mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic composite comprising: - a thermoplastic polymer matrix, said matrix comprising an amorphous thermoplastic polyester comprising at least one 1,4: 3,6-dianhydrohexitol unit, at least one alicyclic diol unit other than the 1,4: 3,6-dianhydrohexitol units, at least one terephthalic acid unit, wherein the /[ +] molar ratio is at least 0.32 and at most 0.75, said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 5%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of which is greater than 50 ml/g, - thermoplastic polymer fibers, said fibers comprising a semicrystalline thermoplastic polyester comprising at least one 1,4: 3,6-dianhydrohexitol unit, at least one alicyclic diol unit other than the 1,4: 3,6-dianhydrohexitol units, at least one terephthalic acid unit, wherein the /[ +] molar ratio is at least 0.05 and at most 0.30, said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 5%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of which is greater than 50 ml/g. - a thermoplastic polymer matrix, said matrix comprising an amorphous thermoplastic polyester comprising at least one 1,4: 3,6-dianhydrohexitol unit, at least one alicyclic diol unit other than the 1,4: 3,6-dianhydrohexitol units, at least one terephthalic acid unit, wherein the /[ +] molar ratio is at least 0.32 and at most 0.75, said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 5%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of which is greater than 50 ml/g, - thermoplastic polymer fibers, said fibers comprising a semicrystalline thermoplastic polyester comprising at least one 1,4: 3,6-dianhydrohexitol unit, at least one alicyclic diol unit other than the 1,4: 3,6-dianhydrohexitol units, at least one terephthalic acid unit, wherein the /[ +] molar ratio is at least 0.05 and at most 0.30, said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 5%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of which is greater than 50 ml/g.
A vehicle comprising: one or more vehicle subsystems; a fuel store configured to store a fuel, the fuel comprising a hydrocarbon; a fuel reformer coupled to the fuel store and configured to: receive an input comprising the hydrocarbon; and process the received input to produce an output comprising hydrogen; and a fuel cell coupled to the fuel reformer and configured to: receive the hydrogen from the fuel reformer; produce, using the received hydrogen, electricity for use on the vehicle; produce, as a result of producing the electricity, a fuel cell output comprising water; and output the water for use by the one or more subsystems on the vehicle, the one or more vehicle subsystems being remote from the fuel cell, and further comprising a cooling system and a conduit; wherein the cooling system is configured to: receive the water produced by the fuel cell; provide, to the fuel cell and the one or more vehicle subsystems on the vehicle, the water as a coolant, thereby to cool the fuel cell and the one or more vehicle subsystems, wherein the cooling system comprises an outlet coupled to the conduit and the conduit defines a first fluid flow path which travels through or proximate to the fuel cell, and a second fluid flow path which travels through or proximate to the one or more vehicle subsystems. one or more vehicle subsystems; a fuel store configured to store a fuel, the fuel comprising a hydrocarbon; a fuel reformer coupled to the fuel store and configured to: receive an input comprising the hydrocarbon; and process the received input to produce an output comprising hydrogen; and a fuel cell coupled to the fuel reformer and configured to: receive the hydrogen from the fuel reformer; produce, using the received hydrogen, electricity for use on the vehicle; produce, as a result of producing the electricity, a fuel cell output comprising water; and output the water for use by the one or more subsystems on the vehicle, the one or more vehicle subsystems being remote from the fuel cell, and further comprising a cooling system and a conduit; wherein the cooling system is configured to: receive the water produced by the fuel cell; provide, to the fuel cell and the one or more vehicle subsystems on the vehicle, the water as a coolant, thereby to cool the fuel cell and the one or more vehicle subsystems, wherein the cooling system comprises an outlet coupled to the conduit and the conduit defines a first fluid flow path which travels through or proximate to the fuel cell, and a second fluid flow path which travels through or proximate to the one or more vehicle subsystems.
A temperature sensor, comprising: a first transistor having a gate; a second transistor having a gate coupled to the gate of the first transistor; a bias circuit configured to bias the gates of the first and second transistors such that the first and second transistors operate in a sub-threshold region, and to generate an output current proportional to a difference between a gate-to-source voltage of the first transistor and a gate-to-source voltage of the second transistor; a capacitor coupled to the gates of the first and second transistors and coupled to the bias circuit, wherein the capacitor is configured to receive the output current generated by the bias circuit in order to reduce the difference between the currents of the first and second transistors; an oscillator configured to convert the output current into a frequency, wherein the oscillator comprises a plurality of inverters biased by the output current; and a counter configured to convert the frequency into a digital temperature reading. a first transistor having a gate; a second transistor having a gate coupled to the gate of the first transistor; a bias circuit configured to bias the gates of the first and second transistors such that the first and second transistors operate in a sub-threshold region, and to generate an output current proportional to a difference between a gate-to-source voltage of the first transistor and a gate-to-source voltage of the second transistor; a capacitor coupled to the gates of the first and second transistors and coupled to the bias circuit, wherein the capacitor is configured to receive the output current generated by the bias circuit in order to reduce the difference between the currents of the first and second transistors; an oscillator configured to convert the output current into a frequency, wherein the oscillator comprises a plurality of inverters biased by the output current; and a counter configured to convert the frequency into a digital temperature reading.
Item of jewellery with two spaced-apart end caps (2a, 2b) and a changeable ornament held in between, characterized in that the end caps partially overlap a compressible central arrangement having a sliding slot (4a1, 4b1), and the ornament has a cylinder carrier which surrounds the central arrangement and has interior cams (3a1, 3a1', 3bl, 3b1') for engagement in the sliding slot in order, upon compression of the central arrangement, to forcibly move successively changing ornament regions (3c, 3d) into an overlap with the end caps and away therefrom.
Fibroblasts for use in a method of enhancing survival of allogeneic or autologous insulin-producing cells in an individual, wherein said fibroblasts are CD73-positive fibroblasts and the method comprises the steps of administering an effective amount of said fibroblasts prior to, concurrent with, and/or subsequent to transplantation of said allogeneic or autologous insulin-producing cells in the individual, optionally wherein the method further comprises administering an effective amount of endothelial progenitor cells (EPCs) prior to, concurrent with, and/or subsequent to transplantation of said allogeneic or autologous insulin-producing cells in the individual.
A chocolate matrix comprising cocoa, ethanol, maltitol and at least one plant derivative selected from the group consisting of: curcumin and resveratrol.
A semiconductor device, comprising: a semiconductor body; an electrical device formed in an active region of the semiconductor body, the active region including an interface between the semiconductor body and an insulating material; characterised in that the semiconductor device further comprises a sensor having a bandwidth tuned to a certain wavelength range of an energy spectrum of light emitted by carrier recombination at the interface when the electrical device is driven between accumulation and inversion, wherein an intensity of the emitted light is proportional to a density of charge trapping states at the interface, wherein the sensor is configured to output a signal that is proportional to the intensity of the sensed light, and the sensor is placed so as to receive the light emitted by the electrical device. a semiconductor body; an electrical device formed in an active region of the semiconductor body, the active region including an interface between the semiconductor body and an insulating material; characterised in that the semiconductor device further comprises a sensor having a bandwidth tuned to a certain wavelength range of an energy spectrum of light emitted by carrier recombination at the interface when the electrical device is driven between accumulation and inversion, wherein an intensity of the emitted light is proportional to a density of charge trapping states at the interface, wherein the sensor is configured to output a signal that is proportional to the intensity of the sensed light, and the sensor is placed so as to receive the light emitted by the electrical device.
A decoding apparatus performing a video decoding, the apparatus comprising: a prediction module for (S310, S1420) deriving an intra prediction mode for a current block, and for (S340, S1430) generating a predicted block which includes prediction samples by deriving a prediction sample for the current block based on a first reference sample, wherein the first reference sample is derived based on the intra prediction mode, wherein the intra prediction mode is a horizontal prediction mode, and wherein the generating the predicted block includes filtering the prediction sample which is one of prediction samples adjacent to a top boundary of the current block, wherein the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample, wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block, and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample, wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block. a prediction module for (S310, S1420) deriving an intra prediction mode for a current block, and for (S340, S1430) generating a predicted block which includes prediction samples by deriving a prediction sample for the current block based on a first reference sample, wherein the first reference sample is derived based on the intra prediction mode, wherein the intra prediction mode is a horizontal prediction mode, and wherein the generating the predicted block includes filtering the prediction sample which is one of prediction samples adjacent to a top boundary of the current block, wherein the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample, wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block, and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample, wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block. the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample, wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block, and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample, wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block.
Method for controlling a passenger transport system, which transport system comprises at least two passenger conveyors, as e.g. escalators (40, 42) or elevators (36, 38), which transport system comprises a control for the passenger conveyors and for controlling passenger flow in the transport system, which control is connected to a passenger flow determination device for establishing a passenger flow reference value for the current passenger flow to be expected in the passenger transport system, and which control further comprises a passenger guide system for controlling the passenger flow in the transport system, which passenger guide system uses for the passenger guide process a cost function considering a set of system control parameters as passenger riding time, energy consumption, passenger waiting time, passenger transport capacity, maintenance demand, etc., characterized in that the control uses a transport model simulating the function of the hardware components of the transport system under consideration of correlated system operating parameters, as the number of active passenger conveyors, passenger conveyor speed/acceleration, stillstand times, door opening times in connection with the correlated passenger flow, whereby the passenger flow reference value is input to the transport model and in an optimization process the system operating parameters are optimized under use of the transport model to meet the passenger flow reference value under consideration of at least one significant system control parameter from said set of system control parameters to achieve a best set of system operating parameters, which best set of system operating parameters is applied to the control of the passenger transport system. which control is connected to a passenger flow determination device for establishing a passenger flow reference value for the current passenger flow to be expected in the passenger transport system, and which control further comprises a passenger guide system for controlling the passenger flow in the transport system, which passenger guide system uses for the passenger guide process a cost function considering a set of system control parameters as passenger riding time, energy consumption, passenger waiting time, passenger transport capacity, maintenance demand, etc., characterized in that the control uses a transport model simulating the function of the hardware components of the transport system under consideration of correlated system operating parameters, as the number of active passenger conveyors, passenger conveyor speed/acceleration, stillstand times, door opening times in connection with the correlated passenger flow, whereby the passenger flow reference value is input to the transport model and in an optimization process the system operating parameters are optimized under use of the transport model to meet the passenger flow reference value under consideration of at least one significant system control parameter from said set of system control parameters to achieve a best set of system operating parameters, which best set of system operating parameters is applied to the control of the passenger transport system.
A method performed by a processor in a test entity for layer 2 sustained downlink maximum data rate decoding performance of a user equipment device, comprising: sending a non-access stratum, NAS, signaling message that requests activation of a downlink-only test mode to the user equipment device; sending a first Packet Data Convergence Protocol, PDCP, status request to the user equipment device; sending downlink PDCP packets to the user equipment device during a measurement interval after sending the first PDCP status request to the user equipment device; receiving a physical layer, PHY, hybrid acknowledge request, HARQ, acknowledgement, ACK, or non-acknowledgement, NACK, from the user equipment device and determining expected missed layer 1 packets based on information included in the received PHY HARQ ACK/NACK; sending a second PDCP status request to the user equipment device after the measurement interval; receiving a PDCP status report from the user equipment device in response to the second PDCP status request; and determining missed layer 2 packets from a First Missing Count, FMC, value identifying the earliest sequence number of the missed layer 2 packets or a bitmap containing sequence numbers of the missed layer 2 packets included in the received PDCP status report. sending a non-access stratum, NAS, signaling message that requests activation of a downlink-only test mode to the user equipment device; sending a first Packet Data Convergence Protocol, PDCP, status request to the user equipment device; sending downlink PDCP packets to the user equipment device during a measurement interval after sending the first PDCP status request to the user equipment device; receiving a physical layer, PHY, hybrid acknowledge request, HARQ, acknowledgement, ACK, or non-acknowledgement, NACK, from the user equipment device and determining expected missed layer 1 packets based on information included in the received PHY HARQ ACK/NACK; sending a second PDCP status request to the user equipment device after the measurement interval; receiving a PDCP status report from the user equipment device in response to the second PDCP status request; and determining missed layer 2 packets from a First Missing Count, FMC, value identifying the earliest sequence number of the missed layer 2 packets or a bitmap containing sequence numbers of the missed layer 2 packets included in the received PDCP status report.
Method of detecting an adjustment fault related to a wind turbine rotor blade mounted at a wind turbine rotor and comprising an adaptable flow regulating device, in particular spoiler and/or flap, the method comprising: estimating a quantity indicative of a change of a driving impact of wind on the wind turbine rotor based on at least two settings (19a, 19b) of the adaptable flow regulating device; determining another quantity indicative of a desired change of the driving impact on the wind turbine rotor, in order to change a value of a rotor speed to a reference value of the rotor speed; and indicating an adjustment fault based on a comparison of the quantity with the other quantity. estimating a quantity indicative of a change of a driving impact of wind on the wind turbine rotor based on at least two settings (19a, 19b) of the adaptable flow regulating device; determining another quantity indicative of a desired change of the driving impact on the wind turbine rotor, in order to change a value of a rotor speed to a reference value of the rotor speed; and indicating an adjustment fault based on a comparison of the quantity with the other quantity.
A Joint Test Action Group (JTAG) lockout assembly for a programmable device comprising: an embedded processor in the programmable device; a lockout processor operatively connected to the embedded processor, wherein the lockout processor comprises an unlock logic configured to allow or disallow JTAG communication with the embedded processor based on an unlock sequence operational across a dual function JTAG communication bus; and a test interface operatively connected to the embedded processor and the lockout processor, the test interface configured to cause an unlock controller to: retrieve an unlock sequence on the JTAG communication bus from one or more memory registers via a lockout controller operating on the test interface; and execute the unlock sequence across the JTAG communication bus; and access the programmable device through the JTAG communication bus responsive to executing the unlock sequence, wherein the JTAG communication bus is configured for dual functions comprising JTAG communication and unlock communication; and characterized in that; the unlock sequence is saved to a plurality of predetermined memory register locations, wherein each of the predetermined memory register locations comprises a predetermined portion of the unlock sequence. an embedded processor in the programmable device; a lockout processor operatively connected to the embedded processor, wherein the lockout processor comprises an unlock logic configured to allow or disallow JTAG communication with the embedded processor based on an unlock sequence operational across a dual function JTAG communication bus; and a test interface operatively connected to the embedded processor and the lockout processor, the test interface configured to cause an unlock controller to: retrieve an unlock sequence on the JTAG communication bus from one or more memory registers via a lockout controller operating on the test interface; and execute the unlock sequence across the JTAG communication bus; and access the programmable device through the JTAG communication bus responsive to executing the unlock sequence, retrieve an unlock sequence on the JTAG communication bus from one or more memory registers via a lockout controller operating on the test interface; and execute the unlock sequence across the JTAG communication bus; and access the programmable device through the JTAG communication bus responsive to executing the unlock sequence, wherein the JTAG communication bus is configured for dual functions comprising JTAG communication and unlock communication; and characterized in that; the unlock sequence is saved to a plurality of predetermined memory register locations, wherein each of the predetermined memory register locations comprises a predetermined portion of the unlock sequence.