mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an electrode assembly, the method comprising: preparing a separation film and a plurality of unit cells (110, 120, 130, 140, and 150), each of which comprises at least one positive electrode, at least one negative electrode, and at least one separator; seating the plurality of unit cells (110, 120, 130, 140, and 150) on one surface of the separation film; and successively folding the separation film on which the unit cells (110, 120, 130, 140, and 150) are seated so that the separation film is disposed between the plurality of unit cells (110, 120, 130, 140, and 150), wherein, in the folding, the separation film is folded two times or more to come into contact with and surround a first unit cell, which is disposed at an initial position of the separation film, of the plurality of unit cells (110, 120, 130, 140, and 150), and wherein the folding comprises: a first folding process of folding an end of the first separation film toward the first unit cell to allow a first folding part of the separation film to surround one surface and one side surface of the first unit cell; and a second folding process of rotating the first unit cell at an angle of about 180 degrees to allow a second folding part of the separation film to additionally surround a circumference of the first unit cell. preparing a separation film and a plurality of unit cells (110, 120, 130, 140, and 150), each of which comprises at least one positive electrode, at least one negative electrode, and at least one separator; seating the plurality of unit cells (110, 120, 130, 140, and 150) on one surface of the separation film; and successively folding the separation film on which the unit cells (110, 120, 130, 140, and 150) are seated so that the separation film is disposed between the plurality of unit cells (110, 120, 130, 140, and 150), wherein, in the folding, the separation film is folded two times or more to come into contact with and surround a first unit cell, which is disposed at an initial position of the separation film, of the plurality of unit cells (110, 120, 130, 140, and 150), and wherein the folding comprises: a first folding process of folding an end of the first separation film toward the first unit cell to allow a first folding part of the separation film to surround one surface and one side surface of the first unit cell; and a second folding process of rotating the first unit cell at an angle of about 180 degrees to allow a second folding part of the separation film to additionally surround a circumference of the first unit cell. a first folding process of folding an end of the first separation film toward the first unit cell to allow a first folding part of the separation film to surround one surface and one side surface of the first unit cell; and a second folding process of rotating the first unit cell at an angle of about 180 degrees to allow a second folding part of the separation film to additionally surround a circumference of the first unit cell.
A method for forming a heat sealable coating on a substrate comprising: coating the substrate with an aqueous polymer dispersion, wherein the aqueous polymer dispersion comprises at least one thermoplastic resin; at least one dispersing agent; and water, and has a pH of less than 12; wherein the at least one thermoplastic resin comprises a propylene-rich alpha-olefin interpolymer, and wherein the substrate comprises at least one oriented polymer; and drying the dispersion to form a first layer.
An electronic device for displaying an augmented reality environment, comprising: a see-through display configured to display a virtual object, the virtual object includes a plurality of edges; and one or more processors configured to detect a gaze swipe activation event performed by an end user of the electronic device and cause the display to display a virtual pointer to the end user in response to detecting the gaze swipe activation event, the one or more processors further configured to display an order of edge traversals to the end user by displaying numbers overlaying three or more edges of the plurality of edges in response to detection of the gaze swipe activation event, detect a gaze swipe gesture in response to the end user moving the virtual pointer through the three or more edges by using head movements based on the order of edge traversals, determine a speed of the gaze swipe gesture, determine a second virtual object different from the virtual object based on the speed of the gaze swipe gesture and the order of edge traversals, and cause the second virtual object to be displayed using the see-through display. a see-through display configured to display a virtual object, the virtual object includes a plurality of edges; and one or more processors configured to detect a gaze swipe activation event performed by an end user of the electronic device and cause the display to display a virtual pointer to the end user in response to detecting the gaze swipe activation event,
A system for ensuring operation of low power circuits at high temperature, comprising: an integrated functional unit generating an output signal with an oscillator comprising a current reference and a ramp generator, wherein the functional unit can be controlled to operate in a first mode and in a second mode to generate said output signal, wherein the first mode is a low power mode and the second mode is a high temperature mode, wherein the oscillator comprises a control input receiving a control signal, and wherein depending on the control signal, the current reference and ramp generator operate either in the first or second mode, wherein the oscillator is controlled in the high temperature mode to compensate for leakage currents; and a selection unit for controlling the functional unit to operate in the low power mode or the high temperature mode. an integrated functional unit generating an output signal with an oscillator comprising a current reference and a ramp generator, wherein the functional unit can be controlled to operate in a first mode and in a second mode to generate said output signal, wherein the first mode is a low power mode and the second mode is a high temperature mode, wherein the oscillator comprises a control input receiving a control signal, and wherein depending on the control signal, the current reference and ramp generator operate either in the first or second mode, wherein the oscillator is controlled in the high temperature mode to compensate for leakage currents; and a selection unit for controlling the functional unit to operate in the low power mode or the high temperature mode.
An optical element, comprising: a polarizing layer and a liquid crystal layer formed on the polarizing layer and including a liquid crystal compound and an anisotropic dye, wherein the optical element further comprises a composite layer (103A, 103B) adjacent to the liquid crystal layer, including a first oxide layer, a metal layer and a second oxide layer, which are sequentially formed, and disposed in order that an alignment direction of the liquid crystal compound of the liquid crystal layer is changed by an electric signal applied by the composite layer (103A, 103B), whrein the first oxide layer has a higher refractive index than the second oxide layer, the metal layer has a lower refractive index than the second oxide layer, the first oxide layer has a refractive index in the range of 1.2 to 2.8, the second oxide layer has a refractive index in the range of 1.5 to 2.5 with respect to light with a wavelength of 550 nm and the composite layer (103A, 103B) has a sheet resistance of 10 Ω/□ or less. a polarizing layer and a liquid crystal layer formed on the polarizing layer and including a liquid crystal compound and an anisotropic dye, wherein the optical element further comprises a composite layer (103A, 103B) adjacent to the liquid crystal layer, including a first oxide layer, a metal layer and a second oxide layer, which are sequentially formed, and disposed in order that an alignment direction of the liquid crystal compound of the liquid crystal layer is changed by an electric signal applied by the composite layer (103A, 103B), whrein the first oxide layer has a higher refractive index than the second oxide layer, the metal layer has a lower refractive index than the second oxide layer, the first oxide layer has a refractive index in the range of 1.2 to 2.8, the second oxide layer has a refractive index in the range of 1.5 to 2.5 with respect to light with a wavelength of 550 nm and the composite layer (103A, 103B) has a sheet resistance of 10 Ω/□ or less.
Method for selecting a transmission mode, intended for a first telecommunication entity comprising various modes (Mode i = 1 to N) for transmission of a communication signal intended for a second telecommunication entity, the various transmission modes ensuring the same throughput D in bits/s, characterized in that it comprises: - a step of determining, for a given transmission mode ensuring the throughput D, the value of a first metric α that measures a relative degradation, to a given distance d, introduced by the transmission medium of the communication signal, result of a relative degradation related to a link-level multipath effect with respect to a Gaussian channel and of a relative degradation related to an attenuation effect (MCBE) of the transmission medium with respect to a free-space attenuation model, such that the multipath effect is determined by taking the difference between a multipath sensitivity threshold of the transmission mode and a sensitivity threshold of the same transmission mode, the sensitivity threshold corresponding to a minimum power required to ensure the throughput D with a target binary error rate TEB representative of a quality of service QoS for a Gaussian transmission medium, - a step of comparing the values of the first metric α for various modes ensuring the same throughput D in order to select at least one transmission mode (Modei). - a step of determining, for a given transmission mode ensuring the throughput D, the value of a first metric α that measures a relative degradation, to a given distance d, introduced by the transmission medium of the communication signal, result of a relative degradation related to a link-level multipath effect with respect to a Gaussian channel and of a relative degradation related to an attenuation effect (MCBE) of the transmission medium with respect to a free-space attenuation model, such that the multipath effect is determined by taking the difference between a multipath sensitivity threshold of the transmission mode and a sensitivity threshold of the same transmission mode, the sensitivity threshold corresponding to a minimum power required to ensure the throughput D with a target binary error rate TEB representative of a quality of service QoS for a Gaussian transmission medium, - a step of comparing the values of the first metric α for various modes ensuring the same throughput D in order to select at least one transmission mode (Modei).
A wireless charging system, comprising: a wireless rechargeable device configured to rest on at least two of its surfaces, the wireless rechargeable device comprising a first inductive receiver coil positioned on or near a first of the at least two surfaces, and a second inductive receiver coil positioned on or near a second of the at least two surfaces; and a wireless charger comprising one or more inductive transmit coils (1202, 1204) configured to wirelessly transmit power to the wireless rechargeable device when the wireless rechargeable device is in a first charging configuration or a second charging configuration, wherein, in the first charging configuration, the wireless rechargeable device rests on the wireless charger on the first of the at least two surfaces and the first inductive receiver coil is aligned with the one or more inductive transmit coils, and wherein, in the second charging configuration, the wireless rechargeable device rests on the wireless charger on the second of the at least two surfaces and the second inductive receiver coil is aligned with the one or more inductive transmit coils. a wireless rechargeable device configured to rest on at least two of its surfaces, the wireless rechargeable device comprising a first inductive receiver coil positioned on or near a first of the at least two surfaces, and a second inductive receiver coil positioned on or near a second of the at least two surfaces; and a wireless charger comprising one or more inductive transmit coils (1202, 1204) configured to wirelessly transmit power to the wireless rechargeable device when the wireless rechargeable device is in a first charging configuration or a second charging configuration, wherein, in the first charging configuration, the wireless rechargeable device rests on the wireless charger on the first of the at least two surfaces and the first inductive receiver coil is aligned with the one or more inductive transmit coils, and wherein, in the second charging configuration, the wireless rechargeable device rests on the wireless charger on the second of the at least two surfaces and the second inductive receiver coil is aligned with the one or more inductive transmit coils.
Method for producing a cavity in a blade platform of a blade, in particular of a turbine blade, as part of a blade platform cooling system, wherein the method has the steps: a) producing a first bore starting from a first platform side surface in the direction of an opposite second platform side surface, generating a first opening in the first platform side surface, characterized by b) widening the first bore in a fan-like fashion by means of a spark erosion method using an electrode in the form of a wire or rod, in such a way that the first opening, generated in step a), of the first bore represents the starting point of the fan-like widening. a) producing a first bore starting from a first platform side surface in the direction of an opposite second platform side surface, generating a first opening in the first platform side surface, characterized by b) widening the first bore in a fan-like fashion by means of a spark erosion method using an electrode in the form of a wire or rod, in such a way that the first opening, generated in step a), of the first bore represents the starting point of the fan-like widening.
Use of an aliphatic polyether selected from polyalkylene oxide homopolymers having a formula wherein R and R 2 are independently selected from hydrocarbyl groups having one to four carbon atoms and hydrogen, with the caveat that at least one of R and R 2 is a hydrocarbyl group, R 1 is an aliphatic hydrocarbylene group having from 3 to 6 carbon atoms, and n is an integer from 4 to 50, wherein the polyether has a number average molecular weight of from 300 to 3000, for dissolving oxidation products or varnish in a hydrocarbon lubricant containing oxidation products or varnish, particularly a hydrocarbon oil, by increasing the polarity of the hydrocarbon lubricant to allow the hydrocarbon lubricant to dissolve the oxidation products or varnish particles, wherein the polyether is added in an amount such that the lubricant comprises from 2 wt% to 20 wt% of the polyether. wherein R and R 2 are independently selected from hydrocarbyl groups having one to four carbon atoms and hydrogen, with the caveat that at least one of R and R 2 is a hydrocarbyl group, R 1 is an aliphatic hydrocarbylene group having from 3 to 6 carbon atoms, and n is an integer from 4 to 50, wherein the polyether has a number average molecular weight of from 300 to 3000, for dissolving oxidation products or varnish in a hydrocarbon lubricant containing oxidation products or varnish, particularly a hydrocarbon oil, by increasing the polarity of the hydrocarbon lubricant to allow the hydrocarbon lubricant to dissolve the oxidation products or varnish particles, wherein the polyether is added in an amount such that the lubricant comprises from 2 wt% to 20 wt% of the polyether.
A user equipment comprising: a measurement unit configured to perform measurement for computing channel state information; a reception unit configured to receive first configuration information and second configuration information from a base station device; a configuring unit configured to configure a 1st set of subframe sets based on the first configuration information, and to configure a 2nd set of subframe sets based on the second configuration information, the 1st set of subframe sets including a first subframe set and a second subframe set, and the 2nd set of subframe sets including a third subframe set and a fourth subframe set; and a transmitting unit configured to transmit a channel state information report corresponding to at least one of the first subframe set, the second subframe set, the third subframe set, and the fourth subframe set; wherein the first configuration information is not configured in a case that the second configuration information is configured, and for the user equipment configured with the 2nd set of subframe sets based on the second configuration information, in a case of collision between channel state information reports of a same serving cell and with physical uplink control channel reporting types of a same priority, the channel state information report corresponding to the fourth subframe set is dropped. a measurement unit configured to perform measurement for computing channel state information; a reception unit configured to receive first configuration information and second configuration information from a base station device; a configuring unit configured to configure a 1st set of subframe sets based on the first configuration information, and to configure a 2nd set of subframe sets based on the second configuration information, the 1st set of subframe sets including a first subframe set and a second subframe set, and the 2nd set of subframe sets including a third subframe set and a fourth subframe set; and a transmitting unit configured to transmit a channel state information report corresponding to at least one of the first subframe set, the second subframe set, the third subframe set, and the fourth subframe set; wherein the first configuration information is not configured in a case that the second configuration information is configured, and for the user equipment configured with the 2nd set of subframe sets based on the second configuration information, in a case of collision between channel state information reports of a same serving cell and with physical uplink control channel reporting types of a same priority, the channel state information report corresponding to the fourth subframe set is dropped.
A profile download method, comprising: obtaining, by a user terminal, local profile assistant, LPA, indication information, and obtaining download information required for downloading a target profile; and sending, by the user terminal, the download information to an embedded universal integrated circuit card, eUICC, if the LPA indication information instructs to download the profile by using an LPA in the eUICC, so that the eUICC downloads, by using the LPA in the eUICC, the target profile from a download server indicated by the download information. obtaining, by a user terminal, local profile assistant, LPA, indication information, and obtaining download information required for downloading a target profile; and sending, by the user terminal, the download information to an embedded universal integrated circuit card, eUICC, if the LPA indication information instructs to download the profile by using an LPA in the eUICC, so that the eUICC downloads, by using the LPA in the eUICC, the target profile from a download server indicated by the download information.
A refrigerating and air-conditioning apparatus comprising: a refrigeration cycle being formed by connecting a compressor, a condenser, expansion means, and an evaporator, the refrigeration cycle performing a cooling operation; an evaporator heating device heating the evaporator; a drain pan receiving drain-water from the evaporator and draining the drain-water; a drain-pan heating device heating the drain pan; drain-pan-temperature detecting means; frost detecting means including a light-emitting element that emits light to the evaporator and a light-receiving element that receives reflected light from the evaporator and outputs a voltage according to the reflected light; a control device controlling on-off operation of the evaporator heating device and the drain-pan heating device, wherein the control device determines a frosting condition on the evaporator from an output of the frost detecting means and individually controls the evaporator heating device and the drain-pan heating device in accordance with the determination result, and if the control device detects that a temperature detected by the drain-pan-temperature detecting means after the evaporator heating device is turned on has reached a minimum value, the control device determines that the frost is removed from the evaporator and turns off the evaporator heating device. a refrigeration cycle being formed by connecting a compressor, a condenser, expansion means, and an evaporator, the refrigeration cycle performing a cooling operation; an evaporator heating device heating the evaporator; a drain pan receiving drain-water from the evaporator and draining the drain-water; a drain-pan heating device heating the drain pan; drain-pan-temperature detecting means; frost detecting means including a light-emitting element that emits light to the evaporator and a light-receiving element that receives reflected light from the evaporator and outputs a voltage according to the reflected light; a control device controlling on-off operation of the evaporator heating device and the drain-pan heating device, wherein the control device determines a frosting condition on the evaporator from an output of the frost detecting means and individually controls the evaporator heating device and the drain-pan heating device in accordance with the determination result, and if the control device detects that a temperature detected by the drain-pan-temperature detecting means after the evaporator heating device is turned on has reached a minimum value, the control device determines that the frost is removed from the evaporator and turns off the evaporator heating device.
Sound-based sensor for detecting surroundings, in particular ultrasonic sensor for motor vehicle applications, comprising an array of at least two sound transducers for generating and/or detecting sound waves, wherein the sound transducers (20a, 20b) are positioned at a distance of less than half the wavelength of the generated and/or detected sound waves with respect to one another, wherein at least one of the sound transducers (20a, 20b) has a diaphragm comprising a ferroelectretic material, and the ferroelectretic material is in the form of a film provided with electrodes (26a, 26b, 28), characterized in that the film is adhesively bonded to a printed circuit board and at least one of the electrodes (26a, 26b, 28, 28b) is in the form of a conductor track of the printed circuit board.