mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a group-III nitride compound semiconductor light-emitting device, comprising: a step of forming on a substrate a semiconductor layer made of a group-III nitride compound semiconductor including Ga as a group-III element using a sputtering method, at a deposition rate of 0.01-10 nm/s, wherein when the semiconductor layer is formed, the degree of vacuum of a chamber for sputtering is set to be lower than 1.0 x 10 -3 Pa in advance, and a raw material is supplied into the chamber, and the substrate and a sputtering target are arranged so as to face each other, a gap between the substrate and the sputtering target is in the range of 30 to 50 mm, the internal pressure of the chamber is at least 0.3 Pa, a bias of not less than 0.1 W/cm 2 is applied to the substrate, and the sputtering method is performed under a substrate temperature of 500 to 800 °C, wherein a buffer layer made of a columnar crystal is formed between the substrate and the semiconductor layer. a step of forming on a substrate a semiconductor layer made of a group-III nitride compound semiconductor including Ga as a group-III element using a sputtering method, at a deposition rate of 0.01-10 nm/s, wherein when the semiconductor layer is formed, the degree of vacuum of a chamber for sputtering is set to be lower than 1.0 x 10 -3 Pa in advance, and a raw material is supplied into the chamber, and the substrate and a sputtering target are arranged so as to face each other, a gap between the substrate and the sputtering target is in the range of 30 to 50 mm, the internal pressure of the chamber is at least 0.3 Pa, a bias of not less than 0.1 W/cm 2 is applied to the substrate, and the sputtering method is performed under a substrate temperature of 500 to 800 °C, wherein a buffer layer made of a columnar crystal is formed between the substrate and the semiconductor layer.
A method performed by a priority handling module (110, 210) in a communication network (100, 200), the method comprising; - receiving a request for configuration or re-configuration of a priority rule associated with a data flow in the communications system, the request comprising a priority sharing identifier, - calculating priority parameters of the communication system based on the received request, - identifying other data flows in the communication system which are associated with the priority sharing identifier, and - determining a shared priority parameter based on the request for configuration or re-configuration and on an existing priority configuration of any identified other data flows in the communication system associated with said priority sharing identifier. - receiving a request for configuration or re-configuration of a priority rule associated with a data flow in the communications system, the request comprising a priority sharing identifier, - calculating priority parameters of the communication system based on the received request, - identifying other data flows in the communication system which are associated with the priority sharing identifier, and - determining a shared priority parameter based on the request for configuration or re-configuration and on an existing priority configuration of any identified other data flows in the communication system associated with said priority sharing identifier.
A method for performing access to a medium by a station, STA, in a wireless communication system, the method comprising: checking a Restricted Access Window, RAW, Assignment field contained in a RAW Parameter Set, RPS, element of a beacon frame; and performing the access in a slot determined based on a subfield of the RAW Assignment field when the STA belongs to a RAW group related to the RAW Assignment field, wherein whether or not the STA belongs to the RAW group is determined depending on whether or not an association identifier, AID, of the STA is within an AID range, wherein, when the RAW Assignment field is a first RAW Assignment field of the RPS element, the RAW Assignment field comprises a subfield indicating whether the AID range is determined by a traffic indication map, TIM, bitmap or a RAW Group subfield related to the RAW Assignment field, wherein when the subfield of the RAW Assignment field indicates that the AID range is determined by the TIM bitmap, the RAW Assignment field does not comprise the RAW Group subfield. checking a Restricted Access Window, RAW, Assignment field contained in a RAW Parameter Set, RPS, element of a beacon frame; and performing the access in a slot determined based on a subfield of the RAW Assignment field when the STA belongs to a RAW group related to the RAW Assignment field, wherein whether or not the STA belongs to the RAW group is determined depending on whether or not an association identifier, AID, of the STA is within an AID range, wherein, when the RAW Assignment field is a first RAW Assignment field of the RPS element, the RAW Assignment field comprises a subfield indicating whether the AID range is determined by a traffic indication map, TIM, bitmap or a RAW Group subfield related to the RAW Assignment field, wherein when the subfield of the RAW Assignment field indicates that the AID range is determined by the TIM bitmap, the RAW Assignment field does not comprise the RAW Group subfield.
A low corrosion peroxycarboxylic acid composition comprising: 0.0001 to 0.2 wt-% peroxycarboxylic acid; 1 to 5 wt-% hydrogen peroxide; 0.01 to 5 wt-% medium chain mono carboxylic acid having the formula R-COOH wherein R is a C 5 -C 11 alkyl group, a C 5 -C 11 cycloalkyl group, a C 5 -C 11 arylalkyl group, C 5 -C 11 aryl group, or a C 5 -C 11 heterocyclic group; or benzoic acid or ring substituted benzoic acid, 0.01 to 2 wt-% buffer; and 0.01 to 0.25 wt-% triazole corrosion inhibitor; wherein: the composition is free of added mineral acid; the pH of the composition is 1 to 4. 0.0001 to 0.2 wt-% peroxycarboxylic acid; 1 to 5 wt-% hydrogen peroxide; 0.01 to 5 wt-% medium chain mono carboxylic acid having the formula R-COOH wherein R is a C 5 -C 11 alkyl group, a C 5 -C 11 cycloalkyl group, a C 5 -C 11 arylalkyl group, C 5 -C 11 aryl group, or a C 5 -C 11 heterocyclic group; or benzoic acid or ring substituted benzoic acid, 0.01 to 2 wt-% buffer; and 0.01 to 0.25 wt-% triazole corrosion inhibitor; wherein: the composition is free of added mineral acid; the pH of the composition is 1 to 4. the composition is free of added mineral acid; the pH of the composition is 1 to 4.
A glove comprising a glove main body for covering wearer's hand, the glove main body comprising nitrile-butadiene rubber as a principal component, characterized in that the glove main body comprises zinc oxide, a vulcanizing agent, a vulcanization accelerating agent, and a cross-linked product from the nitrile-butadiene rubber and polycarbodiimide; a mass ratio of the polycarbodiimide to the nitrile-butadiene rubber is no less than 0.003 and no greater than 0.1; a mass ratio of the zinc oxide to the nitrile-butadiene rubber is no less than 0.010 and no greater than 0.05; and a methyl ethyl ketone-absorption capacity of the glove main body is no greater than 25 times the glove main body on a mass basis; and a percentage content of a methyl ethyl ketone-insoluble matter in the glove main body is no less than 65 % by mass.
Process for obtaining an extract E B comprising flavourings from berries B selected from among juniper berries, seabuckthorn berries, rosehips, Sorbus, wherein a. the comminuted or non-comminuted berries B are extracted with supercritical CO 2 without addition of a cosolvent, giving a solid extraction residue B Ex and a first extract comprising supercritical CO 2 and flavourings; b. at least some of the CO 2 is removed from the first extract obtained in step a., which gives a second extract which comprises the flavourings and an amount of CO 2 which is reduced in comparison with the first extract; c. the second extract, which is obtained in step b., is extracted with at least one extractant selected from the group consisting of alkane, chlorinated alkane, alcohol, alkane carboxylic ester, aliphatic ketone, aliphatic ether, which gives the extract E B. a. the comminuted or non-comminuted berries B are extracted with supercritical CO 2 without addition of a cosolvent, giving a solid extraction residue B Ex and a first extract comprising supercritical CO 2 and flavourings; b. at least some of the CO 2 is removed from the first extract obtained in step a., which gives a second extract which comprises the flavourings and an amount of CO 2 which is reduced in comparison with the first extract; c. the second extract, which is obtained in step b., is extracted with at least one extractant selected from the group consisting of alkane, chlorinated alkane, alcohol, alkane carboxylic ester, aliphatic ketone, aliphatic ether, which gives the extract E B.
A mounting system for attaching at least one luminaire to a ceiling or wall element, comprising: - a support plate with an outlet opening, wherein the support plate has a visible side and an installation side facing away from the visible side; - a plate shaped cooling element which is arranged on the installation side of the support plate; - a mounting element for receiving and releasably locking a luminaire in order to contact a circuit board of the luminaire with the cooling element; - wherein the mounting element comprises a base section and a receiving extension extending away from the base section along a longitudinal axis, - wherein the base section is attached to the cooling element and the receiving extension is guided at least in sections through the outlet opening of the support plate, characterized in that - the support plate is connected to the cooling element via spacing means, - wherein the spacing means are designed in such a way that the cooling element can be positioned along the longitudinal axis relative to the support plate by an actuation of the spacing means, - such that an overhang of the receiving extension projecting out of the outlet opening of the support plate onto the visible side can be varied, - wherein the spacing means are actuatable from the visible side of the support plate. - a support plate with an outlet opening, wherein the support plate has a visible side and an installation side facing away from the visible side; - a plate shaped cooling element which is arranged on the installation side of the support plate; - a mounting element for receiving and releasably locking a luminaire in order to contact a circuit board of the luminaire with the cooling element; - wherein the mounting element comprises a base section and a receiving extension extending away from the base section along a longitudinal axis, - wherein the base section is attached to the cooling element and the receiving extension is guided at least in sections through the outlet opening of the support plate, - the support plate is connected to the cooling element via spacing means, - wherein the spacing means are designed in such a way that the cooling element can be positioned along the longitudinal axis relative to the support plate by an actuation of the spacing means, - such that an overhang of the receiving extension projecting out of the outlet opening of the support plate onto the visible side can be varied, - wherein the spacing means are actuatable from the visible side of the support plate.
A signal feedback apparatus, comprising: a base; a telesignaling linkage member moveably installed on the base; a sliding plate installed corresponding to the telesignaling linkage member and configured to generate a movement along with the telesignaling linkage member; and a switch module comprising a microswitch; the microswitch arranged corresponding to the sliding plate and configured to operably open or close the microswitch based on the movement of the sliding plate, characterized in that the sliding plate includes a rectangular hole and a notch formed thereon, the telesignaling linkage member comprises two linkage shafts, and the linkage shafts penetrate through the rectangular hole and the notch respectively, wherein the rectangular hole and the notch include a driven oblique surface formed a side wall thereof respectively, the linkage shafts include a driving oblique surface formed thereon respectively, and each one of the driving oblique surfaces engages with each one of the corresponding driven oblique surfaces. a base; a telesignaling linkage member moveably installed on the base; a sliding plate installed corresponding to the telesignaling linkage member and configured to generate a movement along with the telesignaling linkage member; and a switch module comprising a microswitch; the microswitch arranged corresponding to the sliding plate and configured to operably open or close the microswitch based on the movement of the sliding plate, characterized in that the sliding plate includes a rectangular hole and a notch formed thereon, the telesignaling linkage member comprises two linkage shafts, and the linkage shafts penetrate through the rectangular hole and the notch respectively, wherein the rectangular hole and the notch include a driven oblique surface formed a side wall thereof respectively, the linkage shafts include a driving oblique surface formed thereon respectively, and each one of the driving oblique surfaces engages with each one of the corresponding driven oblique surfaces.
An apparatus for providing reduced-pressure treatment, the apparatus comprising: a piston chamber having a closed end; a piston disposed within the piston chamber and being movable between a charged position and a discharged position; a charging chamber defined between the piston and the closed end; a biasing member between the piston and the closed end to bias the piston toward the discharged position; a valve member configured to allow fluid to exit the charging chamber as the piston moves toward the charged position and to prevent fluid from entering the charging chamber as the piston moves toward the discharged position; a regulated chamber fluidly coupled to an outlet port; a passage between the regulated chamber and the charging chamber; and a regulator configured to regulate fluid communication through the passage; wherein the regulator comprises a valve body and a regulator spring engaged with the valve body to bias the valve body against a differential between ambient pressure and pressure in the regulated chamber. a piston chamber having a closed end; a piston disposed within the piston chamber and being movable between a charged position and a discharged position; a charging chamber defined between the piston and the closed end; a biasing member between the piston and the closed end to bias the piston toward the discharged position; a valve member configured to allow fluid to exit the charging chamber as the piston moves toward the charged position and to prevent fluid from entering the charging chamber as the piston moves toward the discharged position; a regulated chamber fluidly coupled to an outlet port; a passage between the regulated chamber and the charging chamber; and a regulator configured to regulate fluid communication through the passage; wherein the regulator comprises a valve body and a regulator spring engaged with the valve body to bias the valve body against a differential between ambient pressure and pressure in the regulated chamber.
Turbine system for wind power, comprising at least two radial flow turbines (1, 2) which have a rotor that can rotate about a vertical shaft and comprises one or more turbine blades, the turbine blades being oriented in parallel with the rotor shaft, a V-shaped wind splitter (3, 305) being provided which is oriented in parallel with the rotor shafts, characterised in that the V-shaped wind splitter (3, 305) comprises a wind passage which is open below a predefined wind speed and closed above the predefined wind speed.
A flowtube assembly for a magnetic flowmeter, comprising: a flowtube configured to receive a flow of process fluid therethrough; a magnetic core (152, 162) mounted on an outer surface of the flowtube, the magnetic core (152, 162) including a stem extending from the flowtube and a spool having a plurality of magnetic windings (164, 166), the spool being disposed about the stem and spacing the plurality of windings (164, 166) from the flowtube, characterized in that the stem extends transversely from the flowtube to a pair of arms (153, 155), each arm extending away from the stem laterally in opposite directions from each other along the flow tube axis. a flowtube configured to receive a flow of process fluid therethrough; a magnetic core (152, 162) mounted on an outer surface of the flowtube, the magnetic core (152, 162) including a stem extending from the flowtube and a spool having a plurality of magnetic windings (164, 166), the spool being disposed about the stem and spacing the plurality of windings (164, 166) from the flowtube, characterized in that the stem extends transversely from the flowtube to a pair of arms (153, 155), each arm extending away from the stem laterally in opposite directions from each other along the flow tube axis.
An apparatus comprising: a microphone having a sensing element; a casing surrounding the microphone and having an opening that admits sound to the sensing element in a first direction; a spark director comprising: a first portion spaced away from the casing in a direction opposite the first direction; and a second portion extending from the first portion towards the casing and terminating in a tip separated from the casing by an air gap; wherein an electric charge in the first portion of the spark director will be discharged by the second portion of the spark director through the air gap into the casing at a location other than at the opening. a microphone having a sensing element; a casing surrounding the microphone and having an opening that admits sound to the sensing element in a first direction; a spark director comprising: a first portion spaced away from the casing in a direction opposite the first direction; and a second portion extending from the first portion towards the casing and terminating in a tip separated from the casing by an air gap; a first portion spaced away from the casing in a direction opposite the first direction; and a second portion extending from the first portion towards the casing and terminating in a tip separated from the casing by an air gap; wherein an electric charge in the first portion of the spark director will be discharged by the second portion of the spark director through the air gap into the casing at a location other than at the opening.
A coating composition, comprising: a) a first liquid, b) a first polymer dispersed in the first liquid comprising a mixture of a first ethylene copolymer and a second ethylene copolymer, the mean particle size of the mixture being in the range of from 400 to 1200 nanometers; and c) a second polymer dispersed in the first liquid, said second polymer being selected from the group consisting of an ethylene-acrylic acid copolymer, an ionized salt of the ethylene-acrylic acid copolymer, an ethylene-methacrylic acid copolymer, an ionized salt of the ethylene-methacrylic acid copolymer, and mixtures thereof having a mean particle size of less than 50 nanometers and comprising at least 5 wt% of the total combined weight of the first polymer and the second polymer. a) a first liquid, b) a first polymer dispersed in the first liquid comprising a mixture of a first ethylene copolymer and a second ethylene copolymer, the mean particle size of the mixture being in the range of from 400 to 1200 nanometers; and c) a second polymer dispersed in the first liquid, said second polymer being selected from the group consisting of an ethylene-acrylic acid copolymer, an ionized salt of the ethylene-acrylic acid copolymer, an ethylene-methacrylic acid copolymer, an ionized salt of the ethylene-methacrylic acid copolymer, and mixtures thereof having a mean particle size of less than 50 nanometers and comprising at least 5 wt% of the total combined weight of the first polymer and the second polymer.
An output conversion circuit, comprising: a comparator, comprising: a first input end, configured to receive a first output signal; a second input end; and an output end, configured to generate a comparison output signal; a counter, connected to the output end of the comparator, and configured to count an accumulative result of the comparison output signal to generate a second output signal; and a reference signal generator, connected to the second input end, and configured to generate a reference signal, wherein the reference signal generator comprises a control circuit configured to generate a digital fixed voltage, a random digit generator configured to generate a digital random digit and an adder configured to add the digital fixed voltage to the digital random digit so that the reference signal is related to a sum of the digital fixed voltage and the digital random digit, wherein the reference signal is a signal that varies randomly with time, and the random digit is in uniform distribution; wherein the comparator generates the comparison output signal according to the first output signal and the reference signal; wherein the reference signal generator further comprises a digital-to-analog converter, configured to convert the sum of the reference voltage and the digital random digit into an analog reference signal. a comparator, comprising: a first input end, configured to receive a first output signal; a second input end; and an output end, configured to generate a comparison output signal; a first input end, configured to receive a first output signal; a second input end; and an output end, configured to generate a comparison output signal; a counter, connected to the output end of the comparator, and configured to count an accumulative result of the comparison output signal to generate a second output signal; and a reference signal generator, connected to the second input end, and configured to generate a reference signal, wherein the reference signal generator comprises a control circuit configured to generate a digital fixed voltage, a random digit generator configured to generate a digital random digit and an adder configured to add the digital fixed voltage to the digital random digit so that the reference signal is related to a sum of the digital fixed voltage and the digital random digit, wherein the reference signal is a signal that varies randomly with time, and the random digit is in uniform distribution; wherein the comparator generates the comparison output signal according to the first output signal and the reference signal; wherein the reference signal generator further comprises a digital-to-analog converter, configured to convert the sum of the reference voltage and the digital random digit into an analog reference signal.