mhurhangee/patent-ind-claim-en huggingface dataset:
A power splitter-combiner comprising: one combining terminal ; two split terminals ; an absorption resistance connected between the two split terminals ; a first transmission line that is connected between the combining terminal and one split terminal of the two split terminals ; a second transmission line that is connected between the combining terminal and the other split terminal of the two split terminals and has a length shorter than that of the first transmission line ; and at least one first open stub that is connected to the second transmission line , wherein the second transmission line has a characteristic impedance higher than that of the first transmission line , and/or the first transmission line and the second transmission line extend so as to be parallel to each other and are bent in a same direction as each other. one combining terminal ; two split terminals ; an absorption resistance connected between the two split terminals ; a first transmission line that is connected between the combining terminal and one split terminal of the two split terminals ; a second transmission line that is connected between the combining terminal and the other split terminal of the two split terminals and has a length shorter than that of the first transmission line ; and at least one first open stub that is connected to the second transmission line , wherein the second transmission line has a characteristic impedance higher than that of the first transmission line , and/or the first transmission line and the second transmission line extend so as to be parallel to each other and are bent in a same direction as each other.
Heating apparatus comprising both a brazier suitable to thermochemically decompose a biomass (C) and produce at least one combustible gas (S) and which in turn comprises a first entry aperture to receive said biomass (C) which functions as fuel and a second aperture to receive a first comburent (F1), and also a combustion chamber which is autonomous with respect to said brazier , is delimited by a plurality of walls and is suitable to develop heat by means of a flame, further comprising conveyor means (M2) interposed between said brazier and said combustion chamber to convey said at least one combustible gas (S) to said combustion chamber , wherein on at least one first wall of said plurality of walls one or more recirculation apertures are made, each of which is connected to said second aperture of said brazier by means of recirculation means and wherein said heating apparatus also comprises a containing body configured to define, together with said first wall , a containing compartment (V) in which said recirculation means are disposed, characterized in that said containing body is also configured to receive a second comburent (A) from the external environment, in such a way that it is heated by said recirculation means , and to direct it into said combustion chamber .
A method for precoding, comprising steps of: constructing a concatenated precoding matrix according to indices of a plurality of first precoding matrixes received from a mobile terminal by combining the respective precoding matrixes, wherein each of the first precoding matrixes correspond to each antenna group according to grouping information and a channel model, and wherein the grouping information includes a number of base stations in a MIMO system, a number of transmit antennas at each base station, a number of groups resulting from dividing the antennas of the base station, and a number of antennas in each group; precoding data using the constructed concatenated precoding matrix; and sending the precoded data to the mobile terminal. constructing a concatenated precoding matrix according to indices of a plurality of first precoding matrixes received from a mobile terminal by combining the respective precoding matrixes, wherein each of the first precoding matrixes correspond to each antenna group according to grouping information and a channel model, and wherein the grouping information includes a number of base stations in a MIMO system, a number of transmit antennas at each base station, a number of groups resulting from dividing the antennas of the base station, and a number of antennas in each group; precoding data using the constructed concatenated precoding matrix; and sending the precoded data to the mobile terminal.
A headgear for engaging and supporting protective headwear on a wearer's head, the headgear comprising: a first side member on a first side of the headgear ; a second side member on a second side of the headgear ; a forehead strap pivotally coupled to and extending between the first and second side members , wherein the forehead strap is configured to engage a wearer's forehead with the headgear worn by a wearer; and a second strap coupled to and extending between the first and second side members , wherein the second strap is rigidly coupled to the first and second side members , characterized by a third strap being coupled to and extending between the first and second side members , wherein the second strap is positioned between the forehead strap and the third strap , and a limiting member engageable by the forehead strap to limit pivoting of the forehead strap . a first side member on a first side of the headgear ; a second side member on a second side of the headgear ; a forehead strap pivotally coupled to and extending between the first and second side members , wherein the forehead strap is configured to engage a wearer's forehead with the headgear worn by a wearer; and a second strap coupled to and extending between the first and second side members , wherein the second strap is rigidly coupled to the first and second side members , characterized by a third strap being coupled to and extending between the first and second side members , wherein the second strap is positioned between the forehead strap and the third strap , and a limiting member engageable by the forehead strap to limit pivoting of the forehead strap .
A test system comprising: a device interface board, i.e., DIB, comprising sites to connect to devices to test; a tester comprising slots configured to hold test instruments , each test instrument having resources that are distributed over a dimension of the DIB, the resources being distributed to enable the devices in the sites equal access to the resources; and an interconnect between the DIB and the tester, wherein the interconnect comprises routing connections between the test instruments and the DIB, characterised in that the interconnect comprises circuitry to process signals conducting through the routing connections, wherein the circuitry is configured to process the signals by combining first signals from two more routing connections to produce a second signal for output to a single routing electrical connection, the single routing connection going to a resource on the DIB. a device interface board, i.e., DIB, comprising sites to connect to devices to test; a tester comprising slots configured to hold test instruments , each test instrument having resources that are distributed over a dimension of the DIB, the resources being distributed to enable the devices in the sites equal access to the resources; and an interconnect between the DIB and the tester, wherein the interconnect comprises routing connections between the test instruments and the DIB, characterised in that the interconnect comprises circuitry to process signals conducting through the routing connections, wherein the circuitry is configured to process the signals by combining first signals from two more routing connections to produce a second signal for output to a single routing electrical connection, the single routing connection going to a resource on the DIB. routing connections between the test instruments and the DIB, characterised in that the interconnect comprises circuitry to process signals conducting through the routing connections, wherein the circuitry is configured to process the signals by combining first signals from two more routing connections to produce a second signal for output to a single routing electrical connection, the single routing connection going to a resource on the DIB.
An aqueous dispersion of a capsule composed of a polymeric shell surrounding a core, the core containing an oligomeric blocked isocyanate characterized in that said blocked isocyanate is derived from from a di-, tri- or tetra-functional isocyanate terminated oligomer, selected from the group of an isocyanate terminated oligo-ether, an isocyanate terminated oligo-ester, an isocyanate terminated oligo-carbonate, an isocyanate terminated butadiene oligomer, an isocyanate terminated hydrogenated butadiene oligomer, an isocyanate terminated isoprene oligomer, an isocyanate terminated silicone oligomer and combinations thereof.
A method for transmitting redundancy data in an hybrid broadband/broadcast network system comprising a broadcast network dedicated to transmission of broadcast services and a broadband network dedicated to transmission of at least unicast services, the method being carried out in at least one network entity (10; 12; 11.1-11.2) and a base station (11.1; 11.2) of the broadband network and comprising the following steps: - selecting , by the at least one network entity, a transmission mode for transmitting redundancy data among a plurality of transmission modes supported by the broadband network; - obtaining , by the at least one network entity, redundancy data, said redundancy data comprising information for decoding broadcast services broadcasted by the broadcast network ; - transmitting to at least one user equipment from the base station (11.1; 11.2) of the broadband network, the obtained redundancy data according to the selected transmission mode; wherein the plurality of transmission modes comprises at least one unicast transmission mode and at least one broadcast transmission mode. - selecting , by the at least one network entity, a transmission mode for transmitting redundancy data among a plurality of transmission modes supported by the broadband network; - obtaining , by the at least one network entity, redundancy data, said redundancy data comprising information for decoding broadcast services broadcasted by the broadcast network ; - transmitting to at least one user equipment from the base station (11.1; 11.2) of the broadband network, the obtained redundancy data according to the selected transmission mode;
An exhaled breath moisture reduction system comprising: a respiratory output device comprising an airway adaptor ; a dryer tube configured to be coupled to the respiratory output device and comprising a material configured to absorb moisture, wherein the material is essentially impermeable to gases; a first connector disposed on a first end of the dryer tube and configured to removably attach the dryer tube to the respiratory output device, characterised by a gripper removably coupled to the first connector and comprising a body having a thermally insulating foamy material, when the gripper is coupled to the first connector, the gripper abuts a first outer surface of the airway adaptor, a first portion of an inner wall of the gripper is in contact with an outer wall of the first connector along a portion of a length of the first connector, and a second portion of the inner wall of the gripper is radially spaced apart from the outer wall of the first connector by a gap, and wherein the inner wall of the gripper defines the second central bore; and a second, molded-on connector at least partially covering a second outer surface of an outlet of the dryer tube, wherein the second, molded-on connector comprises a coupler configured to connect said moisture reduction system to a capnograph. a respiratory output device comprising an airway adaptor ; a dryer tube configured to be coupled to the respiratory output device and comprising a material configured to absorb moisture, wherein the material is essentially impermeable to gases; a first connector disposed on a first end of the dryer tube and configured to removably attach the dryer tube to the respiratory output device, characterised by a gripper removably coupled to the first connector and comprising a body having a thermally insulating foamy material, when the gripper is coupled to the first connector, the gripper abuts a first outer surface of the airway adaptor, a first portion of an inner wall of the gripper is in contact with an outer wall of the first connector along a portion of a length of the first connector, and a second portion of the inner wall of the gripper is radially spaced apart from the outer wall of the first connector by a gap, and wherein the inner wall of the gripper defines the second central bore; and a second, molded-on connector at least partially covering a second outer surface of an outlet of the dryer tube, wherein the second, molded-on connector comprises a coupler configured to connect said moisture reduction system to a capnograph.
A filter cartridge , comprising: a filter media pack comprising a filter media sheet , the filter media pack having an inlet face , an outlet face , opposite first and second sides , opposite first and second ends , the sides and the ends extending transversely between the inlet face and the outlet face , the sides extending transversely between the ends , wherein the first end bulges outwardly or inwardly from the opposite sides to define a first bulged face; and first and second end caps for respectively sealing the first and second ends of the filter media pack , wherein the first end cap includes a first adhesive end wall embedded into the first bulged face of the first end . a filter media pack comprising a filter media sheet , the filter media pack having an inlet face , an outlet face , opposite first and second sides , opposite first and second ends , the sides and the ends extending transversely between the inlet face and the outlet face , the sides extending transversely between the ends , wherein the first end bulges outwardly or inwardly from the opposite sides to define a first bulged face; and first and second end caps for respectively sealing the first and second ends of the filter media pack , wherein the first end cap includes a first adhesive end wall embedded into the first bulged face of the first end .
Hand-held vacuum cleaner comprising a handle , a suction tube , a floor nozzle and a separation unit , which has an appliance body contained in a drive unit and a suctioned-material container in order to suction suctioned material through the floor nozzle into the suctioned-material container , it being possible to interconnect the handle , the suction tube , the floor nozzle and the separation unit in a first (lower) configuration and in a second (upper) configuration, in the first (lower) configuration the suction tube being arranged between the separation unit and the handle , and in the second (upper) configuration the suction tube being arranged between the floor nozzle and the separation unit in such a way that the suctioned material that is suctioned up passes the suction tube as the material travels from the floor nozzle into the suctioned-material container , the suctioned-material container comprising a first planar face which is designed such that the vacuum cleaner is stable when it is arranged in a lying position on the first planar face , characterised in that, in a first lying position of the vacuum cleaner in which it is arranged lying on a surface in the first configuration, the vacuum cleaner is arranged such that the floor nozzle and the first planar face rest on the surface .
An engineered, non-naturally occurring CRISPR-Cas system comprising one or more vectors comprising: a) a first nucleotide sequence encoding a polynucleotide sequence comprising a guide sequence, a tracr sequence, and a tracr mate sequence, wherein the guide sequence hybridizes with a target sequence in polynucleotide loci in a eukaryotic cell, and b) a second nucleotide sequence encoding a Cas9 and one or more NLS(s), wherein the Cas9 comprises less than 1000 amino acids, wherein components (a) and (b) are located on same or different vectors of the system, wherein the system further comprises a recombination template which is 1000 or more nucleotides in length. a) a first nucleotide sequence encoding a polynucleotide sequence comprising a guide sequence, a tracr sequence, and a tracr mate sequence, wherein the guide sequence hybridizes with a target sequence in polynucleotide loci in a eukaryotic cell, and b) a second nucleotide sequence encoding a Cas9 and one or more NLS(s), wherein the Cas9 comprises less than 1000 amino acids,
A virtual control device according to the AUTOSAR standard, having a service layer , an ECU abstraction layer , and a microcontroller abstraction layer , for securing the control software of a control device by means of reproducible tests, the virtual control device being connected to an environmental model, characterized in that the virtual control device further comprises a hardware layer set up for simulating at least one hardware component , wherein the virtual hardware component is a virtual sensor, actuator, and/or control device network, wherein the virtual hardware component is integrated in the hardware layer as a hardware component model , wherein the hardware component model calculates the associated output value for an input signal and thus the result of the simulation of the hardware component , wherein the hardware component can be simulated at different calculation rates, wherein a calculation rate of the hardware component model can be freely selected, wherein a calculation rate of the environment model during the simulation deviates from the calculation rate of the hardware component model , wherein the environment model exchanges signals with the virtual control device during the simulation, wherein a rate at which the signals are transferred between the environment model and the virtual control device is less than or equal to the calculation rate of the environment model . standard, having a service layer , an ECU abstraction layer , and a microcontroller abstraction layer , for securing the control software of a control device by means of reproducible tests, the virtual control device being connected to an environmental model, characterized in that the virtual control device further comprises a hardware layer set up for simulating at least one hardware component , wherein the virtual hardware component is a virtual sensor, actuator, and/or control device network, wherein the virtual hardware component is integrated in the hardware layer as a hardware component model , wherein the hardware component model calculates the associated output value for an input signal and thus the result of the simulation of the hardware component , wherein the hardware component can be simulated at different calculation rates, wherein a calculation rate of the hardware component model can be freely selected, wherein a calculation rate of the environment model during the simulation deviates from the calculation rate of the hardware component model , wherein the environment model exchanges signals with the virtual control device during the simulation, wherein a rate at which the signals are transferred between the environment model and the virtual control device is less than or equal to the calculation rate of the environment model .
An electronic device with a rollable display, comprising at least the rollable display , a rear cover , a middle frame located between the rollable display and the rear cover, and an antenna assembly, ; wherein the middle frame comprises a metal middle plate and a top metal frame and a bottom metal frame that are located at two ends of the metal middle plate, the metal middle plate is located in space enclosed by the rollable display and the rear cover, and the top metal frame and the bottom metal frame are respectively located at the top and the bottom of the rollable display and the rear cover; wherein the rollable display has curly parts curling toward the rear cover, and a first extension stub and a second extension stub , in the antenna assembly extend into the space enclosed by the rollable display and the rear cover; wherein the antenna assembly comprises a first antenna , and the first antenna comprises a first radiator , the first extension stub, and a first feed point (a1) and a first ground point (c1) that are electrically connected to the first extension stub; and one end of the first extension stub is connected to the first radiator, the other end of the first extension stub extends into the electronic device, and the first radiator is a part of the top metal frame or a part of the bottom metal frame of the electronic device. wherein the middle frame comprises a metal middle plate and a top metal frame and a bottom metal frame that are located at two ends of the metal middle plate, the metal middle plate is located in space enclosed by the rollable display and the rear cover, and the top metal frame and the bottom metal frame are respectively located at the top and the bottom of the rollable display and the rear cover; wherein the rollable display has curly parts curling toward the rear cover, and a first extension stub and a second extension stub , in the antenna assembly extend into the space enclosed by the rollable display and the rear cover; wherein the antenna assembly comprises a first antenna , and the first antenna comprises a first radiator , the first extension stub, and a first feed point (a1) and a first ground point (c1) that are electrically connected to the first extension stub; and one end of the first extension stub is connected to the first radiator, the other end of the first extension stub extends into the electronic device, and the first radiator is a part of the top metal frame or a part of the bottom metal frame of the electronic device.
A device, comprising: one or more microphones ; and one or more processors in communication with the one or more microphones, the one or more processors being configured to: receive volume adjustment commands; determine a background noise level; and adjust, based on the determined background noise level, at least one of a quantity of volume levels , the quantity of volume levels being a total number of increments between a minimum volume and a maximum volume, and a loudness delta , the loudness delta being the difference between a first volume level and a second adjacent volume level that is obtained in response to a single volume adjustment command, wherein adjusting at least one of the quantity of volume levels and the loudness delta results in adjusting a number of volume adjustment commands required for changing a volume level from the minimum volume to the maximum level or from the maximum volume to the minimum volume. one or more microphones ; and one or more processors in communication with the one or more microphones, the one or more processors being configured to: receive volume adjustment commands; determine a background noise level; and adjust, based on the determined background noise level, at least one of a quantity of volume levels , the quantity of volume levels being a total number of increments between a minimum volume and a maximum volume, and a loudness delta , the loudness delta being the difference between a first volume level and a second adjacent volume level that is obtained in response to a single volume adjustment command, wherein adjusting at least one of the quantity of volume levels and the loudness delta results in adjusting a number of volume adjustment commands required for changing a volume level from the minimum volume to the maximum level or from the maximum volume to the minimum volume. receive volume adjustment commands; determine a background noise level; and adjust, based on the determined background noise level, at least one of a quantity of volume levels , the quantity of volume levels being a total number of increments between a minimum volume and a maximum volume, and a loudness delta , the loudness delta being the difference between a first volume level and a second adjacent volume level that is obtained in response to a single volume adjustment command,