mhurhangee/patent-ind-claim-en huggingface dataset:
An air-conditioning system for installation in the external area of a motor vehicle, in particular a bus air-conditioning system on a bus roof , with an outer skin of an air-conditioning system cladding , wherein the air conditioning system has a cooling device with a compressor for a coolant circulating process, wherein the outer skin of the air-conditioning system cladding is designed as a solar cell for generating solar power, wherein the air-conditioning system also has a ventilating and venting device for the vehicle interior with at least one electrically driven fan unit , wherein the at least one fan unit of the ventilating and venting device is operated directly or indirectly by the solar power generated, and wherein the outer skin of the air-conditioning system cladding is an air-conditioning system hood of an air-conditioning unit , characterized in that the air-conditioning system hood consists of at least one solar cell which is integrated in a self-supporting moulded part and is thermoformed as a homogeneous, all-in-one moulded part, wherein the at least one solar cell is provided with a foam or laminate backing material.
A method of wireless communication performed by a base station, comprising: determining a configuration for a wakeup signal associated with a user equipment "UE", wherein the configuration indicates that a communication will be delayed based at least in part on a capability of the UE; transmitting the wakeup signal in a resource based at least in part on the configuration; and transmitting a communication to the UE based at least in part on the wakeup signal. determining a configuration for a wakeup signal associated with a user equipment "UE", wherein the configuration indicates that a communication will be delayed based at least in part on a capability of the UE; transmitting the wakeup signal in a resource based at least in part on the configuration; and transmitting a communication to the UE based at least in part on the wakeup signal.
A computer-implemented process performed by a processor in a computer, comprising: receiving an indication of objects to be shared into memory; generating a bundle object , said bundle object having permissions associated with it, for each entity having access to the bundle; storing identifiers of the shared objects associated with the bundle object ; storing permissions for accessing the shared objects with the bundle object , said shared objects inheriting the permissions associated with the bundle; wherein each of the shared objects stores an identifier indicating the bundle(s) in which it is included; and wherein bundles that include a shared object are identified based on a received identifier; and in response to an entity attempting to access an object, determining whether the permissions associated with that object permit the entity to access the object, and, if the permissions do not permit the entity to access the object, determining whether the object is in any bundle, wherein the bundle permissions are accessed if the object is in a bundle, and wherein the access is allowed if the bundle permissions allow the entity to access the object. receiving an indication of objects to be shared into memory; generating a bundle object , said bundle object having permissions associated with it, for each entity having access to the bundle; storing identifiers of the shared objects associated with the bundle object ; storing permissions for accessing the shared objects with the bundle object , said shared objects inheriting the permissions associated with the bundle; wherein each of the shared objects stores an identifier indicating the bundle(s) in which it is included; and wherein bundles that include a shared object are identified based on a received identifier; and in response to an entity attempting to access an object, determining whether the permissions associated with that object permit the entity to access the object, and, if the permissions do not permit the entity to access the object, determining whether the object is in any bundle, wherein the bundle permissions are accessed if the object is in a bundle, and wherein the access is allowed if the bundle permissions allow the entity to access the object.
An antenna interface arrangement for cancellation of a transmit signal at a receiver port of a transceiver, the antenna interface arrangement comprising: a distributed transformer having a primary side winding connectable to an antenna port of the transceiver and having a first part and a second part ; a first secondary side winding connectable to a transmitter port of the transceiver and having a first inductive coupling to the first part of the primary side winding; and a second secondary side winding connectable to the receiver port of the transceiver and having a second inductive coupling to the second part of the primary side winding, wherein the first and second inductive couplings are adapted to provide a first version of the transmit signal at the receiver port; and an impedance connected between the first secondary side winding and the second secondary side winding, wherein the impedance is adapted to provide a second version of the transmit signal at the receiver port, for cancelling the first version of the transmit signal. a distributed transformer having a primary side winding connectable to an antenna port of the transceiver and having a first part and a second part ; a first secondary side winding connectable to a transmitter port of the transceiver and having a first inductive coupling to the first part of the primary side winding; and a second secondary side winding connectable to the receiver port of the transceiver and having a second inductive coupling to the second part of the primary side winding, wherein the first and second inductive couplings are adapted to provide a first version of the transmit signal at the receiver port; and a primary side winding connectable to an antenna port of the transceiver and having a first part and a second part ; a first secondary side winding connectable to a transmitter port of the transceiver and having a first inductive coupling to the first part of the primary side winding; and a second secondary side winding connectable to the receiver port of the transceiver and having a second inductive coupling to the second part of the primary side winding, wherein the first and second inductive couplings are adapted to provide a first version of the transmit signal at the receiver port; and an impedance connected between the first secondary side winding and the second secondary side winding, wherein the impedance is adapted to provide a second version of the transmit signal at the receiver port, for cancelling the first version of the transmit signal.
An endless belt comprising: a substrate layer comprising polyimide and a plurality of boron nitride nanotubes dispersed in the polyimide, the boron nitride nanotubes having a surface area of from 50 m 2 /g to 500 m 2 /g as determined by BET analysis, and being in an amount ranging from 0.01 wt% to 20 wt% based on the total weight of the substrate layer.
A sender for providing secret data (Z) to a plurality receivers, wherein each receiver is arranged to use a respective sequence of functions to migrate the secret data from an initial input transform space into a respective final output transform space, wherein for each receiver in the plurality of receivers, the respective final output transform space is different to the respective final output transform space of each other receiver in the plurality of receivers, wherein the sender is arranged to: provide the secret data in the initial input transform space to the plurality of receivers; and for each receiver of the plurality of receivers, provide a respective sequence of seeds to said receiver, wherein each seed of the respective sequence of seeds is for seeding a corresponding function of the respective sequence of functions, wherein said seeded function is arranged to migrate the secret data from a respective input transform space to a respective output transform space, wherein said respective sequence of seeds is chosen so as to enable said receiver to use the respective sequence of functions under control of the respective sequence of seeds to migrate the secret data (Z) from the initial input transform space (IN) into the respective final output transform space (OUT1, OUT2, OUT3, OUT4). provide the secret data in the initial input transform space to the plurality of receivers; and for each receiver of the plurality of receivers, provide a respective sequence of seeds to said receiver, wherein each seed of the respective sequence of seeds is for seeding a corresponding function of the respective sequence of functions, wherein said seeded function is arranged to migrate the secret data from a respective input transform space to a respective output transform space, wherein said respective sequence of seeds is chosen so as to enable said receiver to use the respective sequence of functions under control of the respective sequence of seeds to migrate the secret data (Z) from the initial input transform space (IN) into the respective final output transform space (OUT1, OUT2, OUT3, OUT4).
A vacuum cleaner comprising a cyclone dust collector , wherein the cyclone dust collector comprises: a cyclone chamber including an inlet through which air is drawn in and an outlet through which dust-filtered air is discharged; a discharge passage a spiral part formed around the discharge passage to be inclined in a spiral pattern; and a grill , wherein the discharge passage is disposed inside the cyclone chamber ; and wherein the outlet is formed inside the discharge passage , characterized in that the grill is rotatably disposed on the discharge passage . a cyclone chamber including an inlet through which air is drawn in and an outlet through which dust-filtered air is discharged; a discharge passage a spiral part formed around the discharge passage to be inclined in a spiral pattern; and a grill , wherein the discharge passage is disposed inside the cyclone chamber ; and wherein the outlet is formed inside the discharge passage , characterized in that the grill is rotatably disposed on the discharge passage .
Solution comprising a) water, b) 20 to 55 wt.-% according to the total weight amount of the solution of compound 2,2,6,6-tetramethyl-4-(trimethylammonio)-1-piperidinyloxy of formula (I), c) less than 0.1 wt.-% according to the total weight amount of the solution alkali metal cation d) 0.1 to 12.5 wt.-% according to the total weight amount of the solution of compound N,N,N,1,2,2,6,6-octamethyl-4-piperidinammonium-1-oxide of formula (II) e) 0.01 to 20 wt.-% according to the total weight amount of the solution of compound 2,2,6,6-hexamethyl-4-(dimethylamino)-1-piperidinyloxy-N-oxide of formula (III) a) water, b) 20 to 55 wt.-% according to the total weight amount of the solution of compound 2,2,6,6-tetramethyl-4-(trimethylammonio)-1-piperidinyloxy of formula (I), c) less than 0.1 wt.-% according to the total weight amount of the solution alkali metal cation d) 0.1 to 12.5 wt.-% according to the total weight amount of the solution of compound N,N,N,1,2,2,6,6-octamethyl-4-piperidinammonium-1-oxide of formula (II) e) 0.01 to 20 wt.-% according to the total weight amount of the solution of compound 2,2,6,6-hexamethyl-4-(dimethylamino)-1-piperidinyloxy-N-oxide of formula (III)
Arrangement which comprises a fuel nozzle for dispensing a liquid and also comprises a product badge plate , which is connected to the fuel nozzle , the arrangement comprising an identification tab , characterized in that the identification tab comprises a connecting portion and an identification portion for displaying a piece of information, wherein the connecting portion is clamped in between a clamping surface of the product badge plate and a mating clamping surface of the fuel nozzle .
A method of polishing a substrate comprising: (i) providing a substrate, wherein the substrate comprises a cobalt layer; (ii) providing a polishing pad; (iii) providing a chemical-mechanical polishing composition; (iv) contacting the substrate with the polishing pad and the chemical-mechanical polishing composition; and (v) moving the polishing pad and the chemical-mechanical polishing composition relative to the substrate to abrade at least a portion of the cobalt layer to polish the substrate, wherein the chemical-mechanical polishing composition comprises (a) an abrasive, (b) a rate accelerator, wherein the rate accelerator comprises phosphonic acid, an N-heterocyclic compound, or a combination thereof, (c) a corrosion inhibitor comprising an amphoteric surfactant, a sulfonate, a phosphonate, a C 8 -C 18 carboxylic acid, an amino acid amide, a phosphate ester, an isethionate, a sulfate, a sulfosuccinate, a sulfocinnimate, or a combination thereof, (d) an oxidizing agent that oxidizes cobalt, and (e) an aqueous carrier, wherein the pH of the polishing composition is 3 to 8.5. (i) providing a substrate, wherein the substrate comprises a cobalt layer; (ii) providing a polishing pad; (iii) providing a chemical-mechanical polishing composition; (iv) contacting the substrate with the polishing pad and the chemical-mechanical polishing composition; and (v) moving the polishing pad and the chemical-mechanical polishing composition relative to the substrate to abrade at least a portion of the cobalt layer to polish the substrate, (a) an abrasive, (b) a rate accelerator, wherein the rate accelerator comprises phosphonic acid, an N-heterocyclic compound, or a combination thereof, (c) a corrosion inhibitor comprising an amphoteric surfactant, a sulfonate, a phosphonate, a C 8 -C 18 carboxylic acid, an amino acid amide, a phosphate ester, an isethionate, a sulfate, a sulfosuccinate, a sulfocinnimate, or a combination thereof, (d) an oxidizing agent that oxidizes cobalt, and (e) an aqueous carrier,
A measurement system for measuring wetness of a flowing fluid having a gas phase and liquid phase, the measurement system comprising: a container , for containing the fluid, having an inner surface and an average cross sectional area ; a flowrate measurement device adapted to measure a flowrate of the liquid phase forming a liquid film on the inner surface ; an Electrical Capacitance Tomography device adapted to measure the permittivity of the flowing fluid, comprising a plurality of electrodes , located in the container , with a measurement surface , a computer adapted to: calculate the flowrate of the liquid film in the container ; and then calculate wetness of the gas phase based on a measurement performed by the Electrical Capacitance Tomography device and the calculated flowrate of the liquid film. a container , for containing the fluid, having an inner surface and an average cross sectional area ; a flowrate measurement device adapted to measure a flowrate of the liquid phase forming a liquid film on the inner surface ; an Electrical Capacitance Tomography device adapted to measure the permittivity of the flowing fluid, comprising a plurality of electrodes , located in the container , with a measurement surface , a computer adapted to: calculate the flowrate of the liquid film in the container ; and then calculate wetness of the gas phase based on a measurement performed by the Electrical Capacitance Tomography device and the calculated flowrate of the liquid film.
A method of dimming control for orthogonal frequency division multiplexing, OFDM, -based visible light communication, VLC, comprising: determining a root mean square, RMS, of a signal power for each sub-carrier of an optical signal for an observed dimming level; determining a maximum number of active sub-carriers ( n a ) at the observed dimming level using the RMS of the signal power for a given bit error rate, BER, and a given quadrature amplitude modulation, QAM, size; transmitting the optical signal using OFDM with all the active sub-carriers when a total number of sub-carriers ( n ) is not greater than the maximum number of active sub-carriers ( n a ) at the observed dimming level; determining an equivalent number of sub-carriers ( n e ) assuming use of sub-carrier index modulation, SIM, when the total number of sub-carriers ( n ) is greater than the maximum number of active sub-carriers ( n a ) at the observed dimming level; transmitting the optical signal using OFDM with the maximum number of active sub-carriers ( n a ) and without SIM when the equivalent number of sub-carriers ( n e ) is greater than the maximum number of active sub-carriers ( n a ) at the observed dimming level; and transmitting the optical signal using OFDM with SIM when the equivalent number of sub-carriers ( n e ) is less than the maximum number of active sub-carriers ( n a ) at the observed dimming level. determining a root mean square, RMS, of a signal power for each sub-carrier of an optical signal for an observed dimming level; determining a maximum number of active sub-carriers ( n a ) at the observed dimming level using the RMS of the signal power for a given bit error rate, BER, and a given quadrature amplitude modulation, QAM, size; transmitting the optical signal using OFDM with all the active sub-carriers when a total number of sub-carriers ( n ) is not greater than the maximum number of active sub-carriers ( n a ) at the observed dimming level; determining an equivalent number of sub-carriers ( n e ) assuming use of sub-carrier index modulation, SIM, when the total number of sub-carriers ( n ) is greater than the maximum number of active sub-carriers ( n a ) at the observed dimming level; transmitting the optical signal using OFDM with the maximum number of active sub-carriers ( n a ) and without SIM when the equivalent number of sub-carriers ( n e ) is greater than the maximum number of active sub-carriers ( n a ) at the observed dimming level; and transmitting the optical signal using OFDM with SIM when the equivalent number of sub-carriers ( n e ) is less than the maximum number of active sub-carriers ( n a ) at the observed dimming level.
A system-in-package (SIP) for an aerosol generating apparatus, comprising: a microcontroller unit (MCU); a sensor module; and a heating integrated circuit (IC) configured to control a heating operation of a heater assembly included in the aerosol generating apparatus. a microcontroller unit (MCU); a sensor module; and a heating integrated circuit (IC) configured to control a heating operation of a heater assembly included in the aerosol generating apparatus.
A waist rotating mechanism, comprising: a back connection structure , wherein the back connection structure is configured to connect to the back of a users, and a mobile apparatus is disposed on the back connection structure ; and a rail , wherein the mobile apparatus is movably disposed on the rail , the mobile apparatus comprises a sliding block, and the sliding block is movably disposed on the rail , a mounting hole is disposed inside the sliding block, the rail passes through the mounting hole, a cross section of the rail is a polygon, and a cross section of the mounting hole matches the cross section of the rail ; characterized in that the waist rotating mechanism further comprises a buffering and resetting apparatus , wherein a first terminal of the buffering and resetting apparatus is connected to the rail , and a second terminal of the buffering and resetting apparatus is connected to the sliding block. a back connection structure , wherein the back connection structure is configured to connect to the back of a users, and a mobile apparatus is disposed on the back connection structure ; and a rail , wherein the mobile apparatus is movably disposed on the rail , the mobile apparatus comprises a sliding block, and the sliding block is movably disposed on the rail , a mounting hole is disposed inside the sliding block, the rail passes through the mounting hole, a cross section of the rail is a polygon, and a cross section of the mounting hole matches the cross section of the rail ;
Apparatus for pivoting or clamping a component, wherein the apparatus has a head part , wherein the head part has a worm drive , wherein the worm drive has a drivable worm with at least one screw thread and a worm wheel meshing therewith, wherein, by means of the worm wheel , an output shaft that passes out of the head part is able to be driven, wherein the output shaft is able to be connected to at least one pivoting element or clamping element for conjoint rotation, wherein the apparatus has a lubricating apparatus for lubricating the worm drive with a lubricant, wherein the lubricating apparatus is mounted in the head part , wherein the lubricating apparatus has a housing enclosing a cavity , wherein the cavity serves to hold the lubricant, wherein the lubricating apparatus has at least one application element , wherein at least a subregion of the application element is arranged in the cavity and wherein the application element comes into contact with the at least one screw thread , wherein the housing has an opening that leads into the cavity, characterized in that a segment of the worm wheel passes through this opening , and in that the lubricating apparatus has a sealing means arranged in the region of the opening , wherein the lubricating apparatus has a first sealing means arranged in the region of the opening , wherein the first sealing means comes into contact with the worm wheel at a circumferential surface of the worm wheel and/or the lubricating apparatus has a second sealing means arranged in the region of the opening , wherein the second sealing means comes into contact with the worm wheel in the direction of an axis of rotation of the worm wheel .
A sample plate comprising: a substrate ; and at least one sensor site on a first surface of the substrate ; a ridge waveguide provided on a second surface of the substrate for guiding an excitation signal to generate an evanescent field for exciting the at least one sensor site ; and at least one optical element provided on the second surface and configured to selectively collect and transmit out of the substrate signals emitted in response to said excitation of the at least one sensor site and propagating within the substrate at angles greater than the critical angle, wherein the at least one sensor site , the waveguide and the at least one optical element are integrated in the sample plate . a substrate ; and at least one sensor site on a first surface of the substrate ; a ridge waveguide provided on a second surface of the substrate for guiding an excitation signal to generate an evanescent field for exciting the at least one sensor site ; and at least one optical element provided on the second surface and configured to selectively collect and transmit out of the substrate signals emitted in response to said excitation of the at least one sensor site and propagating within the substrate at angles greater than the critical angle,