imaging unit of the imaging system at a second location , a time interval passing between capturing the first magnified image and capturing the second magnified image ; determining a correspondence between the plurality of microscopic native features of the inherent microscopically visible texture of the workpiece as captured in the first image and the plurality of microscopic native features of the inherent microscopically visible texture of the workpiece as captured in the second image ; determining a positioning information of the moving workpiece relative to the respective first and second locations , using a controller to analyze the microscopic native features having the correspondence between the first and second images ; and aligning the workpiece and the tool , based upon the positioning information.
Method for monitoring output signals (AS) of an electronic system , wherein - in the electronic system at least one output signal (AS) is generated from at least one input signal (ES), with the steps: A) Detecting a first item of information (II), which is representative of the at least one input signal (ES), B) Detecting a second item of information , which is representative of the at least one output signal (AS), C) Providing the first item of information (II) and the second item of information for a computer-implemented algorithm (A), D) Determining a first item of comparison information (V1) by the algorithm (A) as a function of the first item of information (II), and determining a second item of comparison information (V2) by means of the algorithm (A) as a function of the second item of information , E) Comparing the first item of comparison information (V1) with the second item of comparison information (V2) and if the comparison is negative, F) Generating an error signal (FS) for signalling an error, wherein - the electronic system comprises a signal display for rail vehicles and a control component for controlling the signal display , - states of the signal displays are controlled by the control component by means of control signals (SS), - the first item of information (II) comprises the control signals or measuring signals generated from the control signals (SS) and - the second item of information comprises an image acquisition (BA) of at least one of the states of the signal display . - in the electronic system at least one output signal (AS) is generated from at least one input signal (ES), A) Detecting a first item of information (II), which is representative of the at least one input signal (ES), B) Detecting a second item of information , which is representative of the at least one output signal (AS), C) Providing the first item of information (II) and the second item of information for a computer-implemented algorithm (A), D) Determining a first item of comparison information (V1) by the algorithm (A) as a function of the first item of information (II), and determining a second item of comparison information (V2) by means of the algorithm (A) as a function of the second item of information , E) Comparing the first item of comparison information (V1) with the second item of comparison information (V2) and if the comparison is negative, F) Generating an error signal (FS) for signalling an error, wherein - the electronic system comprises a signal display for rail vehicles and a control component for controlling the signal display , - states of the signal displays are controlled by the control component by means of control signals (SS), - the first item of information (II) comprises the control signals or measuring signals generated from the control signals (SS) and - the second item of information comprises an image acquisition (BA) of at least one of the states of the signal display .
A bicycle bag comprising at least one suspension flap , wherein the at least one suspension flap is configured for providing an attachment condition of the bicycle bag in which the bicycle bag is attached relative to a luggage carrier rack of a bicycle, in such manner that the bicycle bag via the at least one suspension flap is suspended from the luggage carrier rack, while storage space of the bicycle bag is extending on one or both lateral sides of the bicycle, wherein the at least one suspension flap comprises at least two flap passageway pairs , wherein each of said flap passageway pairs has two elongate flap passageways through the at least one suspension flap allowing fastening means to extend through said elongate flap passageways, wherein the two flap passageways are extending alongside one another in a mutually parallel manner, characterized in that the bicycle bag further comprises a first quick-coupling element , which comprises bolt holes for overlapping placement relative to multiple ones of said elongate flap passageways , respectively, for fastening of the first quick-coupling element to the at least one suspension flap by using fastening bolts extending through overlappingly placed combinations of the elongate flap passageways and the bolt holes , wherein said first quick-coupling element is part of a quick-coupling system for luggage carrier racks, said quick-coupling system further comprising a second quick-coupling element, which may be part of or connectable to various types of luggage carrier racks, said first and second quick-coupling elements being configured for quick-coupling to one another. wherein the at least one suspension flap comprises at least two flap passageway pairs , wherein each of said flap passageway pairs has two elongate flap passageways through the at least one suspension flap allowing fastening means to extend through said elongate flap passageways, wherein the two flap passageways are extending alongside one another in a mutually parallel manner, characterized in that the bicycle bag further comprises a first quick-coupling element , which comprises bolt holes for overlapping placement relative to multiple ones of said elongate flap passageways , respectively, for fastening of the first quick-coupling element to the at least one suspension flap by using fastening bolts extending through overlappingly placed combinations of the elongate flap passageways and the bolt holes , wherein said first quick-coupling element is part of a quick-coupling system for luggage carrier racks, said quick-coupling system further comprising a second quick-coupling element, which may be part of or connectable to various types of luggage carrier racks, said first and second quick-coupling elements being configured for quick-coupling to one another.
An annular blade sharpness tester comprising: a holder for an annular blade , supporting means (16; 34, 35) supporting a cuttable strip material either side of a gap a moving mechanism that causes relative movement between the blade holder and the supporting means, and hence the cuttable strip material supported by the supporting means, an activation means that activates an annular blade held in the annular blade holder and causes rotation of the blade before the blade comes into contact with the cuttable strip material , such that upon said relative movement between the blade holder and supporting means the annular blade movably contacts the cuttable strip material and cuts it at the gap, and force measuring means that measures the force of the annular blade on the cuttable strip material . a holder for an annular blade , supporting means (16; 34, 35) supporting a cuttable strip material either side of a gap a moving mechanism that causes relative movement between the blade holder and the supporting means, and hence the cuttable strip material supported by the supporting means, an activation means that activates an annular blade held in the annular blade holder and causes rotation of the blade before the blade comes into contact with the cuttable strip material , such that upon said relative movement between the blade holder and supporting means the annular blade movably contacts the cuttable strip material and cuts it at the gap, and force measuring means that measures the force of the annular blade on the cuttable strip material .