mhurhangee/ep-ind-claims huggingface dataset:
Nutritional supplement preparation for a mammal, the preparation comprising an amino acid composition containing glycine, proline and hydroxyproline in free form, wherein a single dosage unit of the preparation contains at least 80 mg of the combination of glycine, proline and hydroxyproline per kg body weight of the individual subject to supplementation and wherein the molar ratio of glycine to proline is in the range from 10:1 to 3:1 and the molar ratio of hydroxyproline to proline is in the range from 2:1 to 1:2.
A method performed by a first terminal, the method comprising: receiving, from a base station, a higher layer signaling including time domain configuration information for a sidelink-synchronization signal and physical sidelink broadcast channel block, S-SSB; the method being characterized by: identifying, based on the time domain configuration information, a number of S-SSBs N SSB within a period, a slot offset O SSB from a start of the period to a first S-SSB in the period, and a slot interval D SSB between neighboring S-SSBs in the period; identifying a slot including the S-SSB in the period, wherein an index of the slot is determined as O SSB + I SSB *D SSB, where I SSB is an index of the S-SSBs in the period, with 0≤ I SSB ≤ N SSB -1; and transmitting, to a second terminal, the S-SSB in the slot. receiving, from a base station, a higher layer signaling including time domain configuration information for a sidelink-synchronization signal and physical sidelink broadcast channel block, S-SSB; the method being characterized by: identifying, based on the time domain configuration information, a number of S-SSBs N SSB within a period, a slot offset O SSB from a start of the period to a first S-SSB in the period, and a slot interval D SSB between neighboring S-SSBs in the period; identifying a slot including the S-SSB in the period, wherein an index of the slot is determined as O SSB + I SSB *D SSB, where I SSB is an index of the S-SSBs in the period, with 0≤ I SSB ≤ N SSB -1; and transmitting, to a second terminal, the S-SSB in the slot. identifying, based on the time domain configuration information, a number of S-SSBs N SSB within a period, a slot offset O SSB from a start of the period to a first S-SSB in the period, and a slot interval D SSB between neighboring S-SSBs in the period; identifying a slot including the S-SSB in the period, wherein an index of the slot is determined as O SSB + I SSB *D SSB, where I SSB is an index of the S-SSBs in the period, with 0≤ I SSB ≤ N SSB -1; and transmitting, to a second terminal, the S-SSB in the slot.
A method, in an electronic device, for planning an indoor radio network for a building, the method comprising: preprocessing an image of a floor plan of the building; generating, using a conditional Generative Adversarial Network, cGAN, a radio propagation map for the floor plan using the preprocessed image; and determining an indoor radio transmitter distribution for the floor plan using the radio propagation map by: applying a clustering algorithm to the radio propagation map to determine regions within the radio propagation map, wherein each region comprises signal points that have a computed signal power over a power threshold, and are within a physical distance threshold of each other; determining the centers of each region; and placing radio transmitters at the centers of each region in the indoor radio transmitter distribution. preprocessing an image of a floor plan of the building; generating, using a conditional Generative Adversarial Network, cGAN, a radio propagation map for the floor plan using the preprocessed image; and determining an indoor radio transmitter distribution for the floor plan using the radio propagation map by: applying a clustering algorithm to the radio propagation map to determine regions within the radio propagation map, wherein each region comprises signal points that have a computed signal power over a power threshold, and are within a physical distance threshold of each other; determining the centers of each region; and placing radio transmitters at the centers of each region in the indoor radio transmitter distribution. applying a clustering algorithm to the radio propagation map to determine regions within the radio propagation map, wherein each region comprises signal points that have a computed signal power over a power threshold, and are within a physical distance threshold of each other; determining the centers of each region; and placing radio transmitters at the centers of each region in the indoor radio transmitter distribution.
An electric power supply method for supplying an electric power to a sensor for continuously generating a signal correlated with numerical information in relation to a test substance contained in a sample, the electric power supply method comprising: a power generating step of generating the electric power for driving the sensor; a power generation amount monitoring step of monitoring a power generation amount generated in the power generating step; a charging step of performing charging with the electric power generated in the power generating step; a supplying step of supplying electric power accumulated in the charging step to the sensor; a calculating step of calculating a power generation rate as the power generation amount per unit time in the power generating step when the power generation amount generated in the power generating step is monitored; a storing step of storing the power generation rate calculated in the power generating step; and a regulating step of regulating a value of a reference voltage for judgment which is a threshold value to start the monitoring of the power generation amount generated in the power generating step depending on an average power generation rate calculated by averaging values of the power generation rates obtained in the past a plurality of times including a value stored most recently, of the power generation rates stored in the storing step. a power generating step of generating the electric power for driving the sensor; a power generation amount monitoring step of monitoring a power generation amount generated in the power generating step; a charging step of performing charging with the electric power generated in the power generating step; a supplying step of supplying electric power accumulated in the charging step to the sensor; a calculating step of calculating a power generation rate as the power generation amount per unit time in the power generating step when the power generation amount generated in the power generating step is monitored; a storing step of storing the power generation rate calculated in the power generating step; and a regulating step of regulating a value of a reference voltage for judgment which is a threshold value to start the monitoring of the power generation amount generated in the power generating step depending on an average power generation rate calculated by averaging values of the power generation rates obtained in the past a plurality of times including a value stored most recently, of the power generation rates stored in the storing step.
An aircraft brake temperature control system 100 for controlling a temperature of a brake of a landing gear of an aircraft, the aircraft brake temperature control system comprising a controller that is configured to cause a thermal management system to regulate the temperature of the brake, on the basis of a selection of an objective for regulating the temperature of brake from a plurality of objectives (121,122) for regulating the temperature of the brake and on the basis of a condition indicating to the controller that the aircraft is in-flight.
Plug comprising a plug housing having at least one contact pin arranged inside the plug housing, which is provided with a touch protection, wherein the touch protection is formed by an insulating body mounted on the at least one contact pin and comprises a base body, characterised in that at least one circumferential web is moulded onto the outer surface of the base body.
Portable power tool having a tool clamping unit and an adjusting ring, wherein the adjusting ring is a torque adjusting ring by way of which a torque clutch is adjustable, characterized in that the adjusting ring projects forward in the axial direction beyond an axially rear end of the tool clamping unit, at least with the tool clamping unit fully open, and in that the axially rear end of the tool clamping unit is arranged radially between the adjusting ring and an output shaft, preferably radially between the adjusting ring and a transmission housing.
Gas discharge lamp, in particular deuterium lamp, with a gas-filled lamp bulb, comprising: an electrode housing with a front housing part of non-electrically conductive material, a rear housing part and a housing interim wall separating the front housing part from the rear housing part, with the front housing part comprising a cathode, a cathode shielding window arranged before the cathode and a light exit window that emits light emitted by discharge outwards, and with the rear housing part holding an anode that is placed on a visual axis with the light exit window in the front housing part, with an exit cover with an adjustable electrical potential with an aperture arranged at the outside in front of the light exit window, with the aperture placed on the visual axis A in projection of the light exit window and placed at a distance from it, characterised in that the electrical potential of the exit cover is adjusted by an electrical connection to the cathode shielding window. an electrode housing with a front housing part of non-electrically conductive material, a rear housing part and a housing interim wall separating the front housing part from the rear housing part, with the front housing part comprising a cathode, a cathode shielding window arranged before the cathode and a light exit window that emits light emitted by discharge outwards, and with the rear housing part holding an anode that is placed on a visual axis with the light exit window in the front housing part, with an exit cover with an adjustable electrical potential with an aperture arranged at the outside in front of the light exit window, with the aperture placed on the visual axis A in projection of the light exit window and placed at a distance from it, characterised in that the electrical potential of the exit cover is adjusted by an electrical connection to the cathode shielding window.
Process for additive manufacturing of a machine component, comprising the steps of: a) providing at least one material layer; b) irradiating the material layer with a laser to effect local melting of the material layer; characterized in that in step a) a hardening agent is added to a base material of the material layer in locally adjustable fashion, wherein the addition of the hardening agent is adjustable to the extent that it is specifiable how much hardening agent is added to the material layer of the base material at a selectable site on the surface, with the result that a locally changeable fractional composition of the material layer in terms of the base material and the hardening agent is brought about, and in step b) the hardening agent is at least embedded in the base material by the irradiation with the laser. a) providing at least one material layer; b) irradiating the material layer with a laser to effect local melting of the material layer; characterized in that in step a) a hardening agent is added to a base material of the material layer in locally adjustable fashion, wherein the addition of the hardening agent is adjustable to the extent that it is specifiable how much hardening agent is added to the material layer of the base material at a selectable site on the surface, with the result that a locally changeable fractional composition of the material layer in terms of the base material and the hardening agent is brought about, and in step b) the hardening agent is at least embedded in the base material by the irradiation with the laser. characterized in that in step a) a hardening agent is added to a base material of the material layer in locally adjustable fashion, wherein the addition of the hardening agent is adjustable to the extent that it is specifiable how much hardening agent is added to the material layer of the base material at a selectable site on the surface, with the result that a locally changeable fractional composition of the material layer in terms of the base material and the hardening agent is brought about, and in step b) the hardening agent is at least embedded in the base material by the irradiation with the laser.
A conductive member (1, 2) comprising: a first conductive material (11, 14) being aluminum or an aluminum alloy; a second conductive material (12, 15) being copper or a copper alloy; and a metal film (13, 16) formed by depositing powder including a metal, the powder being accelerated together with a gas and sprayed, in a solid state, by using cold spraying method, onto a surface (111, 141) of a butting part, at which the first and the second conductive materials (11, 14; 12, 15) are butted against each other, wherein the first conductive material (11, 14) includes a first cutout portion having a cutout shape in an end on a butting side, a thickness (d1, d2) of an end face (112, 142) of the butting part contacting the second conductive material (12, 15) being 0.1 to 0.5 times a maximum thickness of the first conductive material (11, 14), the second conductive material (12, 15) includes a second cutout portion having a cutout shape in an end on a butting side, a thickness of an end face of the butting part contacting the first conductive material (11, 14) being 0.1 to 0.5 times a maximum thickness of the second conductive material (12, 15), the metal film (13, 16) being a film of copper or an alloy containing copper and covering the first and second cutout portions, the first and second cutout portions each have a tapered shape having the surface (111, 141), which is inclined at an angle of inclination (θ1, θ2) relative to respective principal surfaces of the first and the second conductive materials (11, 14; 12, 15), thus forming first and second tapered portions (11a, 14a; 12a, 15a), wherein the second tapered portion (12a, 15a) has the same angle of inclination (θ1, θ2) and the same thickness (d1, d2) as the first tapered portion (11a, 14a), the first conductive material (11, 14) and the second conductive material (12, 15) are joined by forming the metal film (13, 16), and the first conductive material (11, 14) and the second conductive material (12, 15) both either have a plate-like shape or a cylindrical shape. a first conductive material (11, 14) being aluminum or an aluminum alloy; a second conductive material (12, 15) being copper or a copper alloy; and a metal film (13, 16) formed by depositing powder including a metal, the powder being accelerated together with a gas and sprayed, in a solid state, by using cold spraying method, onto a surface (111, 141) of a butting part, at which the first and the second conductive materials (11, 14; 12, 15) are butted against each other,
A system comprising an integrated circuit device, preferably a microcontroller, coupled with a liquid crystal display, LCD,, wherein the LCD comprises common electrodes (215, 217, 245) and segment electrodes, wherein a group of segment electrodes forms a seven segment display (210; 245) and comprises at least one associated common electrode (215, 217, 245), the integrated circuit device comprising: - a touch controller (130, 380, 390; 130, 380, 350-370) comprising at least one input, - a LCD controller comprising a plurality of outputs, - an external interface comprising a plurality of external pins and being configured to connect with the common electrodes (215, 217) and the segment electrodes of the LCD, - a multiplexer (150; 210; 320, 330, 340) operable in a first mode to connect through said external pins said common electrodes (215, 217) and the segment electrodes of the LCD with said plurality of outputs of the LCD controller and in a second mode to connect through at least one of said external pins at least one segment electrode with said touch controller (130, 380, 390; 130, 380, 350-370), and wherein the touch controller (130, 380, 390; 130, 380, 350-370) is configured to use the at least one segment electrode as a touch sensor, - characterised in that the touch controller is a capacitive voltage divider, CVD, controller, - an analog-to-digital converter, ADC, is coupled with the CVD controller and with said at least one external pin, and - a digital-to-analog converter, DAC, is coupled with the CVD controller, wherein the DAC is connected with at least some of the common electrodes in the second mode forming parasitic capacitances with the touch sensor, wherein the at least some of the common electrodes operate as guard electrodes. - a touch controller (130, 380, 390; 130, 380, 350-370) comprising at least one input, - a LCD controller comprising a plurality of outputs, - an external interface comprising a plurality of external pins and being configured to connect with the common electrodes (215, 217) and the segment electrodes of the LCD, - a multiplexer (150; 210; 320, 330, 340) operable in a first mode to connect through said external pins said common electrodes (215, 217) and the segment electrodes of the LCD with said plurality of outputs of the LCD controller and in a second mode to connect through at least one of said external pins at least one segment electrode with said touch controller (130, 380, 390; 130, 380, 350-370), and wherein the touch controller (130, 380, 390; 130, 380, 350-370) is configured to use the at least one segment electrode as a touch sensor, - characterised in that the touch controller is a capacitive voltage divider, CVD, controller, - an analog-to-digital converter, ADC, is coupled with the CVD controller and with said at least one external pin, and - a digital-to-analog converter, DAC, is coupled with the CVD controller, wherein the DAC is connected with at least some of the common electrodes in the second mode forming parasitic capacitances with the touch sensor, wherein the at least some of the common electrodes operate as guard electrodes.
A power converter (200b, 200d, 220, 320, 420) comprising: an input terminal configured to receive power from one or more power sources; a first output terminal configured to provide power to a first load; a first storage device coupled between the first output terminal and a first reference terminal; a second output terminal configured to provide power to a second load; a second storage device coupled between the second output terminal and a second reference terminal; and a voltage compensation circuit comprising a first compensation leg connected between the first output terminal and the second output terminal, wherein the first storage device is configured to transfer charge to the second output terminal via the first compensation leg; a controller (210, 210e, 210f) comprising a first control loop configured to control the voltage at the first output terminal and a second control loop configured to control the voltage at the second output terminal, wherein the second control loop is faster than the first control loop, and wherein the controller (210, 210e, 210f) is configured to: obtain a first measurement of a first voltage at the second output terminal; compare the first voltage to a first reference voltage value; if the first voltage is less than the first reference voltage value, activate the voltage compensation circuit to transfer charge from the first output terminal to the second output terminal. an input terminal configured to receive power from one or more power sources; a first output terminal configured to provide power to a first load; a first storage device coupled between the first output terminal and a first reference terminal; a second output terminal configured to provide power to a second load; a second storage device coupled between the second output terminal and a second reference terminal; and a voltage compensation circuit comprising a first compensation leg connected between the first output terminal and the second output terminal, wherein the first storage device is configured to transfer charge to the second output terminal via the first compensation leg; a controller (210, 210e, 210f) comprising a first control loop configured to control the voltage at the first output terminal and a second control loop configured to control the voltage at the second output terminal, wherein the second control loop is faster than the first control loop, and wherein the controller (210, 210e, 210f) is configured to: obtain a first measurement of a first voltage at the second output terminal; compare the first voltage to a first reference voltage value; if the first voltage is less than the first reference voltage value, activate the voltage compensation circuit to transfer charge from the first output terminal to the second output terminal. obtain a first measurement of a first voltage at the second output terminal; compare the first voltage to a first reference voltage value; if the first voltage is less than the first reference voltage value, activate the voltage compensation circuit to transfer charge from the first output terminal to the second output terminal.
Lifting support for a container, comprising: - two upper pins and two lower pins, adapted to be inserted in complementary holes (46, 47) of the container when the lifting support is in a first position with respect to the container, - two intermediate pins adapted to be inserted in two complementary upper holes of the container when the lifting support is in a second position with respect to the container, the lifting support being characterised in that the two intermediate pins are positioned between the two upper pins and the two lower pins. - two upper pins and two lower pins, adapted to be inserted in complementary holes (46, 47) of the container when the lifting support is in a first position with respect to the container, - two intermediate pins adapted to be inserted in two complementary upper holes of the container when the lifting support is in a second position with respect to the container, the lifting support being characterised in that the two intermediate pins are positioned between the two upper pins and the two lower pins.