mhurhangee/patent-ind-claim-en huggingface dataset:
A traffic shaping method, wherein the method is applied to a wireless communication time division duplex, TDD, mode, and comprises: obtaining , by a network device by using a shaping layer, N data packets sent by a terminal device, wherein N is an integer greater than 0, the N data packets are submitted in sequence, and the shaping layer is configured to sort the N data packets; when the network device determines that none of the N data packets is lost or that the N data packets are not out of order, comparing , by the network device, traffic of the N data packets and a time interval at which the shaping layer sends data packets with preset values; determining, by the network device, whether the traffic of the N data packets reaches a first preset value determining, by the network device, whether the time interval at which the shaping layer sends data packets reaches a second preset value; and shaping , by the network device, the traffic based on a comparison result by using the shaping layer, wherein if the traffic of the N data packets does not reach the first preset value and the time interval at which the shaping layer sends data packets does not reach the second preset value, sending, by the network device, the traffic of the N data packets to a transmission network averagely in P time units by using the shaping layer, wherein P is a ratio of the second preset value to the time interval at which the shaping layer sends data packets. obtaining , by a network device by using a shaping layer, N data packets sent by a terminal device, wherein N is an integer greater than 0, the N data packets are submitted in sequence, and the shaping layer is configured to sort the N data packets; when the network device determines that none of the N data packets is lost or that the N data packets are not out of order, comparing , by the network device, traffic of the N data packets and a time interval at which the shaping layer sends data packets with preset values; determining, by the network device, whether the traffic of the N data packets reaches a first preset value determining, by the network device, whether the time interval at which the shaping layer sends data packets reaches a second preset value; and shaping , by the network device, the traffic based on a comparison result by using the shaping layer, wherein if the traffic of the N data packets does not reach the first preset value and the time interval at which the shaping layer sends data packets does not reach the second preset value, sending, by the network device, the traffic of the N data packets to a transmission network averagely in P time units by using the shaping layer, wherein P is a ratio of the second preset value to the time interval at which the shaping layer sends data packets.
A pharmaceutical composition in the form of a tablet, comprising a) a crystalline form of bilastine, wherein the crystalline form has characteristic peaks at 6.53, 15.24, 15.86, and 18.07 ± 0.2 degrees 2-theta in a powder X-ray diffraction pattern, b) a water-soluble filler, and optionally c) a water-insoluble filler, wherein the water-soluble filler is a sugar, and wherein the composition is prepared by dry granulation of a blend of the components comprising a), b) and optionally c), and compression of the granules to a tablet, or direct compression of a blend of the components comprising a), b) and optionally c).
Rail box for a sliding door of a motor vehicle , the housing comprising a rear part and a front part , the rear part being connected by one end thereof to the front part , the front part having a curvature, the housing being characterized in that the front part a metal plug whose section has an "L" profile such as to have a lower wall and a side wall , the front portion further comprising an upper wall formed by an inflating insert .
Apparatus for guided dental implantology, comprising: a surgical template having at least one hole and at least one guide cannula housed in said at least one hole; at least one single-stage dental implant insertable through the guide cannula ; wherein the single-stage dental implant comprises a pin formed by a single piece; wherein the pin formed by a single piece has a threaded portion , configured to be inserted into a patient's bone, and an extra-mucosal portion placed at an end of the threaded portion ; wherein the extra-mucosal portion has a substantially conical portion , a support platform placed at the base of and at least partially around the substantially conical portion ; wherein a threaded hole , configured to house a mounting screw , is formed in the substantially conical portion ; wherein the substantially conical portion and the threaded hole have a common axis (X-X) orthogonal to the support platform ; wherein the threaded portion has a central axis (Y-Y); wherein the common axis (X-X) is inclined with respect to the central axis (Y-Y); wherein the guide cannula has a lateral window extending from an upper edge thereof and configured to allow access to the mounting screw housed in the threaded hole of the single-stage dental implant . a surgical template having at least one hole and at least one guide cannula housed in said at least one hole; at least one single-stage dental implant insertable through the guide cannula ; wherein the single-stage dental implant comprises a pin formed by a single piece; wherein the pin formed by a single piece has a threaded portion , configured to be inserted into a patient's bone, and an extra-mucosal portion placed at an end of the threaded portion ; wherein the extra-mucosal portion has a substantially conical portion , a support platform placed at the base of and at least partially around the substantially conical portion ; wherein a threaded hole , configured to house a mounting screw , is formed in the substantially conical portion ; wherein the substantially conical portion and the threaded hole have a common axis (X-X) orthogonal to the support platform ; wherein the threaded portion has a central axis (Y-Y); wherein the common axis (X-X) is inclined with respect to the central axis (Y-Y); wherein the guide cannula has a lateral window extending from an upper edge thereof and configured to allow access to the mounting screw housed in the threaded hole of the single-stage dental implant .
A mower for an agricultural machine comprising: a primary frame for mounting the mower to the agricultural machine; a cutting element supported by a mowing unit ; an adjustable element ; the mower being characterized in that it further comprises a tilt sensor ; wherein the adjustable element is adjustable in response to a signal from the tilt sensor to re-configure an angle between the cutting element and a ground surface, thereby adjusting an effective stubble height. a primary frame for mounting the mower to the agricultural machine; a cutting element supported by a mowing unit ; an adjustable element ; the mower being characterized in that it further comprises a tilt sensor ; wherein the adjustable element is adjustable in response to a signal from the tilt sensor to re-configure an angle between the cutting element and a ground surface, thereby adjusting an effective stubble height.
A crystal form of compound 5-3, wherein the crystal form is crystal form I, crystal form II, crystal form III or crystal form IV; wherein the XRPD pattern of crystal form I is shown as follows: diffraction angle 2θ relative intensity (%) diffraction angle 2θ relative intensity (%) 8.611 100.0 23.953 2.6 10.330 70.6 24.370 32.3 12.284 13.4 26.501 29.4 13.703 23.9 26.915 8.7 14.057 5.6 27.663 11.0 14.351 4.8 27.939 15.5 14.848 9.2 29.499 2.6 15.576 7.5 30.604 2.2 16.602 31.6 31.727 13.3 17.250 71.3 32.969 2.6 17.902 90.7 33.378 2.8 18.277 42.4 33.777 3.0 19.149 6.5 34.825 1.6 20.625 21.7 36.399 5.3 21.550 42.7 37.366 4.3 22.124 2.3 39.357 3.3 23.307 33.4 ; the XRPD pattern of crystal form II is shown as follows: diffraction angle 2θ relative intensity (%) diffraction angle 2θ relative intensity (%) 10.428 60.0 25.533 8.2 11.968 100.0 26.083 11.0 13.542 17.8 27.133 3.1 14.238 3.4 27.506 17.7 14.767 12.1 28.316 3.0 15.851 73.9 29.557 2.2 16.818 72.0 30.740 4.2 18.003 9.2 31.846 5.1 19.087 2.1 32.550 2.0 19.755 47.6 33.775 3.1 20.900 25.7 34.682 2.2 22.652 2.9 36.422 3.4 23.858 49.2 36.953 3.4 24.844 23.2 38.569 3.0 ; the XRPD pattern of crystal form III is shown as follows: diffraction angle 2θ relative intensity (%) diffraction angle 2θ relative intensity (%) 8.539 57.2 23.092 2.6 10.296 65.1 23.322 0.9 12.283 8.3 24.319 28.5 14.023 6.0 26.426 7.1 14.319 4.0 30.568 1.0 15.879 1.6 31.686 4.6 17.230 100.0 33.739 0.9 17.804 11.5 34.768 0.9 18.005 22.4 36.366 5.1 19.269 1.3 37.326 0.5 20.591 18.6 39.285 1.3 21.514 18.5 . the XRPD pattern of crystal form IV is shown as follows: diffraction angle 2θ relative intensity (%) diffraction angle 2θ relative intensity (%) 8.653 100.0 23.385 22.1 10.408 94.7 23.997 44.0 12.106 45.5 24.430 30.5 12.362 15.5 24.965 15.2 13.723 14.5 26.225 9.3 14.152 6.1 26.562 23.9 14.414 7.3 26.977 6.8 14.925 10.6 27.647 16.3 15.988 18.9 27.983 10.9 16.682 20.1 29.659 3.1 16.937 33.6 30.842 3.0 17.311 79.1 31.788 12.4 17.982 61.7 33.031 2.7 18.338 29.2 33.426 2.2 19.245 5.9 33.858 2.8 19.856 29.2 34.884 2.3 20.721 24.1 36.499 4.8 21.020 8.2 37.427 2.9 21.611 34.8 .
A system (1-1) for controlling an engine tone by an artificial intelligence based on a sound quality index of a vehicle , comprising: a sound output device for generating a reinforcing sound to reinforce an engine sound of the vehicle ; an engine characteristic measurement sensor for measuring sound source characteristics of the engine sound; an interior noise measurement sensor for detecting interior noise of the vehicle ; a signal processing controller that receives signals from the engine characteristic measurement sensor in real time and controls the sound output device such that the engine sound reaches a target tone; and a processor connected to the signal processing controller to optimize the sound quality index such that the engine sound reaches the target tone through the artificial intelligence, characterized in that the processor performs real-time active control of the engine tone based on deep learning, and wherein the active control based on the deep learning determines and outputs an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise, or wherein the active control based on the deep learning determines an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise with respect to a noise source required to be reduced, and controls an unnecessary frequency band to be reduced. a sound output device for generating a reinforcing sound to reinforce an engine sound of the vehicle ; an engine characteristic measurement sensor for measuring sound source characteristics of the engine sound; an interior noise measurement sensor for detecting interior noise of the vehicle ; a signal processing controller that receives signals from the engine characteristic measurement sensor in real time and controls the sound output device such that the engine sound reaches a target tone; and a processor connected to the signal processing controller to optimize the sound quality index such that the engine sound reaches the target tone through the artificial intelligence, characterized in that the processor performs real-time active control of the engine tone based on deep learning, and wherein the active control based on the deep learning determines and outputs an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise, or wherein the active control based on the deep learning determines an order array and an order level as factors for controlling the target tone based on a target tone requested by a driver and the measured interior noise with respect to a noise source required to be reduced, and controls an unnecessary frequency band to be reduced.
Lens apparatus for an optoelectronic sensor of a motor vehicle, comprising a reception lens , comprising a support device , on which a rear side of the reception lens rests in parts, and comprising a fastening device , by means of which the reception lens is held on the support device with a spring force that acts in a first direction, z, characterized in that the fastening device has a holding frame , which circumferentially surrounds the reception lens in a predetermined lateral region and shields the predetermined lateral region from optical radiation, and at least one spring element , which supports the reception lens in relation to the holding frame in at least one second direction, x, y, that differs from the first direction, z.
A clothes treatment apparatus comprising: a cabinet ; a drum rotatably provided in the cabinet ; an induction heater disposed outside the drum and heating the drum ; and a magnet fixed to the drum and having a residual magnetic flux density that changes depending on temperature; characterized in that : the magnet is disposed at an outer circumferential surface of the drum ; and the clothes treatment apparatus comprises: a coil fixed to the outside of the drum and disposed to overlap the magnet in a longitudinal direction of a central axis of rotation of the drum ; and a controller configured to estimate the temperature of the drum based on a value of a counter electromotive force induced in the coil generated by the interaction between the coil and the magnet . a cabinet ; a drum rotatably provided in the cabinet ; an induction heater disposed outside the drum and heating the drum ; and a magnet fixed to the drum and having a residual magnetic flux density that changes depending on temperature; the magnet is disposed at an outer circumferential surface of the drum ; and the clothes treatment apparatus comprises: a coil fixed to the outside of the drum and disposed to overlap the magnet in a longitudinal direction of a central axis of rotation of the drum ; and a controller configured to estimate the temperature of the drum based on a value of a counter electromotive force induced in the coil generated by the interaction between the coil and the magnet . a coil fixed to the outside of the drum and disposed to overlap the magnet in a longitudinal direction of a central axis of rotation of the drum ; and a controller configured to estimate the temperature of the drum based on a value of a counter electromotive force induced in the coil generated by the interaction between the coil and the magnet .
A method for producing an intake module that has a housing and at least one intercooler arranged therein, - wherein at least two housing parts are moulded from plastic, - wherein at least one intercooler is inserted into at least one of the housing parts , - wherein the housing parts , with at least one intercooler inserted therein, are welded together so as to form the housing , - wherein the intercooler has contact points to at least two of the housing parts , characterized in - that the housing parts are injection moulded, and - that inserting the intercooler into the respective housing part and welding the housing parts so as to form the housing is carried out with freshly injection moulded housing parts so that the housing parts shrink onto the intercooler during cooling. - wherein at least two housing parts are moulded from plastic, - wherein at least one intercooler is inserted into at least one of the housing parts , - wherein the housing parts , with at least one intercooler inserted therein, are welded together so as to form the housing , - wherein the intercooler has contact points to at least two of the housing parts , characterized in - that the housing parts are injection moulded, and - that inserting the intercooler into the respective housing part and welding the housing parts so as to form the housing is carried out with freshly injection moulded housing parts so that the housing parts shrink onto the intercooler during cooling.
Inhaler with a carrier for inhaling a formulation from the carrier , wherein for the purpose of or during the expulsion and/or dispersion of the formulation at least part of the carrier can be moved, particularly set vibrating, by an air current , characterised in that the inhaler has an element separate from the carrier , the element being movable by the air current in order to move at least part of the carrier , wherein the element is loosely held in a chamber which is delimited in particular by the carrier and through which the air current can preferably flow.
A protein encoded by the nucleotide sequence of SEQ ID No. 3 and consisting of the amino acid sequence of SEQ ID No. 4.
A nutritional product for use in a) decreasing fasting insulin levels; or b) increasing insulin sensitivity; or c) decreasing insulin resistance in obese or overweight adults of at least 45 years of age, said product comprising per serving between 50 - 300 kcal; between 10 g and 35g proteinaceous matter; and at least 2.5 microgram vitamin D. a) decreasing fasting insulin levels; or b) increasing insulin sensitivity; or c) decreasing insulin resistance in obese or overweight adults of at least 45 years of age, said product comprising per serving between 50 - 300 kcal; between 10 g and 35g proteinaceous matter; and at least 2.5 microgram vitamin D.
A clock distribution system comprising: a resonator feed network comprising a plurality of resonant transmission lines that each propagate a clock signal; a plurality of resonator spines , each of the resonator spines being conductively coupled to at least one of the resonant transmission lines, such that each of the resonator spines propagates the clock signal; and at least one resonator rib conductively coupled to at least two of the resonator spines , each of the at least one resonator rib being arranged as a standing wave resonator to propagate the clock signal. a resonator feed network comprising a plurality of resonant transmission lines that each propagate a clock signal; a plurality of resonator spines , each of the resonator spines being conductively coupled to at least one of the resonant transmission lines, such that each of the resonator spines propagates the clock signal; and at least one resonator rib conductively coupled to at least two of the resonator spines , each of the at least one resonator rib being arranged as a standing wave resonator to propagate the clock signal.
A bridge laying device for laying a bridge, in particular a single-piece bridge with a main part for arranging on a load transport vehicle , in particular a hook lift vehicle, and a laying arm for setting down the bridge , characterized by an extending device for moving the laying arm from a transport position into an extended placing position such that the overall length of the bridge laying device is extended, an extension drive , which is arranged on the main part , for moving the extending device , a control device arranged in particular on the main part for the control of the laying arm and/or the extending device , wherein the laying arm pivots via a laying drive arranged on the extending device , in particular via a length-adjustable hydraulic cylinder and wherein one or more of the laying drive , the extension drive , and the control device are capable of being supplied with energy via an autonomous energy source and/or via an electrical interface arranged on the main part , further comprising support devices that support the main part and/or the extending device in relation to the supporting surface, wherein the support devices include at least four support devices for setting down the bridge laying device on the supporting surface, wherein at least two of the support devices (13.2) are arranged on the main part and at least two of the support devices (13.1) are arranged on the extending device .
A method for synchronizing a communication device, comprising: obtaining a timing signal from a timing synchronization reference source ; computing a system frame number, SFN, - direct frame number, DFN, offset ; and characterised by : creating a timing fingerprint using the timing signal and the SFN-DFN offset, the timing fingerprint also comprising additional timing information; entering the timing fingerprint into a database ; continually updating the timing fingerprint; determining whether the timing signal remains within a threshold; if the timing signal exceeds the threshold, iterating the timing fingerprint; verifying the timing fingerprint to determine whether there is a timing inconsistency between a most recent timing fingerprint and current time; if the timing fingerprint is verified, using the SFN-DFN offset to derive current DFN timing to decode a sidelink control information, SCI, communication; and if the SCI communication is decoded, using the timing signal for communicating over a sidelink communication channel . obtaining a timing signal from a timing synchronization reference source ; computing a system frame number, SFN, - direct frame number, DFN, offset ; and characterised by : creating a timing fingerprint using the timing signal and the SFN-DFN offset, the timing fingerprint also comprising additional timing information; entering the timing fingerprint into a database ; continually updating the timing fingerprint; determining whether the timing signal remains within a threshold; if the timing signal exceeds the threshold, iterating the timing fingerprint; verifying the timing fingerprint to determine whether there is a timing inconsistency between a most recent timing fingerprint and current time; if the timing fingerprint is verified, using the SFN-DFN offset to derive current DFN timing to decode a sidelink control information, SCI, communication; and if the SCI communication is decoded, using the timing signal for communicating over a sidelink communication channel . creating a timing fingerprint using the timing signal and the SFN-DFN offset, the timing fingerprint also comprising additional timing information; entering the timing fingerprint into a database ; continually updating the timing fingerprint; determining whether the timing signal remains within a threshold; if the timing signal exceeds the threshold, iterating the timing fingerprint; verifying the timing fingerprint to determine whether there is a timing inconsistency between a most recent timing fingerprint and current time; if the timing fingerprint is verified, using the SFN-DFN offset to derive current DFN timing to decode a sidelink control information, SCI, communication; and if the SCI communication is decoded, using the timing signal for communicating over a sidelink communication channel .