mhurhangee/patent-ind-claim-en huggingface dataset:
A method of calibrating a LIDAR system, the method comprising: transmitting a firing signal to a laser light source of a LIDAR sensor assembly to cause the laser light source to emit a pulse of laser light toward a reference surface fixed in relation to the LIDAR sensor assembly, the reference surface being part of a surrounding environment which is fixed relative to the LIDAR sensor assembly and thereby external to and coupled to the LIDAR sensor assembly; receiving a signal from a light sensor of the LIDAR sensor assembly, the signal indicating detection of reflected light corresponding to reflection of the pulse of laser light from the reference surface; and calibrating the LIDAR sensor assembly based at least in part on the signal indicating detection of the reflected light corresponding to the reflection of the pulse of laser light from the reference surface. transmitting a firing signal to a laser light source of a LIDAR sensor assembly to cause the laser light source to emit a pulse of laser light toward a reference surface fixed in relation to the LIDAR sensor assembly, the reference surface being part of a surrounding environment which is fixed relative to the LIDAR sensor assembly and thereby external to and coupled to the LIDAR sensor assembly; receiving a signal from a light sensor of the LIDAR sensor assembly, the signal indicating detection of reflected light corresponding to reflection of the pulse of laser light from the reference surface; and calibrating the LIDAR sensor assembly based at least in part on the signal indicating detection of the reflected light corresponding to the reflection of the pulse of laser light from the reference surface.
A data transmission method, comprising: receiving (S120), by a terminal device , at least one piece of downlink data on a first time domain resource; and sending (S130), by the terminal device , receiving status information on a second time domain resource, wherein the receiving status information is used to indicate a receiving status of the at least one piece of downlink data, a time interval between the second time domain resource and the first time domain resource is less than 4 milliseconds, a transmission time interval of an uplink channel carrying the receiving status information is greater than a transmission time interval of a downlink channel carrying any piece of downlink data in the at least one piece of downlink data, and the transmission time interval of the downlink channel carrying the any piece of downlink data is less than 1 millisecond; wherein a length of the transmission time interval of the downlink channel carrying the any piece of downlink data in the at least one piece of downlink data is 2 symbols or 1 symbol, and the transmission time interval of the uplink channel carrying the receiving status information is 0.5 ms; and the first time domain resource is a timeslot n-2 and the second time domain resource is a timeslot n, wherein the timeslot n-2 is a second timeslot counted backward from the timeslot n, wherein each of the timeslots consists of 6 or 7 symbols, and wherein each of the timeslots has a length of 0.5 ms. receiving (S120), by a terminal device , at least one piece of downlink data on a first time domain resource; and sending (S130), by the terminal device , receiving status information on a second time domain resource, wherein the receiving status information is used to indicate a receiving status of the at least one piece of downlink data, a time interval between the second time domain resource and the first time domain resource is less than 4 milliseconds, a transmission time interval of an uplink channel carrying the receiving status information is greater than a transmission time interval of a downlink channel carrying any piece of downlink data in the at least one piece of downlink data, and the transmission time interval of the downlink channel carrying the any piece of downlink data is less than 1 millisecond; wherein a length of the transmission time interval of the downlink channel carrying the any piece of downlink data in the at least one piece of downlink data is 2 symbols or 1 symbol, and the transmission time interval of the uplink channel carrying the receiving status information is 0.5 ms; and the first time domain resource is a timeslot n-2 and the second time domain resource is a timeslot n, wherein the timeslot n-2 is a second timeslot counted backward from the timeslot n, wherein each of the timeslots consists of 6 or 7 symbols, and wherein each of the timeslots has a length of 0.5 ms.
A system for debugging domain specific language, DSL, code, comprising: a web server including a computer readable medium and processor, wherein the web server includes a virtual machine , a debug execution machine , and a DSL-specific tool interface, wherein the web server is configured to compile DSL code received from a developer computer, wherein during compilation the DSL code is instrumented to include debugging information received from the developer computer, and execute, by the virtual machine, the instrumented code, wherein during execution the instrumented code communicates with the debug execution machine, the debug execution machine being a state machine, the execution of the instrumented code initiating state transitions in the debug execution machine such that a state of the debug execution machine mirrors a state of the virtual machine; during execution, the debug execution machine maintaining a current value of each variable present in the DSL code. compile DSL code received from a developer computer, wherein during compilation the DSL code is instrumented to include debugging information received from the developer computer, and execute, by the virtual machine, the instrumented code, wherein during execution the instrumented code communicates with the debug execution machine, the debug execution machine being a state machine, the execution of the instrumented code initiating state transitions in the debug execution machine such that a state of the debug execution machine mirrors a state of the virtual machine; during execution, the debug execution machine maintaining a current value of each variable present in the DSL code.
A saddle riding vehicle comprising: a pair of left and right seat rails disposed below a seat for a passenger; a battery disposed below the seat ; and an electronic control unit for controlling a drive source of the vehicle, wherein, when viewed from above, the battery and the electronic control unit are arranged side by side in a vehicle width direction between the left and right seat rails , and wherein a main harness of an electric system is wired between the battery and the electronic control unit , characterized in that the main harness includes a longitudinal extending portion wired in a longitudinal direction of the vehicle through a gap formed between the battery and the electronic control unit . a pair of left and right seat rails disposed below a seat for a passenger; a battery disposed below the seat ; and an electronic control unit for controlling a drive source of the vehicle, wherein, when viewed from above, the battery and the electronic control unit are arranged side by side in a vehicle width direction between the left and right seat rails , and wherein a main harness of an electric system is wired between the battery and the electronic control unit , characterized in that the main harness includes a longitudinal extending portion wired in a longitudinal direction of the vehicle through a gap formed between the battery and the electronic control unit .
Method of operating a user equipment in a New Radio, NR, radio access network, the method comprising transmitting Hybrid Acknowledgement Repeat Request, HARQ, acknowledgment signaling based on a codebook, the codebook associating a bit pattern comprising a plurality of subpatterns with the acknowledgment signaling; wherein each subpattern represents acknowledgment information having a reporting type, the reporting type indicating a subpattern size and a data block structure the subpattern pertains to, the subpattern size being 1 or more bits; a first reporting type corresponding to a first data block structure representing a transport block and a second reporting type corresponding to a second data block structure representing one or more code block groups of a transport block; at least one of the subpatterns having the first reporting type and at least one of the subpatterns having the second reporting type; wherein the codebook groups subpatterns based on their reporting type; and wherein grouping comprises grouping subpatterns having the first reporting type into a first group and grouping subpatterns having the second reporting type into a second group, the groups being arranged sequentially in the bit pattern. wherein each subpattern represents acknowledgment information having a reporting type, the reporting type indicating a subpattern size and a data block structure the subpattern pertains to, the subpattern size being 1 or more bits; a first reporting type corresponding to a first data block structure representing a transport block and a second reporting type corresponding to a second data block structure representing one or more code block groups of a transport block; at least one of the subpatterns having the first reporting type and at least one of the subpatterns having the second reporting type; wherein the codebook groups subpatterns based on their reporting type; and wherein grouping comprises grouping subpatterns having the first reporting type into a first group and grouping subpatterns having the second reporting type into a second group, the groups being arranged sequentially in the bit pattern.
A method for receiving a physical downlink shared channel, comprising: receiving (S610), by a terminal device, a time domain resource allocation list for at least one Physical Downlink Shared Channel, PDSCH, transmission by higher layer signaling, wherein at least one time domain resource allocation in the time domain resource allocation list comprises a Ultra-Reliable Low-Latency Communication, URLLC, repetition number; and receiving, by the terminal device, the at least one PDSCH according to the time domain resource allocation list, wherein a PDSCH aggregation factor is not used. receiving (S610), by a terminal device, a time domain resource allocation list for at least one Physical Downlink Shared Channel, PDSCH, transmission by higher layer signaling, wherein at least one time domain resource allocation in the time domain resource allocation list comprises a Ultra-Reliable Low-Latency Communication, URLLC, repetition number; and receiving, by the terminal device, the at least one PDSCH according to the time domain resource allocation list, wherein a PDSCH aggregation factor is not used.
A vehicle door control device which controls opening/closing of door members provided in entrances of a vehicle, the vehicle door control device comprising: a selective instruction portion that is provided on a vehicle exterior side of each of the door members and that is configured to selectively issue a closing instruction to close the door members and a closing and locking instruction to close and lock the door members , characterized in that , it further comprises: a sound output portion that outputs first operation sounds during the closing of the door members when the closing instruction is issued and outputs second operation sounds different from the first operation sounds during the closing and locking of the door members when the closing and locking instruction is issued. a selective instruction portion that is provided on a vehicle exterior side of each of the door members and that is configured to selectively issue a closing instruction to close the door members and a closing and locking instruction to close and lock the door members , characterized in that , it further comprises: a sound output portion that outputs first operation sounds during the closing of the door members when the closing instruction is issued and outputs second operation sounds different from the first operation sounds during the closing and locking of the door members when the closing and locking instruction is issued.
Transponder for a wireless communication and contactless identification system, of the RFID type, intended to be affixed to a buried polymer pipe , the transponder comprising: - a first RFID chip associated to a first antenna , said first antenna having a surface being configured for covering a first area of the external surface of said polymer pipe; - a second RFID chip associated to a second antenna , said second antenna having a surface being configured for covering a second area of the external surface of said polymer pipe, said second area being distinct from said first area; characterized in that Said first RFID chip comprises a field for storing an identifier, UID, of said second RFID chip ; said second RFID chip comprises a field for storing an identifier, UID, of said first RFID chip ; and the identifier of said first RFID chip and the identifier element of said second RFID chip allows a surface detector to determine that the two RFID chips belong to a same buried polymer pipe. - a first RFID chip associated to a first antenna , said first antenna having a surface being configured for covering a first area of the external surface of said polymer pipe; - a second RFID chip associated to a second antenna , said second antenna having a surface being configured for covering a second area of the external surface of said polymer pipe, said second area being distinct from said first area; Said first RFID chip comprises a field for storing an identifier, UID, of said second RFID chip ; said second RFID chip comprises a field for storing an identifier, UID, of said first RFID chip ; and the identifier of said first RFID chip and the identifier element of said second RFID chip allows a surface detector to determine that the two RFID chips belong to a same buried polymer pipe.
A method for preparing a thermoplastic polyoxazolidone by catalytic reaction of one or more aromatic diisocyanates and one or more diepoxides, wherein the one or more diepoxides consist wholly or partly of 2-phenylpropane-1,3-diol diglycidyl ether derivatives.
An isolated antibody or antibody fragment specific for cluster of differentiation 3 (CD3), wherein said antibody or antibody fragment specifically binds to human CD3 and to non-human primate CD3, wherein said antibody or antibody fragment comprises the variable heavy chain having SEQ ID NO: 7 and the variable light chain having SEQ ID NO: 17.
An illumination device comprising: • a number of light sources arranged in at least a first group of light sources and in a second group of light sources , where said first group of light sources and said second group of light sources are individually controllable; • a number of light collecting means , said number of light collecting means collect light from said first group of light sources and convert said collected light into a number of source light beams ; • at least one light guide comprising an input section and an output section, said light guide receives light generated by said second group of light sources at said input section and transfers said received light to said output section, said output section being adapted to emit said received light at an area between at least two of said source light beams; wherein said light guide is formed as a light guide disc, characterized in that the light guide disc comprises a number of openings wherein the light collecting means are arranged; and wherein a front area of the light guide disc comprises said output section and said output section is adapted to diffuse said emitted light into many directions. • a number of light sources arranged in at least a first group of light sources and in a second group of light sources , where said first group of light sources and said second group of light sources are individually controllable; • a number of light collecting means , said number of light collecting means collect light from said first group of light sources and convert said collected light into a number of source light beams ; • at least one light guide comprising an input section and an output section, said light guide receives light generated by said second group of light sources at said input section and transfers said received light to said output section, said output section being adapted to emit said received light at an area between at least two of said source light beams; wherein said light guide is formed as a light guide disc, characterized in that the light guide disc comprises a number of openings wherein the light collecting means are arranged; and wherein a front area of the light guide disc comprises said output section and said output section is adapted to diffuse said emitted light into many directions.
Method for continuous or semi-continuous treatment/dehydration of organic sludge , wherein a three-phase emulsion is produced of air, solid material and water, by injecting air into the sludge, a flocculant (13, 50, F) is introduced into said emulsion in order to create a floc , then said floc is degassed at atmospheric pressure, and the floc thus matured is recuperated into a filtration and/or decantation device , characterized in that , before recuperating the floc, degassing and flocculation take place in order to obtain said floc thus matured using the kinetic energy of said degassing as the kinetic maturing energy, said degassing being obtained by exiting of the floc vertically or substantially vertically in the form of a fountain (or a jet) into an open container at atmospheric pressure or by introduction of the floc into an intermediate chamber comprising a wall forming the shutter (39, C) for braking of the floc.
A toner conveying apparatus conveying toner used for image forming, the toner conveying apparatus comprising: a first conveying portion configured to convey the toner, the first conveying portion having a first screw that includes a first rotation shaft and a first blade portion and that is rotatable, and a first conveying passage forming member that forms a first conveying space in which the first screw is provided; and a second conveying portion configured to convey upward the toner conveyed by the first conveying portion , the second conveying portion having a second screw that includes a second rotation shaft and a second blade portion and that is rotatable, and a second conveying passage forming member that forms a second conveying space in which the second screw is provided, the second conveying passage forming member having a connecting port being connected to the first conveying passage forming member , the second rotation shaft of the second screw overlapping with the first rotation shaft of the first screw viewed in a direction of a rotational axial line of the first rotation shaft , wherein the first conveying space of the first conveying portion includes a first region , and a second region that is closer to the connecting port than the first region in a toner conveying direction of the first screw , wherein a cross-sectional area of the first conveying space orthogonal to the direction of the rotation axial line in the second region is smaller than the cross-sectional area of the first conveying space orthogonal to the direction of the rotational axial line in the first region . a first conveying portion configured to convey the toner, the first conveying portion having a first screw that includes a first rotation shaft and a first blade portion and that is rotatable, and a first conveying passage forming member that forms a first conveying space in which the first screw is provided; and a second conveying portion configured to convey upward the toner conveyed by the first conveying portion , the second conveying portion having a second screw that includes a second rotation shaft and a second blade portion and that is rotatable, and a second conveying passage forming member that forms a second conveying space in which the second screw is provided, the second conveying passage forming member having a connecting port being connected to the first conveying passage forming member , the second rotation shaft of the second screw overlapping with the first rotation shaft of the first screw viewed in a direction of a rotational axial line of the first rotation shaft , wherein the first conveying space of the first conveying portion includes a first region , and a second region that is closer to the connecting port than the first region in a toner conveying direction of the first screw , wherein a cross-sectional area of the first conveying space orthogonal to the direction of the rotation axial line in the second region is smaller than the cross-sectional area of the first conveying space orthogonal to the direction of the rotational axial line in the first region .
A communication control device comprising: a power allocation unit configured to allocate transmission power for secondary use of a frequency channel (F1) protected for a primary system to a secondary system , wherein the power allocation unit is configured to classify a plurality of secondary systems into a first group of secondary systems of which a distance from the primary system is less than a prescribed threshold and a second group of secondary systems of which a distance from the primary system exceeds the prescribed threshold and to switch power allocation methods between the first group and the second group, characterized in that the power allocation unit is configured to select as a first power allocation method for the first group a first method that considers accumulative interferences from a plurality of secondary systems to the primary system , and the power allocation unit is configured to select as a second power allocation method for the second group a second method that does not consider the accumulative interferences from the plurality of secondary systems to the primary system . a power allocation unit configured to allocate transmission power for secondary use of a frequency channel (F1) protected for a primary system to a secondary system , wherein the power allocation unit is configured to classify a plurality of secondary systems into a first group of secondary systems of which a distance from the primary system is less than a prescribed threshold and a second group of secondary systems of which a distance from the primary system exceeds the prescribed threshold and to switch power allocation methods between the first group and the second group, characterized in that the power allocation unit is configured to select as a first power allocation method for the first group a first method that considers accumulative interferences from a plurality of secondary systems to the primary system , and the power allocation unit is configured to select as a second power allocation method for the second group a second method that does not consider the accumulative interferences from the plurality of secondary systems to the primary system .