mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the direction and the amplitude of a stress applied to a pod comprising a fixed part and a mobile part deformable under the effect of said stress, wherein: - mechanical deformations applied onto the mobile part under the effect of said stress are measured by measuring a distance between the fixed part and the mobile part in the direction of application of the stress, and - the distance measurements are processed to determine the amplitude and the direction of the stress, characterised in that the direction of the stress is determined from the position of at least one measurement sensor delivering a measurement value extreme with respect to measurement values respectively provided by a set of angularly distributed measurement sensors measuring the movement of the mobile part with respect to the fixed part. - mechanical deformations applied onto the mobile part under the effect of said stress are measured by measuring a distance between the fixed part and the mobile part in the direction of application of the stress, and - the distance measurements are processed to determine the amplitude and the direction of the stress, characterised in that the direction of the stress is determined from the position of at least one measurement sensor delivering a measurement value extreme with respect to measurement values respectively provided by a set of angularly distributed measurement sensors measuring the movement of the mobile part with respect to the fixed part.
A communication apparatus comprising: a first short-range wireless communication unit configured to communicate with a communication party, via first short-range wireless communication; an acquisition unit configured to acquire, prior to the communication via the first short-range wireless communication, identification information notified from the communication party, via second short-range wireless communication wider in communicable range than the first short-range wireless communication; and a control unit configured to acquire a parameter file corresponding to the acquired identification information from a database server, the parameter file including one or more parameters allowing the communication apparatus to communicate with the communication party via the first short-range wireless communication, and to control the first short-range wireless communication unit by setting, on a basis of the parameter file, a parameter for the first short-range wireless communication. a first short-range wireless communication unit configured to communicate with a communication party, via first short-range wireless communication; an acquisition unit configured to acquire, prior to the communication via the first short-range wireless communication, identification information notified from the communication party, via second short-range wireless communication wider in communicable range than the first short-range wireless communication; and a control unit configured to acquire a parameter file corresponding to the acquired identification information from a database server, the parameter file including one or more parameters allowing the communication apparatus to communicate with the communication party via the first short-range wireless communication, and to control the first short-range wireless communication unit by setting, on a basis of the parameter file, a parameter for the first short-range wireless communication.
A gamma-ray spectrum classification apparatus, comprising circuitry configured: to provide a denoising autoencoder to receive deconvolved gamma-ray spectrum data representing a most-probable incident gamma-ray spectrum of a material to be classified and to determine feature data indicative of one or more features representative of the deconvolved gamma-ray spectrum data; to provide denoising training data as a target output of the denoising autoencoder, the denoising training data representing a training gamma-ray spectrum for training the denoising autoencoder; to resample the denoising training data and provide the resampled denoising training data as an input of the denoising autoencoder; to determine weights of the denoising autoencoder based on the input and the target output, wherein the weights minimise the difference between the input and the target output in convolutional layers of the denoising autoencoder; and to determine the feature data using the determined weights of the denoising autoencoder, wherein the feature data is represented by a set of numbers generated as an output of the convolutional layers of the denoising autoencoder; and to provide a classification neural network to receive the feature data and to classify the material to be classified as one of a plurality of predetermined classifications using the feature data. to provide a denoising autoencoder to receive deconvolved gamma-ray spectrum data representing a most-probable incident gamma-ray spectrum of a material to be classified and to determine feature data indicative of one or more features representative of the deconvolved gamma-ray spectrum data; to provide denoising training data as a target output of the denoising autoencoder, the denoising training data representing a training gamma-ray spectrum for training the denoising autoencoder; to resample the denoising training data and provide the resampled denoising training data as an input of the denoising autoencoder; to determine weights of the denoising autoencoder based on the input and the target output, wherein the weights minimise the difference between the input and the target output in convolutional layers of the denoising autoencoder; and to determine the feature data using the determined weights of the denoising autoencoder, wherein the feature data is represented by a set of numbers generated as an output of the convolutional layers of the denoising autoencoder; and to provide a classification neural network to receive the feature data and to classify the material to be classified as one of a plurality of predetermined classifications using the feature data.
A membrane comprising a copolymer of acrylonitrile and sodium methallylsulfonate, a polycationic polymer, and (2-(methacryloyloxy)ethyl)dimethyl(3-sulfopropyl)ammonium hydroxide (monomeric SBMA), wherein the membrane is coated with a mixture of the at least one polycationic polymer and monomeric SBMA, such that the polycationic polymer and monomeric SBMA are grafted to the surface of the membrane.
Cutting system with a variable length cutting table, comprising a frame which is moveable in a forwards direction over a field and to which a reel, a transverse conveyor worm and a trough positioned below the transverse conveyor worm are fastened, a front cutting table element, the position of which is adjustable in relation to the trough over an adjustment path in the forwards direction by means of an actuator and which, on the front side thereof, bears a cutter bar, an intermediate piece which is moveable in the forwards direction in relation to the trough and in relation to the front cutting table element and is arranged above the front cutting table element and the trough and forms a bridge between the front cutting table element and the trough, characterized in that the intermediate piece is coupled to a shaft which is rotatable about the longitudinal axis thereof, extends in the transverse direction and, for its part, is coupled in terms of drive to the actuator.
A method of coating a substrate, comprising the steps of: supplying a substrate, applying at least a base layer of a first curable substance having a viscosity of 1000-10000 cP at 25 °C on the substrate, applying at least a cover layer of a second curable substance having a viscosity of 100-2000 cP at 25 °C on the base layer, wherein the cover layer is thicker than the base layer and the viscosity of the first substance is higher than of the second substance, wherein both the first and second substances comprise polyurethane acrylate and reactive diluent. supplying a substrate, applying at least a base layer of a first curable substance having a viscosity of 1000-10000 cP at 25 °C on the substrate, applying at least a cover layer of a second curable substance having a viscosity of 100-2000 cP at 25 °C on the base layer, wherein the cover layer is thicker than the base layer and the viscosity of the first substance is higher than of the second substance, wherein both the first and second substances comprise polyurethane acrylate and reactive diluent.
A user terminal emulation server for providing communication services through one or more input and/or output, I/O, user devices to a user, wherein the user terminal emulation server is configured to: register the user with a network entity providing the communication services; predict that an I/O user device will become proximately located to the user; and based on the prediction that the I/O user device will become proximately located to the user, determine that the I/O user device has an I/O user interface that satisfies a capability criterion to enable the user to use a first one of the communication services, the user terminal emulation server being characterized in that it is further configured, based on the satisfaction of the capability criterion and before the user is predicted to become proximately located to the I/O user device, to signal the I/O user device to prepare for using the I/O user interface to provide the first communication service for the user through the network entity wherein to signal the I/O user device to prepare for using the I/O user interface to provide the first communication service for the user through the network entity, the user terminal emulation server is configured to: send a message configured to trigger the I/O user device to report to the user terminal emulation server when the user has become proximately located. register the user with a network entity providing the communication services; predict that an I/O user device will become proximately located to the user; and based on the prediction that the I/O user device will become proximately located to the user, determine that the I/O user device has an I/O user interface that satisfies a capability criterion to enable the user to use a first one of the communication services, the user terminal emulation server being characterized in that it is further configured, based on the satisfaction of the capability criterion and before the user is predicted to become proximately located to the I/O user device, to signal the I/O user device to prepare for using the I/O user interface to provide the first communication service for the user through the network entity determine that the I/O user device has an I/O user interface that satisfies a capability criterion to enable the user to use a first one of the communication services, the user terminal emulation server being characterized in that it is further configured, based on the satisfaction of the capability criterion and before the user is predicted to become proximately located to the I/O user device, to signal the I/O user device to prepare for using the I/O user interface to provide the first communication service for the user through the network entity wherein to signal the I/O user device to prepare for using the I/O user interface to provide the first communication service for the user through the network entity, the user terminal emulation server is configured to: send a message configured to trigger the I/O user device to report to the user terminal emulation server when the user has become proximately located.
A pharmaceutically acceptable salt of trans-[tetrachlorobis(1H-indazole)ruthenate] for use in treating, preventing, or delaying the onset of, neuroendocrine tumor, wherein the neuroendocrine tumor is carcinoid tumor or wherein the neuro-endocrine tumor is pancreatic neuroendocrine tumor, or wherein the neuro-endocrine tumor is gastrinoma, or wherein the neuroendocrine tumor is thyroid carcinoma or Merkel cell carcinoma.
A humidification chamber comprising: a gas inlet; a gas outlet, wherein gas flows along a gas flow path from the gas inlet to the gas outlet; a surface along said gas flow path, wherein at least a portion of the surface comprises microstructures; and characterized in that the humidification chamber further comprises at least one liquid dispenser configured to provide droplets of liquid to the microstructured surface; wherein the microstructures are configured to disperse the droplets of liquid so as to enhance evaporation of the droplets into the gas in the gas path. a gas inlet; a gas outlet, wherein gas flows along a gas flow path from the gas inlet to the gas outlet; a surface along said gas flow path, wherein at least a portion of the surface comprises microstructures; and characterized in that the humidification chamber further comprises at least one liquid dispenser configured to provide droplets of liquid to the microstructured surface; wherein the microstructures are configured to disperse the droplets of liquid so as to enhance evaporation of the droplets into the gas in the gas path.
A method for producing a multifunctional battery housing having integrated thermal management, comprising an upper and a lower half shell (3 and 4), which are connected to one another to form a battery housing such that, as a partial intermediate product - a lower half shell, comprising an inner wall and an outer wall, between which one or more insulation molded parts are arranged as insulation and/or supporting material, is produced, and - as a further partial intermediate product, an upper half shell, comprising a preformed inner wall and a preformed outer wall, with prefinished insulation molded parts interposed, is produced, - and these partial intermediate products, preferably directly at the battery producer, are assembled to form a battery housing having integrated battery in such a way that the battery is inserted on location into the lower half shell, - then the inner wall of the upper half shell is connected to the inner wall of the lower half shell by means of weld seams which can be severed if needed, and - subsequently the outer wall of the upper half shell, with the preformed insulation molded parts interposed, is placed on the inner wall of the lower half shell and connected to the outer wall of the lower half shell by means of weld seams which can be severed if needed, in such a way that the open sides of the lower and upper half shells (3 and 4) are each opposite to one another, and the individual half shells (3, 4) each comprise an inner and outer wall (7, 7' and 8, 8', respectively) with an insulation molded part interposed. - a lower half shell, comprising an inner wall and an outer wall, between which one or more insulation molded parts are arranged as insulation and/or supporting material, is produced, and - as a further partial intermediate product, an upper half shell, comprising a preformed inner wall and a preformed outer wall, with prefinished insulation molded parts interposed, is produced, - and these partial intermediate products, preferably directly at the battery producer, are assembled to form a battery housing having integrated battery in such a way that the battery is inserted on location into the lower half shell, - then the inner wall of the upper half shell is connected to the inner wall of the lower half shell by means of weld seams which can be severed if needed, and - subsequently the outer wall of the upper half shell, with the preformed insulation molded parts interposed, is placed on the inner wall of the lower half shell and connected to the outer wall of the lower half shell by means of weld seams which can be severed if needed, in such a way that the open sides of the lower and upper half shells (3 and 4) are each opposite to one another, and the individual half shells (3, 4) each comprise an inner and outer wall (7, 7' and 8, 8', respectively) with an insulation molded part interposed.
A modular battery pack (100, 200, 700) for mounting to a vehicle frame of a vehicle, the modular battery pack (100, 200, 700) comprising a plurality of modules (120, 121, 122, 123) arranged adjacent to each other, wherein at least one module constitutes an electrical energy storage module, characterized in that each module comprises first and second opposite side walls (130, 131) arranged to face respective side walls of adjacent modules, wherein the side walls comprise a structurally supporting material, each side wall (130, 131) comprising a common set of interfaces (140, 140') for interfacing between adjacent modules (120, 121, 122, 123), the modular battery pack (100, 200, 700) also comprising at least one intermediary bracket arranged in-between side walls (130, 131) of two adjacent modules (120, 121), the modular battery pack (100, 200, 700) also comprising at least one control unit having a side wall comprising the common set of interfaces, wherein the control unit further comprises a vehicle interface (150, 160) for interfacing with the vehicle.
A method for identifying, by a first mobile station, a mobile station corresponding to unicast control information received in the first mobile station, the method comprising: receiving, by the first mobile station, the unicast control information from a network entity, wherein the unicast control information comprises scheduling information for a second mobile station and a first cyclic redundancy check, CRC, of the scheduling information, wherein the scheduling information is scrambled with a first scrambling sequence and the first CRC is scrambled with a second scrambling sequence, wherein the first and the second scrambling sequences are generated based on an identifier of the second mobile station; generating, by the first mobile station, the first scrambling sequence and the second scrambling sequence using the identifier of the second mobile station; obtaining, by the first mobile station, first data by performing an exclusive OR operation on the generated second scrambling sequence with a CRC of the generated first scrambling sequence; obtaining, by the first mobile station, second data by performing an exclusive OR operation on the received first CRC with a second CRC of the received scheduling information, the second CRC is generated by the first mobile station using the received scheduling information; and determining, by the first mobile station, whether the second mobile station corresponds to the received unicast control information based upon whether the first data matches to the second data. receiving, by the first mobile station, the unicast control information from a network entity, wherein the unicast control information comprises scheduling information for a second mobile station and a first cyclic redundancy check, CRC, of the scheduling information, wherein the scheduling information is scrambled with a first scrambling sequence and the first CRC is scrambled with a second scrambling sequence, wherein the first and the second scrambling sequences are generated based on an identifier of the second mobile station; generating, by the first mobile station, the first scrambling sequence and the second scrambling sequence using the identifier of the second mobile station; obtaining, by the first mobile station, first data by performing an exclusive OR operation on the generated second scrambling sequence with a CRC of the generated first scrambling sequence; obtaining, by the first mobile station, second data by performing an exclusive OR operation on the received first CRC with a second CRC of the received scheduling information, the second CRC is generated by the first mobile station using the received scheduling information; and determining, by the first mobile station, whether the second mobile station corresponds to the received unicast control information based upon whether the first data matches to the second data.
A speech control unit comprising: a microphone array comprising multiple microphones (102, 104, 106, 108, 110) arranged to receive audio signals (103, 105, 107, 109, 111); a beam forming module arranged to extract a speech signal from the received audio signals (103, 105, 107, 109, 111) by enhancing components of the received audio signals (103, 105, 107, 109, 111) originating from a selected direction relative to the microphone array; a keyword recognition system arranged to recognize a predetermined keyword spoken by a first user at a first orientation (α) relative to the microphone array and to calibrate the beam forming module, based on recognition of the predetermined keyword, to extract from the received audio signals the speech signal of the first user, wherein audio signals not preceded by the predetermined keyword are discarded; and a speech recognition unit arranged to recognize the extracted speech signal of the first user, and to provide at least one control instruction to an apparatus in response to the recognized speech signal of the first user. a microphone array comprising multiple microphones (102, 104, 106, 108, 110) arranged to receive audio signals (103, 105, 107, 109, 111); a beam forming module arranged to extract a speech signal from the received audio signals (103, 105, 107, 109, 111) by enhancing components of the received audio signals (103, 105, 107, 109, 111) originating from a selected direction relative to the microphone array; a keyword recognition system arranged to recognize a predetermined keyword spoken by a first user at a first orientation (α) relative to the microphone array and to calibrate the beam forming module, based on recognition of the predetermined keyword, to extract from the received audio signals the speech signal of the first user, wherein audio signals not preceded by the predetermined keyword are discarded; and a speech recognition unit arranged to recognize the extracted speech signal of the first user, and to provide at least one control instruction to an apparatus in response to the recognized speech signal of the first user.
A microelectronic device (200, 300, 400, 500, 600) comprising: a die (220, 320, 322, 420, 422, 520, 620, 622) having at least one transceiver unit; a high density interconnect redistribution package (230, 330, 332, 430, 432, 530, 630, 632) coupled to and attached to the die; and a substrate (250, 350, 450, 550, 650) designed without high density interconnect and coupled to and attached to the redistribution package, the substrate having an antenna unit (292, 392, 492, 592, 692) for transmitting and receiving communications at a frequency of approximately 4 GHz or higher, characterised in that the substrate (250, 350, 450, 550, 650) further comprises a cavity (282, 382, 482, 580, 680) with the die (220, 320, 322, 420, 422, 520, 620, 622) and the high density interconnect redistribution package (230, 330, 332, 430, 432, 530, 630, 632) being positioned within the cavity (282, 382, 482, 580, 680). a die (220, 320, 322, 420, 422, 520, 620, 622) having at least one transceiver unit; a high density interconnect redistribution package (230, 330, 332, 430, 432, 530, 630, 632) coupled to and attached to the die; and a substrate (250, 350, 450, 550, 650) designed without high density interconnect and coupled to and attached to the redistribution package, the substrate having an antenna unit (292, 392, 492, 592, 692) for transmitting and receiving communications at a frequency of approximately 4 GHz or higher, characterised in that the substrate (250, 350, 450, 550, 650) further comprises a cavity (282, 382, 482, 580, 680) with the die (220, 320, 322, 420, 422, 520, 620, 622) and the high density interconnect redistribution package (230, 330, 332, 430, 432, 530, 630, 632) being positioned within the cavity (282, 382, 482, 580, 680).