mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing a trained function for performing a workpiece quality control, comprising: - receiving a plurality of training high-frequency machining datasets, wherein different training high-frequency machining datasets are representative of different good quality workpieces, - transforming the plurality of training high-frequency machining datasets into a plurality of datasets on a time-frequency domain to achieve a plurality of training time-frequency domain datasets, - training a function based on the plurality of training time-frequency domain datasets, wherein the function is based on an autoencoder, wherein the autoencoder comprises an input layer, an output layer and a hidden layer, wherein the training comprises * providing each of the plurality of training time-frequency domain datasets for the input and for the output layer, - providing the trained function. - receiving a plurality of training high-frequency machining datasets, wherein different training high-frequency machining datasets are representative of different good quality workpieces, - transforming the plurality of training high-frequency machining datasets into a plurality of datasets on a time-frequency domain to achieve a plurality of training time-frequency domain datasets, - training a function based on the plurality of training time-frequency domain datasets, wherein the function is based on an autoencoder, wherein the autoencoder comprises an input layer, an output layer and a hidden layer, wherein the training comprises * providing each of the plurality of training time-frequency domain datasets for the input and for the output layer, * providing each of the plurality of training time-frequency domain datasets for the input and for the output layer, - providing the trained function.
A signal processing method for suppressing noise in a noisy audio signal comprising: (a) modifying noise information about characteristics of said noise, the noise information being stored in advance in a noise information memory, by multiplying said noise information by a scaling factor stored in a memory to obtain modified noise information; (b) suppressing said noise in the noisy audio signal using said modified noise information; and (c) updating said scaling factor based on the result of said suppression. (a) modifying noise information about characteristics of said noise, the noise information being stored in advance in a noise information memory, by multiplying said noise information by a scaling factor stored in a memory to obtain modified noise information; (b) suppressing said noise in the noisy audio signal using said modified noise information; and (c) updating said scaling factor based on the result of said suppression.
An energy-aware computing system (100, 430), comprising: a microcontroller; an energy storage; the system being CHARACTERIZED BY: an antenna adapted for communication and to convert external wireless signals that impinge on the antenna into electrical energy; an energy harvester coupled to the antenna and the energy storage, wherein the energy harvester harvests energy from the external wireless signals that impinge upon the antenna and supplies the harvested energy to the energy storage which stores the harvested energy therein; a plurality of execution functions integrated in a system on chip (SoC); and a scheduler configured to schedule execution of operations based on available energy at the energy storage, wherein the scheduler is further configured to determine if a current voltage level at the energy storage is higher than a start voltage level, the start voltage level being a minimum required voltage level required to start an operation, and wherein the start voltage level for at least one of the operations is dynamically adjusted. a microcontroller; an energy storage; the system being CHARACTERIZED BY: an antenna adapted for communication and to convert external wireless signals that impinge on the antenna into electrical energy; an energy harvester coupled to the antenna and the energy storage, wherein the energy harvester harvests energy from the external wireless signals that impinge upon the antenna and supplies the harvested energy to the energy storage which stores the harvested energy therein; a plurality of execution functions integrated in a system on chip (SoC); and a scheduler configured to schedule execution of operations based on available energy at the energy storage, wherein the scheduler is further configured to determine if a current voltage level at the energy storage is higher than a start voltage level, the start voltage level being a minimum required voltage level required to start an operation, and wherein the start voltage level for at least one of the operations is dynamically adjusted. an antenna adapted for communication and to convert external wireless signals that impinge on the antenna into electrical energy; an energy harvester coupled to the antenna and the energy storage, wherein the energy harvester harvests energy from the external wireless signals that impinge upon the antenna and supplies the harvested energy to the energy storage which stores the harvested energy therein; a plurality of execution functions integrated in a system on chip (SoC); and a scheduler configured to schedule execution of operations based on available energy at the energy storage, wherein the scheduler is further configured to determine if a current voltage level at the energy storage is higher than a start voltage level, the start voltage level being a minimum required voltage level required to start an operation, and wherein the start voltage level for at least one of the operations is dynamically adjusted.
A compressed air system for a motor vehicle with an air supply system, comprising: - an electric drive motor, which can be controlled for variable speed, - an air compressor coupled to be driven by the electric drive motor, - an electric power supply for supplying electric power to the electric drive motor, - at least one air reservoir connected with said air compressor to receive air from the air compressor, - an air utilization system connected to said at least one air reservoir to receive air from said at least one air reservoir, - a controller to control the speed of the electric drive motor, characterized in that the controller controls the electric drive motor to determine the speed of the electric drive motor depending upon at least one signal out of the following signals: - A signal representing the activation status of an accelerator pedal of the vehicle, - a signal representing the speed of the vehicle, - a signal representing the temperature of the power supply, - a signal representing the temperature of the electric drive motor, - a signal representing the wetness level of the air compressed by the air compressor, - a signal representing the load of the air compressor, - a signal representing the running time of the air compressor, - a signal representing the status of the electric power supply. - an electric drive motor, which can be controlled for variable speed, - an air compressor coupled to be driven by the electric drive motor, - an electric power supply for supplying electric power to the electric drive motor, - at least one air reservoir connected with said air compressor to receive air from the air compressor, - an air utilization system connected to said at least one air reservoir to receive air from said at least one air reservoir, - a controller to control the speed of the electric drive motor, characterized in that the controller controls the electric drive motor to determine the speed of the electric drive motor depending upon at least one signal out of the following signals: - A signal representing the activation status of an accelerator pedal of the vehicle, - a signal representing the speed of the vehicle, - a signal representing the temperature of the power supply, - a signal representing the temperature of the electric drive motor, - a signal representing the wetness level of the air compressed by the air compressor, - a signal representing the load of the air compressor, - a signal representing the running time of the air compressor, - a signal representing the status of the electric power supply.
Cooling and heating system for thermovinification, such as to allow on the one hand for the cooling of a first composition obtained from grapes, and, on the other, for the heating of a second composition obtained from grapes, said system comprising a first exchanger allowing for the cooling of the first composition and a second exchanger allowing for the heating of the second composition, characterised in that it further comprises: - a refrigerant fluid circuit, comprising a compressor, an evaporator, a pressure regulator, and a condenser, - a first circuit of heat-exchanging fluid, feeding the first exchanger from the evaporator, and - a second circuit of heat-exchanging fluid, feeding the second exchanger from the condenser. - a refrigerant fluid circuit, comprising a compressor, an evaporator, a pressure regulator, and a condenser, - a first circuit of heat-exchanging fluid, feeding the first exchanger from the evaporator, and - a second circuit of heat-exchanging fluid, feeding the second exchanger from the condenser.
An all-optical network comprising: a first network (203, 215); a second network (230, 243); and a passive wavelength cross-connect, PWXC, (227, 300) coupling the first network (203, 215) to the second network (230, 243) and comprising passive optical components; wherein the PWXC (227, 300) comprises: a first input port; a first output port that is physically opposite from the first input port; a second input port; and a second output port that is physically opposite from the second input port; characterized in that the PWXC (227, 300) is configured to: direct even-numbered wavelength channels from the first input port to the first output port and from the second input port to the second output port, and direct odd-numbered wavelength channels from the first input port to the second output port and from the second input port to the first output port. a first network (203, 215); a second network (230, 243); and a passive wavelength cross-connect, PWXC, (227, 300) coupling the first network (203, 215) to the second network (230, 243) and comprising passive optical components; wherein the PWXC (227, 300) comprises: a first input port; a first output port that is physically opposite from the first input port; a second input port; and a second output port that is physically opposite from the second input port; a first input port; a first output port that is physically opposite from the first input port; a second input port; and a second output port that is physically opposite from the second input port; characterized in that the PWXC (227, 300) is configured to: direct even-numbered wavelength channels from the first input port to the first output port and from the second input port to the second output port, and direct odd-numbered wavelength channels from the first input port to the second output port and from the second input port to the first output port. direct even-numbered wavelength channels from the first input port to the first output port and from the second input port to the second output port, and direct odd-numbered wavelength channels from the first input port to the second output port and from the second input port to the first output port.
A packaged intermittent catheter assembly, comprising: a package defining a cavity, an opening (30, 156) in the package and an intermittent catheter (22, 154) within the cavity, the intermittent catheter (22, 154) having a proximal insertion end (22a, 154a) at or near the opening (30, 156), a distal end (22b, 154b) remote from the proximal insertion end (22a, 154a), and an insertable portion (22c, 154c) extending from the proximal insertion end (22a, 154a) to a point approaching the distal end (22b, 154b); a generally U-shaped channel extending from the opening (30, 156) in the package through at least a portion of the cavity wherein the intermittent catheter (22, 154) is disposed within and guided by the generally U-shaped channel during withdrawal from the cavity through the opening (30, 156) in the package; and a drawstring (26, 158) having a first portion disposed within the package and secured to the intermittent catheter (22, 154) and a second portion extending from the package at or near the opening (30, 156) in the package, wherein withdrawal of the drawstring (26, 158) from the package withdraws the intermittent catheter (22, 154) from the cavity through the opening (30, 156) in the package and into and through the urethra. a package defining a cavity, an opening (30, 156) in the package and an intermittent catheter (22, 154) within the cavity, the intermittent catheter (22, 154) having a proximal insertion end (22a, 154a) at or near the opening (30, 156), a distal end (22b, 154b) remote from the proximal insertion end (22a, 154a), and an insertable portion (22c, 154c) extending from the proximal insertion end (22a, 154a) to a point approaching the distal end (22b, 154b); a generally U-shaped channel extending from the opening (30, 156) in the package through at least a portion of the cavity wherein the intermittent catheter (22, 154) is disposed within and guided by the generally U-shaped channel during withdrawal from the cavity through the opening (30, 156) in the package; and a drawstring (26, 158) having a first portion disposed within the package and secured to the intermittent catheter (22, 154) and a second portion extending from the package at or near the opening (30, 156) in the package, wherein withdrawal of the drawstring (26, 158) from the package withdraws the intermittent catheter (22, 154) from the cavity through the opening (30, 156) in the package and into and through the urethra.
A method of capturing carbon dioxide molecules from air with contained release of carbon dioxide molecules comprising: exposing a contactor in which a polyamine sorbent is associated with the contactor to a flow of air, wherein the flow of air is laminar, where a plurality of carbon dioxide molecules form a bond with the polyamine sorbent; introducing the contactor into a resonant cavity comprising: (a) a gas sealable entrance adapted to seal the resonant cavity with the contactor inside the resonant cavity; (b) a vacuum port in gaseous connection with a vacuum pump; and (c) a microwave generator adapted to be electromagnetically connected to the resonant cavity, where the microwave generator is adapted to select a microwave frequency to optimize breaking the bond with the polyamine sorbent; sealing the resonant cavity; evacuating the sealed resonant cavity; irradiating the polyamine sorbent with the selected microwave frequency to release the plurality of carbon dioxide molecules into the resonant cavity; and removing the plurality of carbon dioxide molecules in the resonant cavity through the vacuum port using the vacuum pump. exposing a contactor in which a polyamine sorbent is associated with the contactor to a flow of air, wherein the flow of air is laminar, where a plurality of carbon dioxide molecules form a bond with the polyamine sorbent; introducing the contactor into a resonant cavity comprising: (a) a gas sealable entrance adapted to seal the resonant cavity with the contactor inside the resonant cavity; (b) a vacuum port in gaseous connection with a vacuum pump; and (c) a microwave generator adapted to be electromagnetically connected to the resonant cavity, where the microwave generator is adapted to select a microwave frequency to optimize breaking the bond with the polyamine sorbent; (a) a gas sealable entrance adapted to seal the resonant cavity with the contactor inside the resonant cavity; (b) a vacuum port in gaseous connection with a vacuum pump; and (c) a microwave generator adapted to be electromagnetically connected to the resonant cavity, where the microwave generator is adapted to select a microwave frequency to optimize breaking the bond with the polyamine sorbent; sealing the resonant cavity; evacuating the sealed resonant cavity; irradiating the polyamine sorbent with the selected microwave frequency to release the plurality of carbon dioxide molecules into the resonant cavity; and removing the plurality of carbon dioxide molecules in the resonant cavity through the vacuum port using the vacuum pump.
A traversing element for a spinning machine that serves for producing roving, wherein the traversing element comprises a guide segment by means of which the roving may be guided in the region of a surface of a tube or of a roving bobbin, wherein the traversing element comprises a support segment via which it may be connected to a support of the spinning machine, und the traversing element has at least one cavity that is closed with respect to the outside and is partially filled with a liquid, characterized in that heat that occurs in the region of the guide segment due to friction between the guide segment and the roving guided by the guide segment when the traversing element is operating may be absorbed by the liquid.
An emulsion for use in foods, comprising an aqueous and an oily phase, which have - one or more liposoluble components to be emulsified; - one or more emulsifiers in the aqueous phase, selected from the group formed by saponins; and - one or more esters from a vegetable lipid with an edible acid in the oily phase, wherein the liposoluble component to be emulsified is a carotenoid, the vegetable lipid is a saturated fatty acid which satisfies the following general formula: CH 3 -(CH 2) x COOH in which x = 8 to 25, and the edible acid is ascorbic acid. - one or more liposoluble components to be emulsified; - one or more emulsifiers in the aqueous phase, selected from the group formed by saponins; and - one or more esters from a vegetable lipid with an edible acid in the oily phase,
A ceramic coating comprising a ceramic support body, a layer called enamel comprising a glass layer that defines the functional and decorative properties of the ceramic coating; a layer called engobe which allows a good union between the enamel and the ceramic body, wherein the ceramic coating is characterized by: the enamel layer containing from 0.50% to 30% by weight of an additive comprising carbonate apatites which have in its structure carbonates (CO 3) that partially replace groups PO 4 3 - in a 0.1% to 8.0% by weight; wherein the carbonate apatites are selected from one or more materials of the group comprising: natural carbonate apatites, synthetic carbonate apatites, or mixtures thereof; and wherein the carbonate apatites are in the form of particles comprising diameters between 100 nanometers and 50 micrometers (microns).
A battery cell, comprising: an electrode assembly, comprising a main body and tabs; a housing with an opening, wherein the housing is used to accommodate the electrode assembly; an end cover assembly used to cover the opening; and a support piece located between the main body and the end cover assembly, wherein the tabs are bent around the support piece, and the support piece is configured to prevent the main body from moving along a direction facing the end cover assembly; wherein the end cover assembly is provided with a first recessed portion facing the main body, and the first recessed portion is configured to accommodate at least a part of the support piece; wherein the first recessed portion is configured to accommodate at least a part of the tabs. an electrode assembly, comprising a main body and tabs; a housing with an opening, wherein the housing is used to accommodate the electrode assembly; an end cover assembly used to cover the opening; and a support piece located between the main body and the end cover assembly, wherein the tabs are bent around the support piece, and the support piece is configured to prevent the main body from moving along a direction facing the end cover assembly; wherein the end cover assembly is provided with a first recessed portion facing the main body, and the first recessed portion is configured to accommodate at least a part of the support piece; wherein the first recessed portion is configured to accommodate at least a part of the tabs.
An underskin laser treatment system for the treatment of skin irregularities, elimination of vascular abnormalities and general assistance in surgical procedures comprising: a hand piece fitted with a catheter or needle, said hand piece having a hollow channel within its body and having a proximal end and a distal end; a radiation source; and an optical fiber, said optical fiber being connected to said radiation source and passing through said hand piece and said catheter or needle, characterized in that the radiation source emits two different wavelengths of radiation, one wavelength being absorbed primarily by hemoglobin-water and the other wavelength being absorbed primarily by water-collagen in a wall of a vein to effect closure of said vein. a hand piece fitted with a catheter or needle, said hand piece having a hollow channel within its body and having a proximal end and a distal end; a radiation source; and an optical fiber, said optical fiber being connected to said radiation source and passing through said hand piece and said catheter or needle, characterized in that the radiation source emits two different wavelengths of radiation, one wavelength being absorbed primarily by hemoglobin-water and the other wavelength being absorbed primarily by water-collagen in a wall of a vein to effect closure of said vein.
A method of operating a terminal device in a communication network, the network defining an extended period that comprises a plurality of predefined periods, each predefined period corresponding to the time taken to transmit a predefined plurality of frames, the method comprising: receiving information blocks, IBs, broadcast by a network node in the communication network, each IB indicating a value for a relative shift indication for the predefined period in which the IB is broadcast; and further characterized in that it comprises: comparing the value for the relative shift indication for a current predefined period to a value for the relative shift indication for a predefined period preceding the current predefined period; and determining whether the current predefined period is a particular one of the predefined periods in the extended period based on the result of the comparison. receiving information blocks, IBs, broadcast by a network node in the communication network, each IB indicating a value for a relative shift indication for the predefined period in which the IB is broadcast; comparing the value for the relative shift indication for a current predefined period to a value for the relative shift indication for a predefined period preceding the current predefined period; and determining whether the current predefined period is a particular one of the predefined periods in the extended period based on the result of the comparison.