mhurhangee/patent-ind-claim-en huggingface dataset:
A screen capturing method, comprising: running (S201, S301) a target application, and displaying a first interface of the target application; receiving (S202, S302) a screen capturing instruction entered by a user; obtaining target information in the first interface by a preset mode; adjusting the first interface according to the target information to obtain a second interface, wherein the first interface is different from the second interface; and displaying the second interface; detecting a target information area selected by the user in the second interface; modifying the second interface according to the selected target information area to obtain a third interface; and generating (S204, S304) a picture that comprises at least the third interface. running (S201, S301) a target application, and displaying a first interface of the target application; receiving (S202, S302) a screen capturing instruction entered by a user; obtaining target information in the first interface by a preset mode; adjusting the first interface according to the target information to obtain a second interface, wherein the first interface is different from the second interface; and displaying the second interface; detecting a target information area selected by the user in the second interface; modifying the second interface according to the selected target information area to obtain a third interface; and generating (S204, S304) a picture that comprises at least the third interface.
A heat exchanger , comprising: a plurality of plate-shaped fins arranged at predetermined intervals; and a plurality of flat pipes that are arranged in parallel with each other and having an upstream and a downstream side, wherein the flat pipes are inserted into the fins from the downstream side so that a length direction of each flat pipe is orthogonal to the fins , and have a plurality of coolant flow channels , wherein the upstream side is defined as a side on which a side surface of the flat pipes forms a front edge part , the downstream side is defined as a side on which a side surface of the flat pipes forms a rear edge part and an air flow direction is defined as a direction from the upstream side to the downstream side, wherein the fins include flat parts and heat transfer promoting parts raised from the flat parts , wherein exactly two heat transfer promoting parts are arranged symmetrically with respect to a center line between adjacent flat pipes , wherein the heat transfer promoting parts are arranged between a central part in the width direction of the flat pipe and the rear edge part of the flat pipe with respect to the air flow direction, and wherein a boundary line formed by each heat transfer promoting part and the flat part and extending from the upstream side to the downstream side is inclined with respect to the air flow direction to come closer to the adjacent flat pipe in a direction towards the upstream side. a plurality of plate-shaped fins arranged at predetermined intervals; and a plurality of flat pipes that are arranged in parallel with each other and having an upstream and a downstream side, wherein the flat pipes are inserted into the fins from the downstream side so that a length direction of each flat pipe is orthogonal to the fins , and have a plurality of coolant flow channels , wherein the upstream side is defined as a side on which a side surface of the flat pipes forms a front edge part , the downstream side is defined as a side on which a side surface of the flat pipes forms a rear edge part and an air flow direction is defined as a direction from the upstream side to the downstream side, wherein the fins include flat parts and heat transfer promoting parts raised from the flat parts , wherein exactly two heat transfer promoting parts are arranged symmetrically with respect to a center line between adjacent flat pipes , wherein the heat transfer promoting parts are arranged between a central part in the width direction of the flat pipe and the rear edge part of the flat pipe with respect to the air flow direction, and wherein a boundary line formed by each heat transfer promoting part and the flat part and extending from the upstream side to the downstream side is inclined with respect to the air flow direction to come closer to the adjacent flat pipe in a direction towards the upstream side.
A synchronization method, wherein the method comprises: receiving , by a terminal , a system message on a first downlink carrier, wherein the system message comprises first indication information and second indication information, the first indication information indicates a frequency domain range of a first uplink carrier, the second indication information indicates a frequency domain range of a second downlink carrier, and a frequency of the first uplink carrier is presynchronized with a frequency of the second downlink carrier; and receiving , by the terminal , a synchronization signal on the second downlink carrier, to implement frequency synchronization with the first uplink carrier, wherein a frequency of the first uplink carrier is presynchronized with a frequency of the second downlink carrier comprises: the second downlink carrier is located in an operating band of a third downlink carrier, and the third downlink carrier is a downlink carrier paired with the first uplink carrier, and wherein the second downlink carrier is located in guard bandwidth of the third downlink carrier. receiving , by a terminal , a system message on a first downlink carrier, wherein the system message comprises first indication information and second indication information, the first indication information indicates a frequency domain range of a first uplink carrier, the second indication information indicates a frequency domain range of a second downlink carrier, and a frequency of the first uplink carrier is presynchronized with a frequency of the second downlink carrier; and receiving , by the terminal , a synchronization signal on the second downlink carrier, to implement frequency synchronization with the first uplink carrier, wherein a frequency of the first uplink carrier is presynchronized with a frequency of the second downlink carrier comprises: the second downlink carrier is located in an operating band of a third downlink carrier, and the third downlink carrier is a downlink carrier paired with the first uplink carrier, and wherein the second downlink carrier is located in guard bandwidth of the third downlink carrier.
Process for preparing a polymer crosslinked by at least one structure selected from the group consisting of uretdione, isocyanurate, allophanate, urea, biuret, iminooxadiazinedione and oxadiazinetrione structures, comprising the steps of a) providing a reaction mixture comprising (i) a polyisocyanate composition A containing blocked isocyanates, where the blocking agent is selected from the group consisting of phenols, oximes and lactams, and (ii) at least one crosslinking catalyst B; and b) curing the polyisocyanate composition A to give a polymer crosslinked by at least one structure selected from the group consisting of uretdione, isocyanurate, allophanate, urea, biuret, iminooxadiazinedione and oxadiazinetrione structures until not more than 20 % of the isocyanate groups originally present in the polyisocyanate composition A are present in the cured polymer; with the proviso that the molar ratio of blocked and unblocked isocyanate groups to groups that are reactive toward isocyanate and are present in compounds containing more than one such group in the reaction mixture at the start of process step b) is at least 80%:20%. a) providing a reaction mixture comprising (i) a polyisocyanate composition A containing blocked isocyanates, where the blocking agent is selected from the group consisting of phenols, oximes and lactams, and (ii) at least one crosslinking catalyst B; and (i) a polyisocyanate composition A containing blocked isocyanates, where the blocking agent is selected from the group consisting of phenols, oximes and lactams, and (ii) at least one crosslinking catalyst B; and b) curing the polyisocyanate composition A to give a polymer crosslinked by at least one structure selected from the group consisting of uretdione, isocyanurate, allophanate, urea, biuret, iminooxadiazinedione and oxadiazinetrione structures until not more than 20 % of the isocyanate groups originally present in the polyisocyanate composition A are present in the cured polymer;
A chainsaw , comprising: a chain for implementing a cutting operation; a liquid pump assembly comprising a liquid pump for lubricating or cooling the chain and a motor for at least driving the liquid pump to operate; and a controller electrically connected to the liquid pump assembly; characterized in that the controller is configured to: when the liquid pump is in a jammed state, control the liquid pump assembly to enter a throttling mode in which a supplied amount of a liquid is reduced; and when the liquid pump exits the jammed state, control the liquid pump assembly to exit the throttling mode. a chain for implementing a cutting operation; a liquid pump assembly comprising a liquid pump for lubricating or cooling the chain and a motor for at least driving the liquid pump to operate; and a controller electrically connected to the liquid pump assembly; characterized in that the controller is configured to: when the liquid pump is in a jammed state, control the liquid pump assembly to enter a throttling mode in which a supplied amount of a liquid is reduced; and when the liquid pump exits the jammed state, control the liquid pump assembly to exit the throttling mode. when the liquid pump is in a jammed state, control the liquid pump assembly to enter a throttling mode in which a supplied amount of a liquid is reduced; and when the liquid pump exits the jammed state, control the liquid pump assembly to exit the throttling mode.
A rear bumper for a vehicle, said rear bumper comprising a foldable seating structure , wherein the foldable seating structure is movable between a stored mode and a seating mode and forms part of the rear bumper , the foldable seating structure comprising at least a back rest structure and at least a seat bottom structure , which back rest structure and seat bottom structure in the seating mode are adapted to be provided in a luggage opening of a luggage compartment of the vehicle, wherein the back rest structure and the seat bottom structure are stored in an internal space of the rear bumper of the vehicle in the stored mode.
A morbidity diagnosis support system comprising: an extension device for extending a tissue section (P) of cells; an image-photographing device for acquiring image data by image-photographing the tissue section (P); an image analysis device for analyzing the image data to calculate an index of morbidity based on a mode of cracks generated in the tissue section (P) by the extension; and an output device for outputting the calculated index. an extension device for extending a tissue section (P) of cells; an image-photographing device for acquiring image data by image-photographing the tissue section (P); an image analysis device for analyzing the image data to calculate an index of morbidity based on a mode of cracks generated in the tissue section (P) by the extension; and an output device for outputting the calculated index.
A method comprising: determining, by a wireless device, transmission powers of a plurality of uplink channels comprising a scheduling request, SR, with a first priority and a hybrid automatic request, HARQ, feedback with a second priority, based on the following order of power priorities: a physical random access channel, PRACH, of a primary cell; the plurality of uplink channels, which comprise the SR and the HARQ feedback; and a PRACH of a secondary cell; dropping, from an uplink channel of the plurality of uplink channels and among the SR and the HARQ feedback, the HARQ feedback based on: the SR being associated with the first priority; and the HARQ feedback being associated with the second priority that is lower than the first priority; and transmitting, via the plurality of uplink channels, uplink signals with the transmission powers. determining, by a wireless device, transmission powers of a plurality of uplink channels comprising a scheduling request, SR, with a first priority and a hybrid automatic request, HARQ, feedback with a second priority, based on the following order of power priorities: a physical random access channel, PRACH, of a primary cell; the plurality of uplink channels, which comprise the SR and the HARQ feedback; and a PRACH of a secondary cell; a physical random access channel, PRACH, of a primary cell; the plurality of uplink channels, which comprise the SR and the HARQ feedback; and a PRACH of a secondary cell; dropping, from an uplink channel of the plurality of uplink channels and among the SR and the HARQ feedback, the HARQ feedback based on: the SR being associated with the first priority; and the HARQ feedback being associated with the second priority that is lower than the first priority; and the SR being associated with the first priority; and the HARQ feedback being associated with the second priority that is lower than the first priority; and transmitting, via the plurality of uplink channels, uplink signals with the transmission powers.
A device adapted to detect perturbation attacks performed on a digital circuit , wherein the device comprises: - a first metallic layer and a second metallic layer arranged on said digital circuit , said first metal layer comprising a plurality of signal transmission lines routed horizontally, said second metal layer comprising a plurality of signal transmission lines routed vertically, the device comprising one or more transmitter buffers and one or more receiver buffers, a transmitter buffer and a receiver buffer being connected by each signal transmission line; - a random number generator configured to generate random signal values; the device further comprising a transmitter manager connected to one or more transmitter buffers and a receiver manager connected to one or more receiver buffers, wherein: - the transmitter manager is configured to transmit random signal values generated by said random number generator over the signal transmission lines of the first metallic layer and the second metallic layer , said random signal values being transmitted from said one or more transmitter buffers, connected to said transmitter manager , to said one or more receiver buffers connected to said receiver manager , and - the receiver manager is configured to receive random signal values from the transmitter manager through said one or more receiver buffers connected to the receiver manager , measure a transmission time corresponding to a time of transmission of said received random signal values, and compare said transmission time to a predefined timing interval to detect perturbation attacks. - a first metallic layer and a second metallic layer arranged on said digital circuit , said first metal layer comprising a plurality of signal transmission lines routed horizontally, said second metal layer comprising a plurality of signal transmission lines routed vertically, the device comprising one or more transmitter buffers and one or more receiver buffers, a transmitter buffer and a receiver buffer being connected by each signal transmission line; - a random number generator configured to generate random signal values; - the transmitter manager is configured to transmit random signal values generated by said random number generator over the signal transmission lines of the first metallic layer and the second metallic layer , said random signal values being transmitted from said one or more transmitter buffers, connected to said transmitter manager , to said one or more receiver buffers connected to said receiver manager , and - the receiver manager is configured to receive random signal values from the transmitter manager through said one or more receiver buffers connected to the receiver manager , measure a transmission time corresponding to a time of transmission of said received random signal values, and compare said transmission time to a predefined timing interval to detect perturbation attacks.
A vehicle radar sensor unit comprising an antenna arrangement , a transmitter unit , a receiver unit and a processing unit , where the antenna arrangement comprises at least two transmitter antennas and at least two receiver antennas , where two transmitter antennas have a first horizontal spacing (S1) between their respective phase centers and a vertical spacing (h) between their respective phase centers , where the vehicle radar sensor unit is arranged to transmit TDM, Time Division Multiplexed, signals and to receive signals that have been reflected by one or more objects during a plurality of radar cycles, such that a plurality of radar detections is acquired, characterized in that the vertical spacing (h) exceeds half the free-space wavelength of the transmitted signal, where said processing unit is arranged to: - determine a first radial velocity of each radar detection by tracking the change of radial distance (r) to each radar detection for each radar cycle during a plurality of radar cycles; - determine a second radial velocity by choosing a measured radial velocity that best matches the first radial velocity; - track a plurality of measured heights (z) as a function of radial distance (r) for each radar cycle during a plurality of radar cycles; and to - choose a measured height (z GT ) among the tracked measured heights (z) that has a minimal change from radar cycle to radar cycle. - determine a first radial velocity of each radar detection by tracking the change of radial distance (r) to each radar detection for each radar cycle during a plurality of radar cycles; - determine a second radial velocity by choosing a measured radial velocity that best matches the first radial velocity; - track a plurality of measured heights (z) as a function of radial distance (r) for each radar cycle during a plurality of radar cycles; and to - choose a measured height (z GT ) among the tracked measured heights (z) that has a minimal change from radar cycle to radar cycle.
A Physics Package for an Oscillator , comprising: first and second permanent magnets arranged to form a space between each other and adapted to generate a static magnetic field inside the space in a direction from the first permanent magnet to the second permanent magnet ; a Nuclear Magnetic Resonance, NMR, sample arranged inside the space; first and second radio frequency, RF, coils , wherein the first RF coil is adapted to introduce an RF pulse into the space resulting in a precession of atomic cores of the NMR sample , and wherein the second RF coil is adapted to measure the precession of the atomic cores of the NRM sample , characterised in that the first and second radio frequency, RF, coils are arranged at different sides of the space in an angle of 90° to each other. first and second permanent magnets arranged to form a space between each other and adapted to generate a static magnetic field inside the space in a direction from the first permanent magnet to the second permanent magnet ; a Nuclear Magnetic Resonance, NMR, sample arranged inside the space; first and second radio frequency, RF, coils , wherein the first RF coil is adapted to introduce an RF pulse into the space resulting in a precession of atomic cores of the NMR sample , and wherein the second RF coil is adapted to measure the precession of the atomic cores of the NRM sample , characterised in that the first and second radio frequency, RF, coils are arranged at different sides of the space in an angle of 90° to each other.
An electronic device , comprising: a first electronic component ; a second electronic component slidably coupled to the first electronic component ; an antenna assembly , comprising: a radio frequency , RF, module disposed in the first electronic component ; an antenna radiator disposed in the second electronic component , and an RF cable disposed between and coupled to the radio frequency module and the antenna radiator ; the RF cable having a first segment and a second segment integrally extending from the first segment ; the first segment being coupled to the antenna radiator ; the second segment being coupled to the radio frequency module ; and a holder coupled to the second electronic component , the holder slidably extending into the first electronic component by moving the second electronic component ; wherein the first segment is held by the holder , and the RF cable is configured to be driven to move by the holder ; the electronic device being characterized in that the holder defines a holding groove ; the first segment is disposed in the holding groove ; the holder comprises a body portion and a block portion , the body portion is spaced from the block portion ; the holding groove is defined between the body portion and the block portion . a first electronic component ; a second electronic component slidably coupled to the first electronic component ; an antenna assembly , comprising: a radio frequency , RF, module disposed in the first electronic component ; an antenna radiator disposed in the second electronic component , and an RF cable disposed between and coupled to the radio frequency module and the antenna radiator ; the RF cable having a first segment and a second segment integrally extending from the first segment ; the first segment being coupled to the antenna radiator ; the second segment being coupled to the radio frequency module ; and a radio frequency , RF, module disposed in the first electronic component ; an antenna radiator disposed in the second electronic component , and an RF cable disposed between and coupled to the radio frequency module and the antenna radiator ; the RF cable having a first segment and a second segment integrally extending from the first segment ; the first segment being coupled to the antenna radiator ; the second segment being coupled to the radio frequency module ; and a holder coupled to the second electronic component , the holder slidably extending into the first electronic component by moving the second electronic component ; wherein the first segment is held by the holder , and the RF cable is configured to be driven to move by the holder ; the electronic device being characterized in that the holder defines a holding groove ; the first segment is disposed in the holding groove ; the holder comprises a body portion and a block portion , the body portion is spaced from the block portion ; the holding groove is defined between the body portion and the block portion .