mhurhangee/patent-ind-claim-en huggingface dataset:
A communication device , comprising: a first transceiver , the first transceiver including a first transmitter and a first receiver , the first transmitter configured to transmit first signals across a first galvanic isolator , the first receiver configured to receive second signals transmitted across a second galvanic isolator ; a second transceiver galvanically isolated from the first transceiver , the second transceiver including a second transmitter and a second receiver , the second transmitter configured to transmit the second signals across the second galvanic isolator , and the second receiver configured to receive the first signals transmitted across the first galvanic isolator ; and characterized by a wake-up device , the wake up device configured to be powered by power transferred from the first transceiver to the second transceiver , the wake-up device including a wake-up receiver coupled to the first galvanic isolator and configured to receive a wake-up signal across the first galvanic isolator while being powered by power transferred from the first transceiver to the second transceiver over the first galvanic isolator and a system coupled to the second transceiver is activated in response to the wake-up signal. a first transceiver , the first transceiver including a first transmitter and a first receiver , the first transmitter configured to transmit first signals across a first galvanic isolator , the first receiver configured to receive second signals transmitted across a second galvanic isolator ; a second transceiver galvanically isolated from the first transceiver , the second transceiver including a second transmitter and a second receiver , the second transmitter configured to transmit the second signals across the second galvanic isolator , and the second receiver configured to receive the first signals transmitted across the first galvanic isolator ; and characterized by a wake-up device , the wake up device configured to be powered by power transferred from the first transceiver to the second transceiver , the wake-up device including a wake-up receiver coupled to the first galvanic isolator and configured to receive a wake-up signal across the first galvanic isolator while being powered by power transferred from the first transceiver to the second transceiver over the first galvanic isolator and a system coupled to the second transceiver is activated in response to the wake-up signal.
A method for acquiring a content, comprising: receiving (S201), by a cache node, a probe packet from a storage node; inquiring (S202), by the cache node, whether a first fragment of a target content which the probe packet requests to probe is cached locally; if the first fragment is cached, writing (S203), by the cache node, a new first distance in the probe packet, wherein the new first distance is a preset initial value; receiving (S204), by the cache node, a acquiring request generated by a user equipment according to the probe packet, wherein the acquiring request comprises a first fragment request identifier used for indicating that the first fragment is requested; sending (S205), by the cache node, the first fragment to the user equipment according to the acquiring request, and updating the acquiring request; and forwarding (S206), by the cache node, an updated acquiring request to a next node; wherein the updating the acquiring request, comprises: deleting, by the cache node, the first fragment request identifier; or, setting, by the cache node, the first fragment request identifier as invalid. receiving (S201), by a cache node, a probe packet from a storage node; inquiring (S202), by the cache node, whether a first fragment of a target content which the probe packet requests to probe is cached locally; if the first fragment is cached, writing (S203), by the cache node, a new first distance in the probe packet, wherein the new first distance is a preset initial value; receiving (S204), by the cache node, a acquiring request generated by a user equipment according to the probe packet, wherein the acquiring request comprises a first fragment request identifier used for indicating that the first fragment is requested; sending (S205), by the cache node, the first fragment to the user equipment according to the acquiring request, and updating the acquiring request; and forwarding (S206), by the cache node, an updated acquiring request to a next node; wherein the updating the acquiring request, comprises: deleting, by the cache node, the first fragment request identifier; or, setting, by the cache node, the first fragment request identifier as invalid.
A system , comprising: a gas turbine engine , comprising: a combustor section having one or more combustors configured to generate combustion products via stoichiometric combustion; a turbine section having one or more turbine stages between an upstream end and a downstream end , wherein the one or more turbine stages are driven by the combustion products; an exhaust section disposed downstream from the downstream end of the turbine section, wherein the exhaust section has an exhaust passage configured to receive the combustion products as an exhaust gas and a manway configured to provide access to an interior of the exhaust section; and a fluid supply system coupled to the exhaust section, wherein the fluid supply system is configured to route a cooling gas to the exhaust section and through the manway to the interior of the exhaust section, wherein the cooling gas has a temperature lower than the exhaust gas, wherein the manway comprises a seal configured to contain the cooling gas within the manway, and wherein the cooling gas comprises: an extracted exhaust gas wherein the extracted exhaust gas comprises less than 5000 parts per million by volume (ppmv) of oxygen . a combustor section having one or more combustors configured to generate combustion products via stoichiometric combustion; a turbine section having one or more turbine stages between an upstream end and a downstream end , wherein the one or more turbine stages are driven by the combustion products; an exhaust section disposed downstream from the downstream end of the turbine section, wherein the exhaust section has an exhaust passage configured to receive the combustion products as an exhaust gas and a manway configured to provide access to an interior of the exhaust section; and a fluid supply system coupled to the exhaust section, wherein the fluid supply system is configured to route a cooling gas to the exhaust section and through the manway to the interior of the exhaust section, wherein the cooling gas has a temperature lower than the exhaust gas, wherein the manway comprises a seal configured to contain the cooling gas within the manway, and wherein the cooling gas comprises: an extracted exhaust gas wherein the extracted exhaust gas comprises less than 5000 parts per million by volume (ppmv) of oxygen .
An image decoding method comprising: determining a context variable by comparison between a width of a top neighboring coding unit and a width of a current coding unit and comparison between a height of a left or right neighboring coding unit and a height of the current coding unit, wherein the top neighboring coding unit is decoded before the current coding unit, and the left or right neighboring coding unit is decoded before the current coding unit; determining a context index based on an area of the current coding unit being a product of the width and the height of the current coding unit; determining a context model based on the context variable and the context index ; obtaining, from a bitstream, based on the context model, information about a split shape mode of the current coding unit; and when the split shape mode of the current coding unit is determined as a binary-split based on the information about the split shape mode, determining two coding units by splitting one of a width or a height of the current coding unit in half; when the split shape mode of the current coding unit is determined as a tri-split based on the information about the split shape mode, determining three coding units by splitting one of the width or the height of the current coding unit by a ratio of 1:2:1; and when the split shape mode of the current coding unit is determined as no-split based on the information about the split shape mode, decoding the current coding unit, wherein, when areas of coding units are the same, context indexes for the coding units are determined to be the same. determining a context variable by comparison between a width of a top neighboring coding unit and a width of a current coding unit and comparison between a height of a left or right neighboring coding unit and a height of the current coding unit, wherein the top neighboring coding unit is decoded before the current coding unit, and the left or right neighboring coding unit is decoded before the current coding unit; determining a context index based on an area of the current coding unit being a product of the width and the height of the current coding unit; determining a context model based on the context variable and the context index ; obtaining, from a bitstream, based on the context model, information about a split shape mode of the current coding unit; and when the split shape mode of the current coding unit is determined as a binary-split based on the information about the split shape mode, determining two coding units by splitting one of a width or a height of the current coding unit in half; when the split shape mode of the current coding unit is determined as a tri-split based on the information about the split shape mode, determining three coding units by splitting one of the width or the height of the current coding unit by a ratio of 1:2:1; and when the split shape mode of the current coding unit is determined as no-split based on the information about the split shape mode, decoding the current coding unit, wherein, when areas of coding units are the same, context indexes for the coding units are determined to be the same.
An electrical device, comprising: a flat electrical conductor defining an aperture ; and an electrically conductive rivet with a body having a layer of a solder composition disposed on a first side and a tubular shaft extending from a second side of the body opposite the first side , wherein a free end of the tubular shaft is flared such that the free end has a diameter larger than a diameter of the aperture , wherein the tubular shaft defines a plurality of tubular sections that have sharp corners and are separated by slits extending axially along the tubular shaft , wherein the free end of the tubular shaft is flared such that a distance between the free ends of the plurality of tubular sections is increased. a flat electrical conductor defining an aperture ; and an electrically conductive rivet with a body having a layer of a solder composition disposed on a first side and a tubular shaft extending from a second side of the body opposite the first side , wherein a free end of the tubular shaft is flared such that the free end has a diameter larger than a diameter of the aperture , wherein the tubular shaft defines a plurality of tubular sections that have sharp corners and are separated by slits extending axially along the tubular shaft , wherein the free end of the tubular shaft is flared such that a distance between the free ends of the plurality of tubular sections is increased.
A method for controlling a chloramine synthesis reaction in a hard water stream, the method comprising: delivering (i) a first water stream to a first junction where the first water stream is mixed with a first solution including an ammonium compound, and (ii) a second water stream to a second junction where the second water stream is mixed with a second solution including hypochlorite; mixing the first water stream and the second water stream downstream of the first junction and the second junction in order to react the ammonium compound and the hypochlorite to form chloramine in an outflow water stream; measuring a concentration of the hypochlorite in the second solution at a position upstream of the second junction; and determining and adjusting at least one of a flow rate of the second solution and a concentration of the hypochlorite in the second solution based on the measured concentration of hypochlorite in the second solution. delivering (i) a first water stream to a first junction where the first water stream is mixed with a first solution including an ammonium compound, and (ii) a second water stream to a second junction where the second water stream is mixed with a second solution including hypochlorite; mixing the first water stream and the second water stream downstream of the first junction and the second junction in order to react the ammonium compound and the hypochlorite to form chloramine in an outflow water stream; measuring a concentration of the hypochlorite in the second solution at a position upstream of the second junction; and determining and adjusting at least one of a flow rate of the second solution and a concentration of the hypochlorite in the second solution based on the measured concentration of hypochlorite in the second solution.
Terminal assembly comprising a cable lug for terminating an electric cable and contacting an appliance , the cable lug comprising a cable-side end section for directly or indirectly contacting the electric cable , an appliance-side end section for contacting the appliance, and a main body which extends between the cable-side end section and the appliance-side end section , wherein the main body comprises at least one radially protruding collar ; and an insulator body having a cable lug receptacle for receiving the cable lug and an appliance receptacle for receiving an appliance-side connector complementary to the appliance-side end section of the cable lug , characterized in that the cable lug is secured along its longitudinal axis by a form lock between the collar and the cable lug receptacle , when the cable lug is inserted in the cable lug receptacle , wherein the cable lug receptacle comprises a locking element which is shaped complementary to the collar to generate the form lock.
A multilayered graphene dispersion wherein multilayered graphene is dispersed in a liquid phase containing an organic solvent and a liquefied gas, said liquefied gas being dimethyl ether, wherein the blending mass fraction of said dimethyl ether in the liquid phase in which the multilayered graphene is dispersed is 60 to 90%.
A chimeric protein comprising: (a) a targeting moiety comprising a recognition domain which recognizes and binds to C-type lectin domain family 9 member A (Clec9A), wherein the recognition domain comprises a heavy-chain-only antibody (VHH), a humanized VHH, or a camelized VHH; and (b) a modified signaling agent, wherein the modified signaling agent is a human interferon alpha 2 (IFNα2) comprising an amino acid sequence having at least 98% identity with a sequence selected from SEQ ID NO: 86 or 87 and having one or more mutations at positions R149, L153, and M148 with respect to SEQ ID NO: 86 or 87; wherein the mutated human IFNα2 has reduced affinity or activity as compared to wild type human IFNα2, and wherein the reduced affinity or activity of the mutated human IFNα2 is restorable by attachment to the targeting moiety. (a) a targeting moiety comprising a recognition domain which recognizes and binds to C-type lectin domain family 9 member A (Clec9A), wherein the recognition domain comprises a heavy-chain-only antibody (VHH), a humanized VHH, or a camelized VHH; and (b) a modified signaling agent, wherein the modified signaling agent is a human interferon alpha 2 (IFNα2) comprising an amino acid sequence having at least 98% identity with a sequence selected from SEQ ID NO: 86 or 87 and having one or more mutations at positions R149, L153, and M148 with respect to SEQ ID NO: 86 or 87;
A variant of factor IX (F.IX) or activated factor IX (F.IXa), which is characterized in that it has increased clotting activity in presence of its cofactor compared to wildtype, wherein the cofactor is factor VIII (F.VIII) or activated factor VIII (F.VIIIa), comprising at least one amino acid substitution in position 338 selected from R338A and R338L and further comprising the amino acid substitution S377W.
An information processing apparatus comprising: an input information acquiring section configured to acquire output values from an acceleration sensor mounted on a target object; a posture data acquiring section configured to acquire posture information related to the target object by calculating rates of acceleration on axes of the acceleration sensor based on the output values so as to obtain inclination angles of the axes based on the calculated rates of acceleration; and an information processing section configured to perform information processing using the posture information before outputting output data generated as a result of the information processing to the target object, characterized in that , on the basis of angle errors between the axes of the acceleration sensor on the one hand and reference axes associated with the target object on the other hand, the posture data acquiring section is configured to correct the posture information obtained from the acceleration sensor by the amounts of the angle errors in order to acquire corrected posture information for the target object. an input information acquiring section configured to acquire output values from an acceleration sensor mounted on a target object; a posture data acquiring section configured to acquire posture information related to the target object by calculating rates of acceleration on axes of the acceleration sensor based on the output values so as to obtain inclination angles of the axes based on the calculated rates of acceleration; and an information processing section configured to perform information processing using the posture information before outputting output data generated as a result of the information processing to the target object, characterized in that , on the basis of angle errors between the axes of the acceleration sensor on the one hand and reference axes associated with the target object on the other hand, the posture data acquiring section is configured to correct the posture information obtained from the acceleration sensor by the amounts of the angle errors in order to acquire corrected posture information for the target object.
A device for sorting, checking and forwarding coins, comprising a rotatably mounted carrier disk for feeding coins from a collection container and a device for forwarding coins guided on the carrier disk to a transfer device, wherein the device for forwarding has a rotatable transport disk , which is arranged adjacently to the carrier disk and is designed to individually receive the coins guided on the carrier disk and to guide these past a sensor unit for determining at least one parameter of the coin, and wherein the transfer device has a redirection assembly , which is designed to channel the coin to different transport paths depending on the at least one parameter of the coin, characterized in that the transport disk has a baseplate and at least one gripper arm , which rotate together, and in that means for clamping the coins are provided between the baseplate and the at least one gripper arm , in that the means for clamping the coins have a guiding segment , which is fixed relative to the at least one rotating gripper arm , for raising and lowering the at least one gripper arm, in that the guiding segment has a planar portion and two chamfers , in that the means for clamping has at least one gliding pin , which is assigned to the at least one gripper arm and is designed to glide on the guiding segment , and in that the at least one gripper arm is assigned a spring , which is designed and arranged to be compressed when the gripper arm is raised, and to relax during lowering. in that the means for clamping the coins have a guiding segment , which is fixed relative to the at least one rotating gripper arm , for raising and lowering the at least one gripper arm, in that the guiding segment has a planar portion and two chamfers , in that the means for clamping has at least one gliding pin , which is assigned to the at least one gripper arm and is designed to glide on the guiding segment , and in that the at least one gripper arm is assigned a spring , which is designed and arranged to be compressed when the gripper arm is raised, and to relax during lowering.
A mobile communications unit for communicating data to and/or from base stations , the unit being: arranged to communicate data with one or more base stations via a wireless access interface provided by the one or more base stations; arranged to receive transmissions from the one or more base stations via at least one carrier, wherein carriers are logically separate sets of physical resources within a frequency range, the resources of a carrier providing a communication channel; arranged, upon reception of allocation information comprising an indication of the location of common information within a first carrier, to access the common information in the first carrier, wherein the allocation information is provided in a second carrier and the common information is for at least one mobile unit using the first carrier and for at least one mobile unit using a second carrier, characterized in that the frequency range of one of the first and the second carriers is smaller and within the frequency range of the other of the first and the second carriers. arranged to communicate data with one or more base stations via a wireless access interface provided by the one or more base stations; arranged to receive transmissions from the one or more base stations via at least one carrier, wherein carriers are logically separate sets of physical resources within a frequency range, the resources of a carrier providing a communication channel; arranged, upon reception of allocation information comprising an indication of the location of common information within a first carrier, to access the common information in the first carrier, wherein the allocation information is provided in a second carrier and the common information is for at least one mobile unit using the first carrier and for at least one mobile unit using a second carrier, characterized in that the frequency range of one of the first and the second carriers is smaller and within the frequency range of the other of the first and the second carriers.
An acoustic protection screen for motor vehicle engine , comprising: - a first part made of a plastic material, said first part including means for fixing the screen to a motor vehicle engine , - a second part consisting at least partially of an acoustic absorbing material, said second part being intended to come into contact with the engine , in which the first part covers the second part so as to mask it at least partially, characterized in that the first part has a central opening serving as housing for a third part , said third part being formed in a deformable material making it possible to absorb the shocks transmitted by the cowl of the motor vehicle during a pedestrian impact, said deformable material being a fibrous material. - a first part made of a plastic material, said first part including means for fixing the screen to a motor vehicle engine , - a second part consisting at least partially of an acoustic absorbing material, said second part being intended to come into contact with the engine ,