mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a haptic feedback system, including a first haptic actuator coupled to a controller via a first set of two or more electrodes; and a second haptic actuator coupled to the first haptic actuator, and further coupled to the controller via a second set of two or more electrodes, wherein the controller is configured to provide a first drive signal to the first haptic actuator via the first set of two or more electrodes, and to provide a second drive signal, different from the first drive signal, to the second haptic actuator via the second set of two or more electrodes, and wherein the first haptic actuator and second haptic actuator are physically coupled together within a stack via an adhesive layer, characterized in that the adhesive layer is configured to mitigate displacement of the first haptic actuator and the second haptic actuator relative to one another due to elastic modulus mismatch between the first haptic actuator and the second haptic actuator. a haptic feedback system, including a first haptic actuator coupled to a controller via a first set of two or more electrodes; and a second haptic actuator coupled to the first haptic actuator, and further coupled to the controller via a second set of two or more electrodes, wherein the controller is configured to provide a first drive signal to the first haptic actuator via the first set of two or more electrodes, and to provide a second drive signal, different from the first drive signal, to the second haptic actuator via the second set of two or more electrodes, and wherein the first haptic actuator and second haptic actuator are physically coupled together within a stack via an adhesive layer, characterized in that the adhesive layer is configured to mitigate displacement of the first haptic actuator and the second haptic actuator relative to one another due to elastic modulus mismatch between the first haptic actuator and the second haptic actuator. a first haptic actuator coupled to a controller via a first set of two or more electrodes; and a second haptic actuator coupled to the first haptic actuator, and further coupled to the controller via a second set of two or more electrodes, wherein the controller is configured to provide a first drive signal to the first haptic actuator via the first set of two or more electrodes, and to provide a second drive signal, different from the first drive signal, to the second haptic actuator via the second set of two or more electrodes, and wherein the first haptic actuator and second haptic actuator are physically coupled together within a stack via an adhesive layer, characterized in that the adhesive layer is configured to mitigate displacement of the first haptic actuator and the second haptic actuator relative to one another due to elastic modulus mismatch between the first haptic actuator and the second haptic actuator.
A method of providing network access to a data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106) that is configured for extended access barring, EAB, control for at least one network service and is a member of at least one network access class, the method comprising: receiving by a device and from the data use device at network attach, an identifier for an access class of the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106); applying, by the device, an EAB control to limit network access of network services; receiving, by the device and from the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106), a network access request to engage in data communications for an EAB controlled network service of the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106) while the device applies the EAB control; determining, by the device, that network access to accommodate the network access request is granted in accordance with the identifier while the device applies the EAB control and allowing, by the device, the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106) to engage in data communications associated with the network access request. receiving by a device and from the data use device at network attach, an identifier for an access class of the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106); applying, by the device, an EAB control to limit network access of network services; receiving, by the device and from the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106), a network access request to engage in data communications for an EAB controlled network service of the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106) while the device applies the EAB control; determining, by the device, that network access to accommodate the network access request is granted in accordance with the identifier while the device applies the EAB control and allowing, by the device, the data use device (102, 104, 104-1, 104-2, 104-x, 106-1, 106) to engage in data communications associated with the network access request.
A method for operating a pipeline analog-to-digital converter, ADC, comprising the steps of: providing an input signal to a coarse ADC (502; 600) coupled with a digital-to analog converter, DAC, wherein the coarse ADC (502; 600) feeds a coarse digital output signal to the DAC; subtracting an output signal of the DAC from the input signal and amplifying the difference by means of a residue amplifier to generate a residue output; feeding the residue output to a back end ADC; amplifying an output of the back-end ADC; feeding the amplified output of the back-end ADC, a digital output of the pipeline ADC and one or more randomized voltage sequences (Σt) to a harmonic distortion correction, HDC, circuit which provides an output signal; feeding the digital output of the pipeline ADC to a DAC noise cancellation, DNC, circuit providing an output signal; adding the coarse digital output signal, the output signal of the DNC circuit and the output of the HDC circuit to generate the digital output of the pipeline ADC; and providing threshold voltages by a dynamic element matching, DEM, circuit and modifying the threshold voltages by subtracting the one or more randomized voltage sequences (Σt) from the threshold voltages to provide a reference signal to the coarse ADC (524, 532). providing an input signal to a coarse ADC (502; 600) coupled with a digital-to analog converter, DAC, wherein the coarse ADC (502; 600) feeds a coarse digital output signal to the DAC; subtracting an output signal of the DAC from the input signal and amplifying the difference by means of a residue amplifier to generate a residue output; feeding the residue output to a back end ADC; amplifying an output of the back-end ADC; feeding the amplified output of the back-end ADC, a digital output of the pipeline ADC and one or more randomized voltage sequences (Σt) to a harmonic distortion correction, HDC, circuit which provides an output signal; feeding the digital output of the pipeline ADC to a DAC noise cancellation, DNC, circuit providing an output signal; adding the coarse digital output signal, the output signal of the DNC circuit and the output of the HDC circuit to generate the digital output of the pipeline ADC; and providing threshold voltages by a dynamic element matching, DEM, circuit and modifying the threshold voltages by subtracting the one or more randomized voltage sequences (Σt) from the threshold voltages to provide a reference signal to the coarse ADC (524, 532).
A display backlight, comprising: a lightguide having top and bottom parallel faces, and a pair of opposite side edges, wherein the light output is from the top face; a light source arrangement for providing light into the lightguide at one or both of the opposite side edges; and an array of light out-coupling structures formed at the top or bottom parallel face for redirecting light so that it escapes from the lightguide at the location of the light out-coupling structures, wherein the light source arrangement is controllable to provide a selected one of at least first and second light outputs entering into the lightguide, the first and second light outputs being at least partially collimated and the light source arrangement being adapted to enter the first and second light outputs into the lightguide with a different angular direction of elevation with respect to the plane of the top and bottom parallel faces and across the edge-to-edge direction, wherein the first and second light outputs entering into the lightguide result in different light output angles from the top face. a lightguide having top and bottom parallel faces, and a pair of opposite side edges, wherein the light output is from the top face; a light source arrangement for providing light into the lightguide at one or both of the opposite side edges; and an array of light out-coupling structures formed at the top or bottom parallel face for redirecting light so that it escapes from the lightguide at the location of the light out-coupling structures, wherein the light source arrangement is controllable to provide a selected one of at least first and second light outputs entering into the lightguide, the first and second light outputs being at least partially collimated and the light source arrangement being adapted to enter the first and second light outputs into the lightguide with a different angular direction of elevation with respect to the plane of the top and bottom parallel faces and across the edge-to-edge direction, wherein the first and second light outputs entering into the lightguide result in different light output angles from the top face.
A mobile computing device comprising: a processor configured to: determine a recommended route for a user of the mobile computing device to travel from a first location to a second location, the recommended route including at least a public transportation segment; detect position information for the user of the mobile computing device; detect an off-route condition during the public transportation segment based on the position information, the off-route condition indicating that the user has deviated from the recommended route during the public transportation segment by a predetermined threshold; and based on at least detecting the off-route condition during the public transportation segment, programmatically determine a new route to the second location; characterised in that the determining a recommended route includes selecting a route of a public transit vehicle for the public transportation segment based on user difficulty metric data for that route of the public transit vehicle; and based on at least detecting the off-route condition during the public transportation segment, the processor is further configured to modify the user difficulty metric data for the route of the public transportation segment based on the detected off-route condition, such that the route of the public transit vehicle is less likely to be selected. determine a recommended route for a user of the mobile computing device to travel from a first location to a second location, the recommended route including at least a public transportation segment; detect position information for the user of the mobile computing device; detect an off-route condition during the public transportation segment based on the position information, the off-route condition indicating that the user has deviated from the recommended route during the public transportation segment by a predetermined threshold; and based on at least detecting the off-route condition during the public transportation segment, programmatically determine a new route to the second location; characterised in that the determining a recommended route includes selecting a route of a public transit vehicle for the public transportation segment based on user difficulty metric data for that route of the public transit vehicle; and based on at least detecting the off-route condition during the public transportation segment, the processor is further configured to modify the user difficulty metric data for the route of the public transportation segment based on the detected off-route condition, such that the route of the public transit vehicle is less likely to be selected.
A duct panel comprising: a laminate structure having an insulation layer disposed between a first support layer and a second support layer, the laminate structure having a first end width and a second end width that are located at opposite ends of the laminate structure; a first end cap and a second end cap attached to the first end width and the second end width respectively; and a first mounting flange and a second mounting flange coupled to the first end cap and the second end cap respectively, wherein the first mounting flange and the first end cap comprise different materials, wherein the second mounting flange and the second end cap comprise different materials, and wherein the first and second mounting flanges (116, 118) are configured to mount the duct panel, characterized in that the first and second mounting flanges (116, 118) and the second support layer form a unitary construction. a laminate structure having an insulation layer disposed between a first support layer and a second support layer, the laminate structure having a first end width and a second end width that are located at opposite ends of the laminate structure; a first end cap and a second end cap attached to the first end width and the second end width respectively; and a first mounting flange and a second mounting flange coupled to the first end cap and the second end cap respectively, wherein the first mounting flange and the first end cap comprise different materials, wherein the second mounting flange and the second end cap comprise different materials, and wherein the first and second mounting flanges (116, 118) are configured to mount the duct panel, characterized in that the first and second mounting flanges (116, 118) and the second support layer form a unitary construction.
A method of attachment between a metal collector and a carbon felt of a battery, characterized in that it comprises the steps of: - impregnation of the pores of the carbon felt with a mixture of metal powder and of a binder, and - spot welding between the metal collector and the carbon felt impregnated with the metal powder, the impregnation step being locally carried out in at least one predetermined area of the carbon felt, the spot welding step being carried out at the level of said at least one predetermined area. - impregnation of the pores of the carbon felt with a mixture of metal powder and of a binder, and - spot welding between the metal collector and the carbon felt impregnated with the metal powder,
A dispensing device 310, comprising: a housing 312; a fan 366; and a refill 326, wherein the refill 326 comprises an annular reservoir 328 having a compound 330 disposed therein; and an annular permeable substrate 332 in fluid communication with the compound 330 disposed in said annular reservoir 328 and configured to release the compound 330 in a first passive state, wherein the compound 330 is released from the permeable substrate 332 according to a uniform diffusion profile, and wherein the fan 366 is configured such that rotation of the fan 366 causes air to pass over the permeable substrate 332 to release the compound 330 in a second, active state; characterised in that said fan is a centrifugal fan 366; and in that the permeable substrate 332 includes a horizontal surface 334 having at least one wick 336 extending from the horizontal surface 334 into the compound 330 disposed in the reservoir 328, wherein the horizontal surface 334 and the at least one wick 336 have a T-shaped cross-section in radial direction. a housing 312; a fan 366; and a refill 326, wherein the refill 326 comprises an annular reservoir 328 having a compound 330 disposed therein; and an annular permeable substrate 332 in fluid communication with the compound 330 disposed in said annular reservoir 328 and configured to release the compound 330 in a first passive state, wherein the compound 330 is released from the permeable substrate 332 according to a uniform diffusion profile, and an annular reservoir 328 having a compound 330 disposed therein; and an annular permeable substrate 332 in fluid communication with the compound 330 disposed in said annular reservoir 328 and configured to release the compound 330 in a first passive state, wherein the compound 330 is released from the permeable substrate 332 according to a uniform diffusion profile, and wherein the fan 366 is configured such that rotation of the fan 366 causes air to pass over the permeable substrate 332 to release the compound 330 in a second, active state; characterised in that said fan is a centrifugal fan 366; and in that the permeable substrate 332 includes a horizontal surface 334 having at least one wick 336 extending from the horizontal surface 334 into the compound 330 disposed in the reservoir 328, wherein the horizontal surface 334 and the at least one wick 336 have a T-shaped cross-section in radial direction.
A circuit comprising: a field-effect transistor, FET, having a first terminal configured to be coupled to a battery and a second terminal configured to be coupled to an electronic system, wherein current from the battery flows through the FET to the electronic system, and wherein the FET comprises a plurality of FETs (522-1 - 522-n) coupled in parallel by coupling sources of each of the plurality of FETs and drains of each of the plurality of FETs, and each of the plurality of FETs having a separate control terminal; a logic block having an input to receive a system state input and having an output to provide a plurality of switch control signals based on the system state input; a switching circuit having first terminals coupled to the plurality of switch control signals and having second terminals independently coupled to the separate control terminals of the plurality of FETs to selectively couple the separate control terminals of the plurality of FETs to one of a first reference voltage terminal or a second reference voltage terminal to independently turn each FET on or off; and an analog to digital converter having a first input terminal coupled to the first terminal of the FET, having a second input terminal coupled to the second terminal of the FET and having an output to provide a digital value in response to signals applied to the first input terminal and the second input terminal. a field-effect transistor, FET, having a first terminal configured to be coupled to a battery and a second terminal configured to be coupled to an electronic system, wherein current from the battery flows through the FET to the electronic system, and wherein the FET comprises a plurality of FETs (522-1 - 522-n) coupled in parallel by coupling sources of each of the plurality of FETs and drains of each of the plurality of FETs, and each of the plurality of FETs having a separate control terminal; a logic block having an input to receive a system state input and having an output to provide a plurality of switch control signals based on the system state input; a switching circuit having first terminals coupled to the plurality of switch control signals and having second terminals independently coupled to the separate control terminals of the plurality of FETs to selectively couple the separate control terminals of the plurality of FETs to one of a first reference voltage terminal or a second reference voltage terminal to independently turn each FET on or off; and an analog to digital converter having a first input terminal coupled to the first terminal of the FET, having a second input terminal coupled to the second terminal of the FET and having an output to provide a digital value in response to signals applied to the first input terminal and the second input terminal.
A fusion polypeptide comprising: (i) a DNAX-activating protein 10 polypeptide comprising the sequence of SEQ ID NO: 1, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 1, or (b) is a truncated version of SEQ ID NO: 1 comprising or consisting of amino acids 19-93, 19-69, 1-71, 19-71, 19-48, 49-69, 49-93, or 70-93 of SEQ ID NO: 1; and (ii) a DNAX-activating protein 12 polypeptide comprising the sequence of SEQ ID NO: 9, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 9, or (b) is a truncated version of SEQ ID NO: 9 comprising or consisting of amino acids 22-113, 62-113, 22-61 or 41-61 of SEQ ID NO: 9. (i) a DNAX-activating protein 10 polypeptide comprising the sequence of SEQ ID NO: 1, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 1, or (b) is a truncated version of SEQ ID NO: 1 comprising or consisting of amino acids 19-93, 19-69, 1-71, 19-71, 19-48, 49-69, 49-93, or 70-93 of SEQ ID NO: 1; and (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 1, or (b) is a truncated version of SEQ ID NO: 1 comprising or consisting of amino acids 19-93, 19-69, 1-71, 19-71, 19-48, 49-69, 49-93, or 70-93 of SEQ ID NO: 1; and (ii) a DNAX-activating protein 12 polypeptide comprising the sequence of SEQ ID NO: 9, or a functional variant thereof, wherein the functional variant (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 9, or (b) is a truncated version of SEQ ID NO: 9 comprising or consisting of amino acids 22-113, 62-113, 22-61 or 41-61 of SEQ ID NO: 9. (a) comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 9, or (b) is a truncated version of SEQ ID NO: 9 comprising or consisting of amino acids 22-113, 62-113, 22-61 or 41-61 of SEQ ID NO: 9.
Ceramic thermoelement having two first and second regions or thermolegs which are each formed from a different material composition, are connected to each other electrically and can be connected to a measuring device which is configured for measuring the electrical voltage difference, which is caused as a result of the Seebeck effect, and the two regions or thermolegs are formed respectively from a boron carbide-metal carbide or boron carbide-metal boride composite material, wherein the proportions of boron carbide and metal carbide or metal boride in the respective composite material differ in the regions or thermolegs, characterised in that the metal carbide or metal boride is thereby contained in at least one region or thermoleg with a proportion in the composite material which is by max. 20% by mass less than the proportion achievable during percolation of the metal carbide or metal boride. the two regions or thermolegs are formed respectively from a boron carbide-metal carbide or boron carbide-metal boride composite material, wherein the proportions of boron carbide and metal carbide or metal boride in the respective composite material differ in the regions or thermolegs, characterised in that the metal carbide or metal boride is thereby contained in at least one region or thermoleg with a proportion in the composite material which is by max. 20% by mass less than the proportion achievable during percolation of the metal carbide or metal boride.
Lamp assembly for an automotive headlamp, comprising an LED for emitting light rays, a housing, to which the LED is detachably connectable, wherein the housing comprises an entrance window assigned to the LED, wherein the LED comprises an emitting area, and a guiding element for guiding the light rays passing through the entrance window, wherein the guiding element is connected to the housing, characterized in that said emitting area is larger than the area of the entrance window.