mhurhangee/ep-ind-claims huggingface dataset:
Hob comprising several independent heating areas of a cooking surface (F i) each respectively associated with control means (C i) for controlling a heating power of said heating area and detecting means (D i) for detecting a cooking receptacle in line with said heating area, the heating power (P i) associated with a heating area (F i) being equal to a predefined value and the predefined values of heating power (P i) respectively associated with the heating areas of the cooking surface (F i) being different from each other, said control means (C i) being adapted to control the functioning of a heating area (F i) according to said heating power (P i) when a cooking receptacle is detected in line with said heating area (F i), characterised in that a centralized verification means is configured to continually verify the presence of the cooking receptacle in line with said heating area (F i) and to control the functioning of the control means (C i) respectively associated with the heating areas as a function of the information provided by the detecting means (D i) of a cooking receptacle in line with said heating areas (F i), the hob comprising a cooking control button activated in line with the addition of a new cooking receptacle in line with said hob.
A method comprising: coupling anode electrodes of a set of light emitting diodes, LEDs, via first transistors to a first reference voltage in a testing mode, the first transistors on a display substrate on which the LEDs are mounted; coupling cathode electrodes of the set of LEDs to a second reference voltage lower than the first reference voltage via a common conductive line of the display substrate in the testing mode; and responsive to coupling the anode electrodes to the first reference voltage and the cathode electrodes to the second reference voltage, determining a threshold operability of the LEDs. coupling anode electrodes of a set of light emitting diodes, LEDs, via first transistors to a first reference voltage in a testing mode, the first transistors on a display substrate on which the LEDs are mounted; coupling cathode electrodes of the set of LEDs to a second reference voltage lower than the first reference voltage via a common conductive line of the display substrate in the testing mode; and responsive to coupling the anode electrodes to the first reference voltage and the cathode electrodes to the second reference voltage, determining a threshold operability of the LEDs.
Process for the recovery of Co from Li-ion batteries also containing Al and C, comprising the steps of: - providing a bath furnace equipped with means for O 2 injection; - providing a metallurgical charge comprising Li-ion batteries, and at least 15% by weight of slag formers, said slag formers comprising CaO; - feeding said metallurgical charge to the furnace while injecting O 2, whereby at least part of the Co is reduced and collected in a metallic phase; - separating the slag from the metallic phase by tapping; characterized in that the process is operated in autogeneous conditions by providing a fraction of Li-ion batteries, expressed as weight % of the metallurgical charge, equal to or larger than 153% - 3.5 (Al% + 0.6 C%), Al% and C% being the weight % of Al and C in the batteries. - providing a bath furnace equipped with means for O 2 injection; - providing a metallurgical charge comprising Li-ion batteries, and at least 15% by weight of slag formers, said slag formers comprising CaO; - feeding said metallurgical charge to the furnace while injecting O 2, whereby at least part of the Co is reduced and collected in a metallic phase; - separating the slag from the metallic phase by tapping; characterized in that the process is operated in autogeneous conditions by providing a fraction of Li-ion batteries, expressed as weight % of the metallurgical charge, equal to or larger than 153% - 3.5 (Al% + 0.6 C%), Al% and C% being the weight % of Al and C in the batteries.
A method of receiving, by a user equipment, data in a wireless communication system, comprising: receiving a physical downlink control channel, PDCCH, with downlink control information format 1A in a subframe; and receiving a physical downlink shared channel, PDSCH, corresponding to the PDCCH in the subframe, wherein the PDSCH is demodulated based on a cell specific reference signal when the subframe is not a multimedia broadcast multicast service single frequency network, MBSFN, subframe, and the PDSCH is demodulated based on a demodulation reference signal, when the subframe is a MBSFN subframe. receiving a physical downlink control channel, PDCCH, with downlink control information format 1A in a subframe; and receiving a physical downlink shared channel, PDSCH, corresponding to the PDCCH in the subframe, wherein the PDSCH is demodulated based on a cell specific reference signal when the subframe is not a multimedia broadcast multicast service single frequency network, MBSFN, subframe, and the PDSCH is demodulated based on a demodulation reference signal, when the subframe is a MBSFN subframe.
A method for the manufacture of solid milk, the method comprising steps of: compressing powdered milk so as to obtain a compressed object; humidifying the compressed object so as to obtain a humidified compressed object; and drying the humidified compressed object so as to obtain the solid milk, wherein a part of amorphous lactose at the surface of the solid milk is crystallized at the steps of humidifying step and drying, wherein the powdered milk comprises 30 wt% or more of lactose and more than 20 wt% of amorphous lactose, wherein the solid milk has 0.2 mm to 2 mm of a hard layer at the surface of the solid milk, wherein the hard layer comprises more than 10 wt% of crystalline lactose, wherein the volume of the solid milk is from 1 cm 3 to 50 cm 3, wherein the powdered milk further comprises 0.5 to 10 wt% of crystalline lactose, and wherein the step of humidifying is a step for keeping the compressed object under humidity of 60%RH to 100%RH atmosphere for 5 seconds to 1 hour. compressing powdered milk so as to obtain a compressed object; humidifying the compressed object so as to obtain a humidified compressed object; and drying the humidified compressed object so as to obtain the solid milk, wherein a part of amorphous lactose at the surface of the solid milk is crystallized at the steps of humidifying step and drying, wherein the powdered milk comprises 30 wt% or more of lactose and more than 20 wt% of amorphous lactose, wherein the solid milk has 0.2 mm to 2 mm of a hard layer at the surface of the solid milk, wherein the hard layer comprises more than 10 wt% of crystalline lactose, wherein the volume of the solid milk is from 1 cm 3 to 50 cm 3, wherein the powdered milk further comprises 0.5 to 10 wt% of crystalline lactose, and wherein the step of humidifying is a step for keeping the compressed object under humidity of 60%RH to 100%RH atmosphere for 5 seconds to 1 hour.
Use of an alcohol of formula R 4 OH wherein R 4 represents a C 2 to C 10 alkyl, or a C 3 to C 10 cycloalkyl, said alcohol of formula being in particular ethanol, and of an imine of formula wherein R 1 and R 2 represent a hydrogen, aryl, allyl, C 1 to C 10 alkyl, or C 3 to C 10 cycloalkyl, R 3 represents an aryl, allyl, C 1 to C 10 alkyl, C 3 to C 10 cycloalkyl, C 1 to C 10, a C 1 to C 10 carbonyl derivative, or a C 3 to C 10 formate, in the implementation of a method of preparation of tertiary amines of formula wherein R 1, R 2, R 3, R 4 are as defined above, wherein the preparation of tertiary amines is performed in the presence of a catalyst comprising an iron complex. wherein R 4 represents a C 2 to C 10 alkyl, or a C 3 to C 10 cycloalkyl, said alcohol of formula being in particular ethanol, and of an imine of formula wherein R 1 and R 2 represent a hydrogen, aryl, allyl, C 1 to C 10 alkyl, or C 3 to C 10 cycloalkyl, R 3 represents an aryl, allyl, C 1 to C 10 alkyl, C 3 to C 10 cycloalkyl, C 1 to C 10, a C 1 to C 10 carbonyl derivative, or a C 3 to C 10 formate, in the implementation of a method of preparation of tertiary amines of formula wherein R 1, R 2, R 3, R 4 are as defined above, wherein the preparation of tertiary amines is performed in the presence of a catalyst comprising an iron complex.
Optical module for a lighting device for motor vehicles, comprising at least: - an optical axis, - at least one light source, - a lens receiving light rays from the source and including an entry face and an upper edge, - a reflector (11, 12, 14, 16), returning light rays from the at least one light source toward the entry face of the lens, - a plate adapted to form a break in a light beam generated by the optical module and to reflect rays from the light source, and - a cache (24, 26) forming a bridge of material between the reflector (11, 12, 14, 16) and at least the upper edge of the lens, characterized in that the cache (24, 26) receives light rays directly from the source and reflects at least some of these received rays toward the lens, said cache (24, 26) including a plurality of portions, namely a main portion that is in the shape of a concave curve and that includes an inflection point that is situated vertically higher than the upper edge of the lens, this main portion being configured to distribute at least some of the directly received rays over at least half of the entry face of the lens while not reflecting any light ray in the direction of the plate. - an optical axis, - at least one light source, - a lens receiving light rays from the source and including an entry face and an upper edge, - a reflector (11, 12, 14, 16), returning light rays from the at least one light source toward the entry face of the lens, - a plate adapted to form a break in a light beam generated by the optical module and to reflect rays from the light source, and - a cache (24, 26) forming a bridge of material between the reflector (11, 12, 14, 16) and at least the upper edge of the lens,
A side rail comprising: a plurality of base members (23, 26) extending in a longitudinal direction of a vehicle body of a vehicle, the base members (23, 26) having a closed-section structure in a polygonal shape having a plurality of corner portions (21d, 21e, 22d, 22e); characterised in that the side rail comprises reinforcement plate members (24, 25, 27, 28) having a greater plate thickness than a plate thickness of the base members (23, 26), wherein a part of a region in the longitudinal direction of the vehicle body of the side rail includes a reinforcement region having the closed-section structure in the polygonal shape constituted by the base members (23, 26) and the reinforcement plate members (24, 25, 27, 28), and the reinforcement region includes joined parts where in a state in which the reinforcement plate members (24, 25, 27, 28) are fitted in fitting portions (23a, 23b, 26a, 26b) provided at positions corresponding to at least the respective corner portions (21d, 21e, 22d, 22e) in the base members (23, 26), the base members (23, 26) and the reinforcement plate members (24, 25, 27, 28) are joined to each other. a plurality of base members (23, 26) extending in a longitudinal direction of a vehicle body of a vehicle, the base members (23, 26) having a closed-section structure in a polygonal shape having a plurality of corner portions (21d, 21e, 22d, 22e); characterised in that the side rail comprises reinforcement plate members (24, 25, 27, 28) having a greater plate thickness than a plate thickness of the base members (23, 26), wherein a part of a region in the longitudinal direction of the vehicle body of the side rail includes a reinforcement region having the closed-section structure in the polygonal shape constituted by the base members (23, 26) and the reinforcement plate members (24, 25, 27, 28), and the reinforcement region includes joined parts where in a state in which the reinforcement plate members (24, 25, 27, 28) are fitted in fitting portions (23a, 23b, 26a, 26b) provided at positions corresponding to at least the respective corner portions (21d, 21e, 22d, 22e) in the base members (23, 26), the base members (23, 26) and the reinforcement plate members (24, 25, 27, 28) are joined to each other.
A data transmission method, comprising: receiving, by a second user equipment, UE, a first message from a first UE, wherein the first message comprises relay request information; determining, by the second UE according to the first message, whether a preset first condition is satisfied, wherein the preset first condition comprises: signal quality between the second UE and the base station is lower than a first threshold and higher than a second threshold; wherein the signal quality is lower than the first threshold indicates that the second UE is located at an edge of a cell, the signal quality is greater than the second threshold indicates that signal quality of the second UE meets a communication requirement; when determining that the preset first condition is satisfied, sending a second message to the base station, wherein the second message comprises information indicating that the second UE requests to act as relay UE for data transmission between the first UE and the base station; and receiving, by the second UE, a third message from the base station, wherein the third message instructs the second UE to act as the relay UE. receiving, by a second user equipment, UE, a first message from a first UE, wherein the first message comprises relay request information; determining, by the second UE according to the first message, whether a preset first condition is satisfied, wherein the preset first condition comprises: signal quality between the second UE and the base station is lower than a first threshold and higher than a second threshold; wherein the signal quality is lower than the first threshold indicates that the second UE is located at an edge of a cell, the signal quality is greater than the second threshold indicates that signal quality of the second UE meets a communication requirement; when determining that the preset first condition is satisfied, sending a second message to the base station, wherein the second message comprises information indicating that the second UE requests to act as relay UE for data transmission between the first UE and the base station; and receiving, by the second UE, a third message from the base station, wherein the third message instructs the second UE to act as the relay UE.
A method of detecting a foreign object in a wireless power transmitter, the method comprising: measuring a quality factor value corresponding to a reference operating frequency when an object is detected; searching for a current peak frequency having a maximum quality factor value within an operating frequency band; receiving a foreign object detection status packet including information on a reference peak frequency from a wireless power receiver; calibrating the measured quality factor value using a difference between the current peak frequency and the reference peak frequency; and comparing the calibrated quality factor value with a predetermined quality factor threshold value to determine whether the foreign object is present. measuring a quality factor value corresponding to a reference operating frequency when an object is detected; searching for a current peak frequency having a maximum quality factor value within an operating frequency band; receiving a foreign object detection status packet including information on a reference peak frequency from a wireless power receiver; calibrating the measured quality factor value using a difference between the current peak frequency and the reference peak frequency; and comparing the calibrated quality factor value with a predetermined quality factor threshold value to determine whether the foreign object is present.
A method of formulating control channel information for a transmitting device operating in an orthogonal frequency division multiplexing, OFDM, system in which a control channel spans n OFDM symbols, with n being an integer; the method comprising acts of: allocating control channel data to at least one set of resource element groups (1004a, 1004b, 1004c); characterized by the following steps: creating at least one order for the at least one set of the resource element groups (1004a, 1004b, 1004c) in accordance with one or more permutation mechanisms including interleaving sequence(s) and/or cyclic shift(s), wherein said permutation mechanisms include at least one interleaving sequence that is selected from a family of sequences having low cross-correlation properties, said cross-correlation being considered low if a correlation between any two sequences for a cyclic shift of those two sequences is lower than a set threshold; and mapping the at least one set of the resource element groups (1004a, 1004b, 1004c) to resource elements of the n OFDM symbols of the control channel responsive to the at least one order that is created using the one or more permutation mechanisms. allocating control channel data to at least one set of resource element groups (1004a, 1004b, 1004c); characterized by the following steps: creating at least one order for the at least one set of the resource element groups (1004a, 1004b, 1004c) in accordance with one or more permutation mechanisms including interleaving sequence(s) and/or cyclic shift(s), wherein said permutation mechanisms include at least one interleaving sequence that is selected from a family of sequences having low cross-correlation properties, said cross-correlation being considered low if a correlation between any two sequences for a cyclic shift of those two sequences is lower than a set threshold; and mapping the at least one set of the resource element groups (1004a, 1004b, 1004c) to resource elements of the n OFDM symbols of the control channel responsive to the at least one order that is created using the one or more permutation mechanisms. creating at least one order for the at least one set of the resource element groups (1004a, 1004b, 1004c) in accordance with one or more permutation mechanisms including interleaving sequence(s) and/or cyclic shift(s), wherein said permutation mechanisms include at least one interleaving sequence that is selected from a family of sequences having low cross-correlation properties, said cross-correlation being considered low if a correlation between any two sequences for a cyclic shift of those two sequences is lower than a set threshold; and mapping the at least one set of the resource element groups (1004a, 1004b, 1004c) to resource elements of the n OFDM symbols of the control channel responsive to the at least one order that is created using the one or more permutation mechanisms.
A circuit for generating four clock signals with quadrature timing relationships, the circuit including: a current-mode logic, CML, to CMOS converter configured to convert a differential pair of CML clock signals to a differential pair of CMOS clock signals, wherein the CML to CMOS converter includes a controllable duty cycle; a delay-locked loop module including a first delay cell configured to produce a delayed positive clock signal from a positive signal of the differential pair of CMOS clock signals, and a second delay cell configured to produce a delayed negative clock signal from a negative signal of the differential pair of CMOS clock signals, and configured to produce the four clock signals from the differential pair of CMOS clock signals, the delayed positive clock signal, and the delayed negative clock signal; and a calibration module configured to control a delay of the first delay cell, control a delay of the second delay cell, and control the duty cycle of the CML to CMOS converter to adjust the timing relationships of the four clock signals. a current-mode logic, CML, to CMOS converter configured to convert a differential pair of CML clock signals to a differential pair of CMOS clock signals, wherein the CML to CMOS converter includes a controllable duty cycle; a delay-locked loop module including a first delay cell configured to produce a delayed positive clock signal from a positive signal of the differential pair of CMOS clock signals, and a second delay cell configured to produce a delayed negative clock signal from a negative signal of the differential pair of CMOS clock signals, and a first delay cell configured to produce a delayed positive clock signal from a positive signal of the differential pair of CMOS clock signals, and a second delay cell configured to produce a delayed negative clock signal from a negative signal of the differential pair of CMOS clock signals, and configured to produce the four clock signals from the differential pair of CMOS clock signals, the delayed positive clock signal, and the delayed negative clock signal; and a calibration module configured to control a delay of the first delay cell, control a delay of the second delay cell, and control the duty cycle of the CML to CMOS converter to adjust the timing relationships of the four clock signals.
Heat transfer device for additive manufacturing comprising: - a set of independent ultraviolet laser sources capable of generating heat and designed to convey the electromagnetic radiation beams in a predetermined area of the plate of a work surface, said independent sources capable of varying the temperature of said predetermined area of said plate in said work surface by introducing a thermal gradient, said independent sources being connected to sides of the optical deflection system; and - an array of ultraviolet LEDs adjacent to the optical deflection system, capable of varying the temperature of the metal powders positioned in said work surface. - a set of independent ultraviolet laser sources capable of generating heat and designed to convey the electromagnetic radiation beams in a predetermined area of the plate of a work surface, said independent sources capable of varying the temperature of said predetermined area of said plate in said work surface by introducing a thermal gradient, said independent sources being connected to sides of the optical deflection system; and - an array of ultraviolet LEDs adjacent to the optical deflection system, capable of varying the temperature of the metal powders positioned in said work surface.