mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for targeting a specified capacity of a variational embedding, the method comprising: adjusting a KL term of a reference encoder to provide an upper bound on variational embedding capacity, the KL term configured to align the reference encoder with a prior embedding; receiving, at the reference encoder, a reference audio signal; determining, by the reference encoder, a variational embedding associated with the reference audio signal, the variational embedding having a capacity bounded by the upper bound provided by the adjusted KL term; and providing the variational embedding associated with the reference audio signal to a text-to-speech (TTS) synthesis model, the TTS synthesis model configured to convert input text into synthesized speech based on the variational embedding associated with the reference audio signal. adjusting a KL term of a reference encoder to provide an upper bound on variational embedding capacity, the KL term configured to align the reference encoder with a prior embedding; receiving, at the reference encoder, a reference audio signal; determining, by the reference encoder, a variational embedding associated with the reference audio signal, the variational embedding having a capacity bounded by the upper bound provided by the adjusted KL term; and providing the variational embedding associated with the reference audio signal to a text-to-speech (TTS) synthesis model, the TTS synthesis model configured to convert input text into synthesized speech based on the variational embedding associated with the reference audio signal.
Device , for determining a first angle (Φ) between a rotor and a stator, having inputs for reading in amplitudes representing a first angle (Φ) from electric signals detected via a sensor system , characterized in that - the device features an angle estimator for estimating a second angle (Φ_est), - the device features means for determining amplitudes representing the second, estimated angle (Φ_est), - the device features at least one control with which at least one difference between the amplitudes representing the first angle (Φ) and the amplitudes representing the second, estimated angle (Φ_est) can be minimized, - the second, estimated angle (Φ_est) can be provided via an output . - the device features an angle estimator for estimating a second angle (Φ_est), - the device features means for determining amplitudes representing the second, estimated angle (Φ_est), - the device features at least one control with which at least one difference between the amplitudes representing the first angle (Φ) and the amplitudes representing the second, estimated angle (Φ_est) can be minimized, - the second, estimated angle (Φ_est) can be provided via an output .
Electrically operated rail vehicle comprising: - an air-conditioning and/or heating device for climatising and/or heating a vehicle interior , in particular passenger compartment and/or personnel compartment, wherein the air-conditioning and/or heating device comprises a heat pump and a heating circuit connected to the heat pump , and has a heat exchanger for absorbing heat energy, which is a heat exchanger of the heat pump , and - at least one electric converter , in particular traction converter and/or auxiliary converter, which has a heat dissipation interface for dissipating waste heat by means of a heat carrier, and wherein - the heat dissipation interface of the converter is connected to the heat exchanger of the air-conditioning and/or heating device by way of a heat carrier channel , characterised in that the rail vehicle has a first flap which, in a first position, releases the connection between the heat dissipation interface and the heat exchanger and, in a second position, separates the same and wherein in the second position the first flap releases a first outlet opening , embodied in the heat carrier channel between the heat dissipation interface and the heat exchanger , into the environment, as a result of which the heat dissipation interface is connected to the environment and wherein the rail vehicle has a second flap which, in a first position, closes a second outlet opening , by way of which the heat exchanger can be connected to the environment, and in a second position releases the same. - an air-conditioning and/or heating device for climatising and/or heating a vehicle interior , in particular passenger compartment and/or personnel compartment, wherein the air-conditioning and/or heating device comprises a heat pump and a heating circuit connected to the heat pump , and has a heat exchanger for absorbing heat energy, which is a heat exchanger of the heat pump , and - at least one electric converter , in particular traction converter and/or auxiliary converter, which has a heat dissipation interface for dissipating waste heat by means of a heat carrier, and wherein - the heat dissipation interface of the converter is connected to the heat exchanger of the air-conditioning and/or heating device by way of a heat carrier channel , characterised in that the rail vehicle has a first flap which, in a first position, releases the connection between the heat dissipation interface and the heat exchanger and, in a second position, separates the same and wherein in the second position the first flap releases a first outlet opening , embodied in the heat carrier channel between the heat dissipation interface and the heat exchanger , into the environment, as a result of which the heat dissipation interface is connected to the environment and wherein the rail vehicle has a second flap which, in a first position, closes a second outlet opening , by way of which the heat exchanger can be connected to the environment, and in a second position releases the same.
An electronic device capable of operating by a current supplied from a power supply cable or a battery , comprising: a first terminal configured to have the power supply cable inserted into it and to receive the current supplied from the power supply cable; a second terminal configured to have a battery stored in contact with it and to receive the current supplied from the battery; and a first case having a first storage portion configured to store the power supply cable inserted into the first terminal and a second storage portion configured to store the battery in contact with the second terminal; characterised in that the first storage portion is formed so as to overlap with the second storage portion in a plan view, in that the first storage portion is provided at such a position that the battery needs to be removed from the first storage portion when the power supply cable is inserted into the first terminal. a first terminal configured to have the power supply cable inserted into it and to receive the current supplied from the power supply cable; a second terminal configured to have a battery stored in contact with it and to receive the current supplied from the battery; and a first case having a first storage portion configured to store the power supply cable inserted into the first terminal and a second storage portion configured to store the battery in contact with the second terminal; characterised in that the first storage portion is formed so as to overlap with the second storage portion in a plan view, in that the first storage portion is provided at such a position that the battery needs to be removed from the first storage portion when the power supply cable is inserted into the first terminal.
Resonator mechanism for a timepiece movement having an input wheel train mounted to pivot around an axis of rotation (D) and subjected to a driving torque, and having a central wheel train fixed in rotation to said input wheel train around said axis of rotation (D) and arranged to turn continuously, wherein said resonator mechanism has a plurality of N inertial elements , each being movable in relation to said central wheel train , and restored to said axis of rotation (D) by elastic restoring means belonging to said resonator mechanism , which are arranged to cause a restoring effort on the centre of mass of said inertial element , wherein said resonator mechanism has a rotational symmetry of order N, where said resonator mechanism has kinematic linkage means between all said inertial elements and that are arranged to maintain at any time all of the centres of mass of said inertial elements at the same distance, R, from said axis of rotation (D), and where said elastic restoring means , which are rotational and borne by said resonator mechanism , cause an elastic potential characterised by the following equation: V = 1 / 2 . ω 0 2 . ∑ j M j R 2 where: - V is the elastic potential, - ω 0 is the speed of rotation to be imposed, - R j =R is the distance of the axis of rotation from the centre of mass G j of the inertial element j, - M j is the mass of the inertial element j, said resonator mechanism being characterised in that said resonator mechanism has a pantograph structure articulated around said axis of rotation (D) having at least all said inertial elements either directly articulated or indirectly articulated by means of arms (31; 32; 131; 132; 121; 122; 123; 124), around said central wheel train and a secondary central wheel train , which is arranged to pivot around said axis of rotation (D) and which together with the central wheel train constitutes a crossed structure. - V is the elastic potential, - ω 0 is the speed of rotation to be imposed, - R j =R is the distance of the axis of rotation from the centre of mass G j of the inertial element j, - M j is the mass of the inertial element j,
A method for certifying Internet-of-things, IoT, devices with respect to cyber security criteria, the method comprising by an IoT device testing platform: testing a candidate IoT device with respect to a first plurality of cyber security criteria and granting a first certificate of a first certification level for the candidate IoT device when the candidate IoT device favorably passes assessment with respect to the first plurality of cyber security criteria; subsequent to granting the first certificate, testing the candidate IoT device with respect to a second plurality of cyber security criteria and granting a second certificate of a second certification level for the candidate IoT device when the candidate IoT device favorably passes assessment with respect to the second plurality of cyber security criteria; and subsequent to granting the second certificate, testing the candidate IoT device with respect to a third plurality of cyber security criteria and granting a third certificate of a third certification level for the candidate IoT device when the candidate IoT device favorably passes assessment with respect to the third plurality of cyber security criteria. testing a candidate IoT device with respect to a first plurality of cyber security criteria and granting a first certificate of a first certification level for the candidate IoT device when the candidate IoT device favorably passes assessment with respect to the first plurality of cyber security criteria; subsequent to granting the first certificate, testing the candidate IoT device with respect to a second plurality of cyber security criteria and granting a second certificate of a second certification level for the candidate IoT device when the candidate IoT device favorably passes assessment with respect to the second plurality of cyber security criteria; and subsequent to granting the second certificate, testing the candidate IoT device with respect to a third plurality of cyber security criteria and granting a third certificate of a third certification level for the candidate IoT device when the candidate IoT device favorably passes assessment with respect to the third plurality of cyber security criteria.
A stretchable display device (100; 200; 300; 400; 500), comprising: a lower substrate and an upper substrate , the lower substrate and the upper substrate being flexible; a plurality of island substrates disposed on the lower substrate and spaced apart from each other, the plurality of island substrates defining a plurality of pixels (PX, SPX); and a connection line (180; 181; 182; 183) which electrically connects pads (109; 119; 129) disposed on the plurality of island substrates , the connection line being disposed between adjacent island substrates among the plurality of island substrates , wherein the upper substrate is made of a stretchable polymer material and includes a plurality of first upper patterns overlapping an emission area of the plurality of island substrates and a second upper pattern excluding the plurality of first upper patterns , characterized in that the second upper pattern includes a black pigment; wherein an elastic modulus of the plurality of first upper patterns is larger than an elastic modulus of the second upper pattern . a lower substrate and an upper substrate , the lower substrate and the upper substrate being flexible; a plurality of island substrates disposed on the lower substrate and spaced apart from each other, the plurality of island substrates defining a plurality of pixels (PX, SPX); and a connection line (180; 181; 182; 183) which electrically connects pads (109; 119; 129) disposed on the plurality of island substrates , the connection line being disposed between adjacent island substrates among the plurality of island substrates , wherein the upper substrate is made of a stretchable polymer material and includes a plurality of first upper patterns overlapping an emission area of the plurality of island substrates and a second upper pattern excluding the plurality of first upper patterns , characterized in that the second upper pattern includes a black pigment; wherein an elastic modulus of the plurality of first upper patterns is larger than an elastic modulus of the second upper pattern .
A cultivated plant of the species Solanum lycopersicum comprising an acs 4 allele having one or more mutations, said mutations resulting in production of a mutant acs 4 protein having loss-of-function or reduced function compared to wild type Acs 4 protein of SEQ ID NO: 1 wherein said mutation or mutations result in reduced ethylene production and/or delayed fruit ripening and/or a longer shelf life compared to Solanum lycopersicum being homozygous for the wild type ACS 4 allele.
Coated multilayer metal cooking support compatible with induction heating, including a metal body including a heating face and a cooking face , the heating face having a bottom configured to rest on an induction heating device, the heating face bearing a protective coating , the cooking face bearing a non-stick coating forming a cooking surface , characterised in that the metal body is made of a metallurgically assembled aluminium sheet with a double-sided aluminised low-carbon ferromagnetic steel sheet forming the heating face , and, if desired, with another double-sided aluminised low-carbon ferromagnetic steel sheet , in that the double-sided aluminised low-carbon ferromagnetic steel sheet has a low-carbon ferromagnetic steel substrate , having, on each of its two faces an outer layer including an aluminium-based matrix, in that an intermediate layer including iron/aluminium intermetallic compounds is positioned between the low-carbon ferromagnetic steel substrate and the outer layer , and in that at least on the bottom of the heating face , the outer layer has a thickness of less than 27 μm, preferably less than 20 μm, and even more preferably less than 18 μm.
A printhead die comprising: a number of sensors to measure properties of a number of property control elements associated with the printhead die ; characterized in that the printhead die comprises: a pass gate to communicate a number of signals to an application specific integrated circuit (ASIC) via an analog bus using control logic associated with the pass gate ; and a bi-directional configuration bus coupled to the printhead die to transmit a number of control signals to the property control elements located on the printhead die . a pass gate to communicate a number of signals to an application specific integrated circuit (ASIC) via an analog bus using control logic associated with the pass gate ; and a bi-directional configuration bus coupled to the printhead die to transmit a number of control signals to the property control elements located on the printhead die .
A method for sending configuration information of a Synchronization Signal Block, SSB, applied to sidelink communication, the method comprising: determining (S11), by a base station, according to a frequency band for transmitting an SSB, a maximum number of SSBs that can be transmitted; determining (S12), by the base station, according to a relationship between the maximum number and a first preset number, a number of bits of configuration information, generating, by the base station, configuration information, wherein the configuration information corresponds to the number of bits, and the configuration information is used to indicate an SSB to be transmitted of the maximum number of SSBs, and the first preset number is less than or equal to a maximum number of bits that can be transmitted via a physical sidelink broadcast channel; and sending (S13), by the base station, the configuration information through the physical sidelink broadcast channel. determining (S11), by a base station, according to a frequency band for transmitting an SSB, a maximum number of SSBs that can be transmitted; determining (S12), by the base station, according to a relationship between the maximum number and a first preset number, a number of bits of configuration information, generating, by the base station, configuration information, wherein the configuration information corresponds to the number of bits, and the configuration information is used to indicate an SSB to be transmitted of the maximum number of SSBs, and the first preset number is less than or equal to a maximum number of bits that can be transmitted via a physical sidelink broadcast channel; and sending (S13), by the base station, the configuration information through the physical sidelink broadcast channel.
Separating method to be carried out in the course of manufacturing a stator for separating slot cover slides for covering stator slots provided with conductors for forming a coil winding, the method comprising the steps of: a) providing a quantity of strip-shaped slot cover slides in such a way that the slot cover slides are aligned with each other in the longitudinal direction, but are otherwise present in a disordered state as a bulk material, b) providing a counterpart which has an upwardly facing surface with at least one upwardly open slot complementarily adapted to the shape of the slot cover slides , c) arranging the quantity of slot cover slides parallel to the at least one slot ; d) relatively moving the quantity of slot cover slides and the counterpart in a direction transverse to the longitudinal extension of the slot and the slot cover slides aligned therewith, so that the quantity of slot cover slides is moved over the region of the surface provided with the slot , e) inserting a slot cover slide into the slot in order to align the slot cover slide also with respect to its rotational position about its longitudinal axis in the slot . a) providing a quantity of strip-shaped slot cover slides in such a way that the slot cover slides are aligned with each other in the longitudinal direction, but are otherwise present in a disordered state as a bulk material, b) providing a counterpart which has an upwardly facing surface with at least one upwardly open slot complementarily adapted to the shape of the slot cover slides , c) arranging the quantity of slot cover slides parallel to the at least one slot ; d) relatively moving the quantity of slot cover slides and the counterpart in a direction transverse to the longitudinal extension of the slot and the slot cover slides aligned therewith, so that the quantity of slot cover slides is moved over the region of the surface provided with the slot , e) inserting a slot cover slide into the slot in order to align the slot cover slide also with respect to its rotational position about its longitudinal axis in the slot .
A semiconductor diode switch, wherein the switch comprises a common pole , at least two throw poles (110, 110A to 110H) and signal paths (112, 112A to 112H), each of the signal paths (112, 112A to 112H) being between the common pole and one of the at least two throw poles (110, 110A to 110H), the semiconductor diode switch comprising, associated with each signal path (112, 112A to 112H), a first diode switch circuit (100, 100A to 100H), and a second diode switch circuit (102, 102A to 102H) with at least one terminating resistor ; a first quarter wave transmission line (114, 114A to 114H) between the common pole and the first diode switch circuit (100, 100A to 100H), a second quarter wave transmission line , residing between the first diode switch (100, 100A to 100 H) and the second diode switch circuit (102, 102A to 102H); the first diode switch circuit (100, 100A to 100H) having a coupling to the path (112, 112A to 112H) between the first quarter wave transmission line (114, 114A to 114H) and the second quarter wave transmission line (116, 116A to 116H), a first control branch with a first control resistor coupled to the path (112, 112A to 112H) between the first and second quarter wave transmission line (114, 114A to 114H; 116, 116A to 116H) and configured to couple the first diode switch (100, 100A to 100H) to a control switch ; a second control branch configured to couple the second diode switch (102, 102A to 102H) to the control switch and terminate the second diode switch circuit (102, 102A to 102H) through the at least one terminating resistor , an impedance value of the first control resistor being at least approximately equal to an impedance of the second control branch , the terminating resistor being between the second diode switch circuit (102, 102A to 102H) and the ground, or the second diode switch circuit (102, 102A to 102H) being between the terminating resistor and the ground; and the first diode switch circuit (100, 100A to 100H) and the second diode switch (102, 102A to 102H) being configured to allow or block a signal transfer between the common pole and a throw pole (110, 110A to 110H) on the basis of a control from the control switch .
A slot indication method performed by a network device, comprising: sending downlink control information to a group of user equipments on a group common downlink control channel; wherein the downlink control information is used to indicate a reference slot format, and the reference slot format corresponds to a reference numerology; and configuring a bandwidth part for communication for user equipment in the group of user equipments, wherein a numerology corresponding to the bandwidth part is different from the reference numerology, and the reference slot format and the reference numerology are used to indicate a slot format corresponding to the bandwidth part; wherein the group of user equipments operates in M bandwidth parts, and the reference slot format is used to determine a slot format corresponding to N numerologies of the M bandwidth parts, wherein both N and M are positive integers greater than 1. sending downlink control information to a group of user equipments on a group common downlink control channel; wherein the downlink control information is used to indicate a reference slot format, and the reference slot format corresponds to a reference numerology; and configuring a bandwidth part for communication for user equipment in the group of user equipments, wherein a numerology corresponding to the bandwidth part is different from the reference numerology, and the reference slot format and the reference numerology are used to indicate a slot format corresponding to the bandwidth part; wherein the group of user equipments operates in M bandwidth parts, and the reference slot format is used to determine a slot format corresponding to N numerologies of the M bandwidth parts, wherein both N and M are positive integers greater than 1.