mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a first light transmissive support including a first light transmissive insulator; a second light transmissive support including a second light transmissive insulator; a conductive circuit layer (5, 7) provided on at least one of a first surface of the first light transmissive insulator and a second surface of the second light transmissive insulator opposed to the first surface; a light emitting diode including a light emitting diode body having a first face and a second face, a first electrode, provided on the first face of the light emitting diode body, electrically connecting to the conductive circuit layer (5, 7), and a second electrode, provided on the first face or the second face of the light emitting diode body, electrically connecting to the conductive circuit layer (5, 7), the light emitting diode arranging between the first light transmissive insulator and the second light transmissive insulator; and a third light transmissive insulator, embedded between the first light transmissive insulator and the second light transmissive insulator, characterized in that the third light transmissive insulator has a Vicat softening temperature of 80°C or higher and 160°C or lower and a tensile storage elastic modulus of 0.01 GPa or more and 10 GPa or less in a temperature of 0°C or higher and 100°C or lower. a first light transmissive support including a first light transmissive insulator; a second light transmissive support including a second light transmissive insulator; a conductive circuit layer (5, 7) provided on at least one of a first surface of the first light transmissive insulator and a second surface of the second light transmissive insulator opposed to the first surface; a light emitting diode including a light emitting diode body having a first face and a second face, a first electrode, provided on the first face of the light emitting diode body, electrically connecting to the conductive circuit layer (5, 7), and a second electrode, provided on the first face or the second face of the light emitting diode body, electrically connecting to the conductive circuit layer (5, 7), the light emitting diode arranging between the first light transmissive insulator and the second light transmissive insulator; and a third light transmissive insulator, embedded between the first light transmissive insulator and the second light transmissive insulator, characterized in that the third light transmissive insulator has a Vicat softening temperature of 80°C or higher and 160°C or lower and a tensile storage elastic modulus of 0.01 GPa or more and 10 GPa or less in a temperature of 0°C or higher and 100°C or lower.
A method for detecting path points on a workpiece, wherein the workpiece by an industrial robot (no) to be processed on the basis of the path points, comprising the following steps: a) coupling a multi-axis articulated arm to a hand flange of the industrial robot, sensors for detecting the (on the axes of the articulated arm 120) forces and/or torques are provided; and further preferably in the given order: b) start-up of the workpiece by the articulated robot; c) determining from the sensed forces and/or torques that an end effector of the articulated arm contacts the workpiece; d) in response to the determining step c): retraction of the workpiece (by the articulated arm 120), wherein the end effector of the articulated arm contacts the workpiece during the shut-down; and e) detecting the path points on the workpiece based on the retraction of the workpiece. a) coupling a multi-axis articulated arm to a hand flange of the industrial robot, sensors for detecting the (on the axes of the articulated arm 120) forces and/or torques are provided; and further preferably in the given order: b) start-up of the workpiece by the articulated robot; c) determining from the sensed forces and/or torques that an end effector of the articulated arm contacts the workpiece; d) in response to the determining step c): retraction of the workpiece (by the articulated arm 120), wherein the end effector of the articulated arm contacts the workpiece during the shut-down; and e) detecting the path points on the workpiece based on the retraction of the workpiece.
A method, at a first base station, for supporting positioning of a mobile device, the method comprising: generating a plurality of directional positioning reference signals, PRSs, for at least one cell for the first base station, wherein, to direct the mobile device to measure at least one first directional PRS and to not measure at least one second directional PRS of the plurality of PRSs because the at least one second directional PRS is not expected to be transmitted in a direction of a line of sight between the first base station and the mobile device, each of the plurality of directional PRSs comprises at least one signal characteristic and a direction of transmission, wherein the at least one signal characteristic and the direction of transmission for each of the plurality of directional PRSs are unique for any other directional PRS transmitted by the first base station and other base stations nearby the first base station; and transmitting each of the plurality of directional PRSs within the at least one cell, wherein each of the plurality of directional PRSs is transmitted in its direction of transmission; obtaining at least one round trip time, RTT, measurement from the mobile device for the at least one first directional PRS transmitted from the first base station; and obtaining a position of the mobile device based at least in part on the at least one direction of transmission and the at least one RTT measurement for the at least one first directional PRS. generating a plurality of directional positioning reference signals, PRSs, for at least one cell for the first base station, wherein, to direct the mobile device to measure at least one first directional PRS and to not measure at least one second directional PRS of the plurality of PRSs because the at least one second directional PRS is not expected to be transmitted in a direction of a line of sight between the first base station and the mobile device, each of the plurality of directional PRSs comprises at least one signal characteristic and a direction of transmission, wherein the at least one signal characteristic and the direction of transmission for each of the plurality of directional PRSs are unique for any other directional PRS transmitted by the first base station and other base stations nearby the first base station; and transmitting each of the plurality of directional PRSs within the at least one cell, wherein each of the plurality of directional PRSs is transmitted in its direction of transmission; obtaining at least one round trip time, RTT, measurement from the mobile device for the at least one first directional PRS transmitted from the first base station; and obtaining a position of the mobile device based at least in part on the at least one direction of transmission and the at least one RTT measurement for the at least one first directional PRS.
A non-transitory computer-readable medium having instructions executable by a processor, the instructions programmed to perform a method comprising: computing phase values for a plurality of nodes distributed across a geometric surface based on data representing the electrical activity for the plurality of nodes over time (102, 104); evaluating the computed phase values for each of the nodes at a given time to identify each pair of adjacent nodes having phase values that encompass a predetermined phase value threshold; and determining at least one location on the geometric surface, corresponding to a wave front at the given time, based on the evaluating (108, 110). computing phase values for a plurality of nodes distributed across a geometric surface based on data representing the electrical activity for the plurality of nodes over time (102, 104); evaluating the computed phase values for each of the nodes at a given time to identify each pair of adjacent nodes having phase values that encompass a predetermined phase value threshold; and determining at least one location on the geometric surface, corresponding to a wave front at the given time, based on the evaluating (108, 110).
A method for determining a liquid level of a sample in a container, comprising: a) capturing an image of a sample housed in the container, wherein the image is represented as a two dimensional array of intensities of light; b) extracting an area of interest from the image to obtain a two dimensional array of interest; c) processing the two dimensional array of interest with a differential filter in the vertical dimension to obtain a differentially filtered two dimensional array; d) splitting the differentially filtered two dimensional array into "n" narrower vertical arrays; e) collapsing the "n" two dimensional vertical arrays horizontally to form "n" one dimensional differential arrays; f) applying a mask to the "n" one dimensional differential arrays to account for noise; g) analyzing each of the resulting "n" masked vertical one dimensional differential arrays to determine the presence of peaks; h) combining and counting, per vertical unit, the peaks resulting from the analysis; i) forming a histogram from the combined and counted peaks to obtain a frequency of peak appearance per vertical unit; and j) further processing the resulting histogram to determine the bottom of the container and interface/level of the liquid and ambient air, the presence of foam and/or other objects. a) capturing an image of a sample housed in the container, wherein the image is represented as a two dimensional array of intensities of light; b) extracting an area of interest from the image to obtain a two dimensional array of interest; c) processing the two dimensional array of interest with a differential filter in the vertical dimension to obtain a differentially filtered two dimensional array; d) splitting the differentially filtered two dimensional array into "n" narrower vertical arrays; e) collapsing the "n" two dimensional vertical arrays horizontally to form "n" one dimensional differential arrays; f) applying a mask to the "n" one dimensional differential arrays to account for noise; g) analyzing each of the resulting "n" masked vertical one dimensional differential arrays to determine the presence of peaks; h) combining and counting, per vertical unit, the peaks resulting from the analysis; i) forming a histogram from the combined and counted peaks to obtain a frequency of peak appearance per vertical unit; and j) further processing the resulting histogram to determine the bottom of the container and interface/level of the liquid and ambient air, the presence of foam and/or other objects.
Vulcanizable rubber composition comprising at least the following components: a) at least one functionalized polymer, b) at least one modified polybutadiene having a proportion of cis-1,4 units of > 95% by weight and a 1,2-vinyl content of < 1% by weight, the polybutadiene having been modified by means of sulphur chlorides after the polymerization, c) at least one silica, d) at least one further filler, e) at least one vulcanizing agent, f) at least one oil and g) optionally at least one further rubber additive, where the modified polybutadiene has an abrupt increase in the Mooney viscosity (ML 1+4 at 100°C) by at least 50%, based on the Mooney viscosity (ML 1+4 at 100°C) of the polybutadiene prior to addition of the sulphur chlorides. a) at least one functionalized polymer, b) at least one modified polybutadiene having a proportion of cis-1,4 units of > 95% by weight and a 1,2-vinyl content of < 1% by weight, the polybutadiene having been modified by means of sulphur chlorides after the polymerization, c) at least one silica, d) at least one further filler, e) at least one vulcanizing agent, f) at least one oil and g) optionally at least one further rubber additive, where
A compound of formula, characterized in that X denotes Cl or Br, R 1 denotes (HO-)(C 1-3 -alkyl-)P -O-(CH 2) n -, (R 6 O-)(R 7 O-)P - n -, (R 6 O-)(R 7 O-)P -phenyl-(CH 2) q -, H-(O-CH 2 -CH 2) q -, CH 3 -(O-CH 2 -CH 2) m -, tetrahydrofuryl-C 1-3 -alkylene-, N-acetyl-piperidinyl-, pyridyl-C 1-3 -alkylene- or pyridyl-1-oxide-C 1-3 -alkylene-, R 2 denotes C 1-3 -alkyl-, CH 3 -O-(CH 2) p -, or R 5 -C 1-3 -alkylene-, R 3 denotes H, F, Cl or C 1-3 -alkyl-O-, R 4 denotes H, F, Cl or C 1-3 -alkyl-O-, R 5 denotes NC- or tetrahydrofuryl-, R 6 and R 7 denote independently H or C 1-3 -alkyl-, m denotes 2, 3 or 4, n denotes 2, 3, 4 or 5, p denotes 2 or 3, q denotes 3 or 4, Z - denotes a physiologically acceptable anion selected from the group consisting of chloride, bromide, iodide, hydroxide, hydrogensulfate, sulfate, nitrate, phosphate, formiate, acetate, trifluoroacetate, fumarate, citrate, tartrate, oxalate, succinate, mandelate, methanesulfonate and p-toluenesulfonate, z denotes 0 for negatively charged substituents R 1 -R 4, 1 for uncharged substituents R 1 -R 4 or 2 for positively charged substituents R 1 -R 4, and tautomers and the pharmacologically acceptable acid addition salts thereof. X denotes Cl or Br, R 1 denotes (HO-)(C 1-3 -alkyl-)P -O-(CH 2) n -, (R 6 O-)(R 7 O-)P - n -, (R 6 O-)(R 7 O-)P -phenyl-(CH 2) q -, H-(O-CH 2 -CH 2) q -, CH 3 -(O-CH 2 -CH 2) m -, tetrahydrofuryl-C 1-3 -alkylene-, N-acetyl-piperidinyl-, pyridyl-C 1-3 -alkylene- or pyridyl-1-oxide-C 1-3 -alkylene-, R 2 denotes C 1-3 -alkyl-, CH 3 -O-(CH 2) p -, or R 5 -C 1-3 -alkylene-, R 3 denotes H, F, Cl or C 1-3 -alkyl-O-, R 4 denotes H, F, Cl or C 1-3 -alkyl-O-, R 5 denotes NC- or tetrahydrofuryl-, R 6 and R 7 denote independently H or C 1-3 -alkyl-, m denotes 2, 3 or 4, n denotes 2, 3, 4 or 5, p denotes 2 or 3, q denotes 3 or 4, Z - denotes a physiologically acceptable anion selected from the group consisting of chloride, bromide, iodide, hydroxide, hydrogensulfate, sulfate, nitrate, phosphate, formiate, acetate, trifluoroacetate, fumarate, citrate, tartrate, oxalate, succinate, mandelate, methanesulfonate and p-toluenesulfonate, z denotes 0 for negatively charged substituents R 1 -R 4, 1 for uncharged substituents R 1 -R 4 or 2 for positively charged substituents R 1 -R 4,
A method for performing current measurement in a switched-mode power supply, SMPS, having high side and low side switches (104, 106), preferably power transistors or metal oxide semiconductor field effect transistors, MOSFETs, coupled in series between a supply voltage and common, and a power inductor coupled between a junction of the high side and low side switches and a load, said method comprising the steps of: pre-charging a timing capacitor to a predetermined reference voltage; charging the timing capacitor with a first constant current when the high side switch is on before a pulse width modulation, PWM, period reaches 50%; stopping said charging if the high side switch is off before the PWM period reaches 50% or discharging the timing capacitor with the first constant current when a pulse width modulation, PWM, period reaches 50% and the high side switch is on; discharging the timing capacitor with a second constant current when the PWM period reaches 50% and the high side switch is off, wherein the second constant current is twice the first constant current; and sampling the power inductor current when a voltage on the timing capacitor reaches the predetermined reference voltage. pre-charging a timing capacitor to a predetermined reference voltage; charging the timing capacitor with a first constant current when the high side switch is on before a pulse width modulation, PWM, period reaches 50%; stopping said charging if the high side switch is off before the PWM period reaches 50% or discharging the timing capacitor with the first constant current when a pulse width modulation, PWM, period reaches 50% and the high side switch is on; discharging the timing capacitor with a second constant current when the PWM period reaches 50% and the high side switch is off, wherein the second constant current is twice the first constant current; and sampling the power inductor current when a voltage on the timing capacitor reaches the predetermined reference voltage.
A chair with a frame with tubular elements, comprising two inverted V-shaped elements that form the front legs and rear legs, are parallel and are joined substantially at their inner curvature to a rodlike crossmember, two L-shaped elements connected by said crossmember on which they are arranged in a parallel configuration so as to form a support for the back and for the seat, respectively with first substantially vertical portions thereof and second substantially horizontal portions, said chair being characterized in that it is provided with means for locking vertical stacking with similar chairs, provided with two plugs (26, 27), each having a head portion and a stem by means of which it closes the tubular element of the crossmember, entering a respective open end at the side of the chair.
A method for manufacturing monosaccharides, oligosaccharides, and furfurals comprising: subjecting a biomass to primary hydrolysis under pressurization and heating conditions under which monosaccharides, oligosaccharides, and/or furfurals are produced while continuously supplying an aqueous suspension of a raw material suspension of the biomass from a supply port of a continuous primary hydrolysis device and moving the biomass suspension through the device, continuously discharging the primary hydrolysis suspension from a discharge port of the continuous primary hydrolysis device, and continuously extracting the primary hydrolysis solution separated from the primary hydrolysis suspension in the device from an intermediate extraction port equipped with a solid-liquid separation device provided at any position between the supply port and the discharge port of the continuous primary hydrolysis device in a state in which the temperature and pressurization of primary hydrolysis are maintained.
Device for determining the mechanical properties of an underwater bottom, comprising: - a support frame which provides a fixed support relative to an underwater bottom; - means for carrying the support frame onto the underwater bottom; - a pressure plate accommodated in the support frame; - pressing means for pressing the pressure plate against the underwater bottom with a force without urging it into the bottom, - means for measuring the displacement of the pressure plate during pressing; and - computing means for determining mechanical properties of the underwater bottom from the measured displacement and the force. - a support frame which provides a fixed support relative to an underwater bottom; - means for carrying the support frame onto the underwater bottom; - a pressure plate accommodated in the support frame; - pressing means for pressing the pressure plate against the underwater bottom with a force without urging it into the bottom, - means for measuring the displacement of the pressure plate during pressing; and - computing means for determining mechanical properties of the underwater bottom from the measured displacement and the force.
An optical communication system including: an optical transmitter configured to output an optical signal, the optical transmitter including an erbium-doped fiber amplifier, EDFA,; and one or more processors operatively coupled to the optical transmitter, the one or more processors being configured to: receive optical signal data related to a received power for a communication link from a remote communication system; determine that the optical signal data is likely to fall below a minimum received power within a time interval; in response to the determination that the optical signal data is likely to fall below the minimum received power within the time interval, determine a duty cycle of the optical transmitter based on a minimum on-cycle length and a predicted EDFA output power; and operate the optical transmitter using the determined duty cycle to transmit the optical signal on the communication link. an optical transmitter configured to output an optical signal, the optical transmitter including an erbium-doped fiber amplifier, EDFA,; and one or more processors operatively coupled to the optical transmitter, the one or more processors being configured to: receive optical signal data related to a received power for a communication link from a remote communication system; determine that the optical signal data is likely to fall below a minimum received power within a time interval; in response to the determination that the optical signal data is likely to fall below the minimum received power within the time interval, determine a duty cycle of the optical transmitter based on a minimum on-cycle length and a predicted EDFA output power; and operate the optical transmitter using the determined duty cycle to transmit the optical signal on the communication link. receive optical signal data related to a received power for a communication link from a remote communication system; determine that the optical signal data is likely to fall below a minimum received power within a time interval; in response to the determination that the optical signal data is likely to fall below the minimum received power within the time interval, determine a duty cycle of the optical transmitter based on a minimum on-cycle length and a predicted EDFA output power; and operate the optical transmitter using the determined duty cycle to transmit the optical signal on the communication link.
A hydraulic torque converter transmission system for a dynamic compactor, comprising: an engine, a hydraulic torque converter, and a winch; a power of the engine is transmitted to the winch by means of the hydraulic torque converter, characterized in that the hydraulic torque converter transmission system further comprises a transfer case, a gearbox, a transmission case, and a reduction gearbox, a part of the power of the engine is arranged to be transmitted to the hydraulic torque converter through the transfer case, and another part of the power of the engine is arranged to be transmitted to a hydraulic pump through the transfer case; an output power is arranged to be transmitted to the transmission case through the gearbox, and the output power of the transmission case is arranged to be driven by the reduction gearbox to rotate the winch; an output shaft of the engine is along an X-axis directional arrangement, a winch rotating shaft is arranged along a Y-axis direction; the engine, the transfer case, the hydraulic torque converter, the gearbox, and the transmission case are arranged on a left or right side of the winch and the reduction gearbox is arranged along the X-axis direction; an input shaft of the transmission case is arranged along the X-axis direction, and an output shaft of the transmission case is arranged along the Y-axis direction; the engine, the transfer case, the hydraulic torque converter, the gearbox, the transmission case, the reduction gearbox, and the winch are separate units.
A method of operating a tamping unit of a track maintenance machine, comprising the steps: - providing the track maintenance machine with the tamping unit on a track bed, - accelerating at least a part (18, 24) of the tamping unit, - recording at least one measuring value ( a, α, p, s) correlating to the acceleration, and - determining a damage condition of the tamping unit by means of the at least one measuring value ( a, α, p, s), characterized in that, by means of the at least one measuring value ( a, α, p, s), a damage condition of a tamping tine for interaction with the track bed is determined. - providing the track maintenance machine with the tamping unit on a track bed, - accelerating at least a part (18, 24) of the tamping unit, - recording at least one measuring value ( a, α, p, s) correlating to the acceleration, and - determining a damage condition of the tamping unit by means of the at least one measuring value ( a, α, p, s),