mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a wireless device, one or more configuration parameters indicating a reference of a start-and-length-indicator value, SLIV; characterised by: receiving, via a first monitoring occasion of monitoring occasions of a time slot, a repetition of downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, reception with a PDSCH mapping Type B; and in response to the one or more configuration parameters indicating the reference of the SLIV, receiving the PDSCH reception based on a starting symbol of a second monitoring occasion with a latest starting time among starting times of the monitoring occasions. receiving, via a first monitoring occasion of monitoring occasions of a time slot, a repetition of downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, reception with a PDSCH mapping Type B; and in response to the one or more configuration parameters indicating the reference of the SLIV, receiving the PDSCH reception based on a starting symbol of a second monitoring occasion with a latest starting time among starting times of the monitoring occasions.
A mechanical system, forming a cam follower or a rocker arm, the mechanical system comprising: - a support element; - a pin extending between two opposite ends along a first axis and supported by the support element; and - a roller movable in rotation relative to the pin around the first axis and adapted to roll on a cam; wherein the support element includes an inner cavity in which the roller is at least partially arranged and which is adapted to contain an oil bath for lubricating the roller, characterized in that - the support element includes an overflow ledge for conveying a downstream oil flow outside the inner cavity of the support element, and - the overflow ledge is located set back in the inner cavity relative to an edge of the support element. - a support element; - a pin extending between two opposite ends along a first axis and supported by the support element; and - a roller movable in rotation relative to the pin around the first axis and adapted to roll on a cam; - the support element includes an overflow ledge for conveying a downstream oil flow outside the inner cavity of the support element, and - the overflow ledge is located set back in the inner cavity relative to an edge of the support element.
Pump unit for reducing agents of an exhaust gas purification system for an internal combustion engine of a motor vehicle having a diaphragm (10, 20) which is arranged on a diaphragm carrier (9, 30), and having a pump housing (2, 19) for securing a radially outer collar (11, 12, 24, 25) of the diaphragm (10, 20), characterized in that the diaphragm (10, 20) is of annular configuration, the diaphragm (10, 20) having two radially outer collars (11, 12, 24, 25) which are spaced apart axially with respect to one another and the collars (11, 12, 24, 25) of the diaphragm (10, 20) each having a reinforcing ring (15, 16, 28, 29).
A process for forming an asymmetric hollow fiber carbon membrane using precursor pre-treatment comprising: providing an aromatic imide polymer precursor; pre-treating at least a portion of the polymer precursor by contacting the polymer precursor with a modifying agent comprising a silane having the formula R 1 R 2 R 3 R 4 Si, where each of R 1, R 2, R 3, and R 4 are independently vinyl, C 1 -C 6 alkyl, -O-alkyl, or halide, with the proviso that the silane contain at least one vinyl group and at least one -O-alkyl or halide; and subjecting the pre-treated polymer precursor to pyrolysis; wherein the step of pre-treating at least a portion of the polymer precursor provides at least a 300% increase in the gas permeance of the carbon membrane in contrast to the carbon membrane without precursor pre-treatment, measured with pure at 689 kPa (100 psia) and 35 °C. providing an aromatic imide polymer precursor; pre-treating at least a portion of the polymer precursor by contacting the polymer precursor with a modifying agent comprising a silane having the formula R 1 R 2 R 3 R 4 Si, where each of R 1, R 2, R 3, and R 4 are independently vinyl, C 1 -C 6 alkyl, -O-alkyl, or halide, with the proviso that the silane contain at least one vinyl group and at least one -O-alkyl or halide; and subjecting the pre-treated polymer precursor to pyrolysis; wherein the step of pre-treating at least a portion of the polymer precursor provides at least a 300% increase in the gas permeance of the carbon membrane in contrast to the carbon membrane without precursor pre-treatment, measured with pure at 689 kPa (100 psia) and 35 °C.
An optical device comprising: a layered structure including a recess-forming layer with light-transmitting property, a main surface of which includes one or more recess-forming regions each provided with first grooves equal in longitudinal directions to one another and adjacent to one another in a direction crossing the longitudinal directions, the first grooves in at least one of said one ore more recess-forming regions forming a diffraction grating, and a liquid crystal layer supported by the main surface and made of a solidified liquid crystal material and a first reflection layer facing the layered structure, and characterized by having a light-scattering property. a layered structure including a recess-forming layer with light-transmitting property, a main surface of which includes one or more recess-forming regions each provided with first grooves equal in longitudinal directions to one another and adjacent to one another in a direction crossing the longitudinal directions, the first grooves in at least one of said one ore more recess-forming regions forming a diffraction grating, and a liquid crystal layer supported by the main surface and made of a solidified liquid crystal material and a first reflection layer facing the layered structure, and characterized by having a light-scattering property.
An apparatus for providing a user interface for file transmission, the apparatus comprising: a motion recognition module to recognize a motion input to the user interface and to identify a position of the recognized motion, wherein the input motion comprises a touch, a drag, and a scroll on a touch screen using an object, or a click, a drag, and a scroll in a personal computer, PC, using a mouse; a motion execution module to execute a motion corresponding to the recognized motion and the identified position of the recognized motion by modifying components of the user interface according to the executed motion; and a communication module to transmit files to transmission targets based on the recognized motion and the identified position of the recognized motion, wherein the components of the user interface comprise: a file list region from which files to be transmitted are selected; a transmission target region from which transmission targets are selected, wherein transmission targets comprise at least one address of a group of address types comprising telephone numbers and e-mail addresses; CHARACTERISED IN THAT components of the user interface further comprise an execution region to which selected files and selected transmission targets are moved; wherein the communication module transmits the selected files to the selected transmission targets when the motion execution module recognizes the files to be transmitted being dragged as a group in the execution region to the group of transmission targets, or the transmission targets being dragged as a group in the execution region to the group of files to be transmitted. a motion recognition module to recognize a motion input to the user interface and to identify a position of the recognized motion, wherein the input motion comprises a touch, a drag, and a scroll on a touch screen using an object, or a click, a drag, and a scroll in a personal computer, PC, using a mouse; a motion execution module to execute a motion corresponding to the recognized motion and the identified position of the recognized motion by modifying components of the user interface according to the executed motion; and a communication module to transmit files to transmission targets based on the recognized motion and the identified position of the recognized motion, a file list region from which files to be transmitted are selected; a transmission target region from which transmission targets are selected, wherein transmission targets comprise at least one address of a group of address types comprising telephone numbers and e-mail addresses; CHARACTERISED IN THAT components of the user interface further comprise an execution region to which selected files and selected transmission targets are moved; wherein the communication module transmits the selected files to the selected transmission targets when the motion execution module recognizes the files to be transmitted being dragged as a group in the execution region to the group of transmission targets, or the transmission targets being dragged as a group in the execution region to the group of files to be transmitted.
A poly(vinyl acetal) polymeric sheet having at least one textured outer surface, wherein the textured surface is characterized by: a. an Mr2/Mr1 ratio of 3 to 10, as determined by ISO 13565-2 b. a surface roughness, Rz, of 20μm to 60 μm; c. an Sdr value of greater than equal to 0.05 and less than 0.414, as determined by ISO 25178; d. an Rsm value of 230 μm to 600 μm; and e. a surface retention value (Rz2/Rz1) at 100°C of less than 85% Rz, Rsm and Rz2/Rz1 being measured according to DIN 4776 using the Mahr Perthometer S3P v 2.5 instrument. a. an Mr2/Mr1 ratio of 3 to 10, as determined by ISO 13565-2 b. a surface roughness, Rz, of 20μm to 60 μm; c. an Sdr value of greater than equal to 0.05 and less than 0.414, as determined by ISO 25178; d. an Rsm value of 230 μm to 600 μm; and e. a surface retention value (Rz2/Rz1) at 100°C of less than 85% Rz, Rsm and Rz2/Rz1 being measured according to DIN 4776 using the Mahr Perthometer S3P v 2.5 instrument.
A swimming pool structure that can be an above-ground, semi-inground or inground swimming pool, including: suspension struts each extending vertically, vertical outer walls which are fixed between the suspension struts, a peripheral upper coping, said structure further including at least one horizontal intermediate supporting joist, which is mechanically fixed on an upper portion of at least two of the suspension struts and which connects them together and, the coping being fixed on the joist, characterized in that the joist is spaced apart from the walls. suspension struts each extending vertically, vertical outer walls which are fixed between the suspension struts, a peripheral upper coping, said structure further including at least one horizontal intermediate supporting joist, which is mechanically fixed on an upper portion of at least two of the suspension struts and which connects them together and, the coping being fixed on the joist, characterized in that the joist is spaced apart from the walls.
A method for measuring the components and calorific value of a coal gas comprising 6 components being CO, CO 2, CH 4, C n H m, H 2 and O 2 with a range of up to 40% CO, 30% CO 2, 20% CH 4, 5% C n H m, 20% H 2 and 25% O 2, comprising the steps of: - measuring a volume concentration of H 2 (T H2) in the coal gas by using a thermal conductivity detector, - measuring a volume concentration of O 2 in the coal gas using an electrochemical detector, and - calculating the calorific value of the coal gas via measured and revised volume concentrations of various gases; the method further comprising the following steps: 1) measuring volume concentrations of CO, CO 2, CH 4, and C n H m in the coal gas, represented by T CO, T CO2, T CH4, and T CnHm, respectively, in the coal gas using non-dispersive infrared (NDIR) technology; 2) calculating a revised volume concentration of C n H m (R CnHm) using the equation R CnHm = T CnHm -A×T CH4, in which T CnHm and T CH4 represent the volume concentrations of C n H m and CH 4 measured with NDIR, respectively, and A is 0.02868; 3) calculating a revised volume concentration of H 2 (R H2) using the equation R H2 = T H2 -a×(T CH4 +R CnHm)-b×T CO2, in which, T H2 represents the measured volume concentration of H 2 using TCD, T CH4 and T CO2 represent the volume concentrations of CH 4 and CO 2 measured using NDIR, respectively, a is 0.13989 and b is -0.11026 and R CnHm is the revised volume concentration obtained in step 2); and 4) calculating the calorific value of the coal gas using the equation Q =T CO × 12.64+ R H2 × 18.79 + T CH4 ×35.88 + R CnHm ×93.18, in which, T CO and T CH4 represent the measured volume concentrations and R H2 and R CnHm represent the revised volume concentrations. - measuring a volume concentration of H 2 (T H2) in the coal gas by using a thermal conductivity detector, - measuring a volume concentration of O 2 in the coal gas using an electrochemical detector, and - calculating the calorific value of the coal gas via measured and revised volume concentrations of various gases; 1) measuring volume concentrations of CO, CO 2, CH 4, and C n H m in the coal gas, represented by T CO, T CO2, T CH4, and T CnHm, respectively, in the coal gas using non-dispersive infrared (NDIR) technology; 2) calculating a revised volume concentration of C n H m (R CnHm) using the equation R CnHm = T CnHm -A×T CH4, in which T CnHm and T CH4 represent the volume concentrations of C n H m and CH 4 measured with NDIR, respectively, and A is 0.02868; 3) calculating a revised volume concentration of H 2 (R H2) using the equation R H2 = T H2 -a×(T CH4 +R CnHm)-b×T CO2, in which, T H2 represents the measured volume concentration of H 2 using TCD, T CH4 and T CO2 represent the volume concentrations of CH 4 and CO 2 measured using NDIR, respectively, a is 0.13989 and b is -0.11026 and R CnHm is the revised volume concentration obtained in step 2); and 4) calculating the calorific value of the coal gas using the equation Q =T CO × 12.64+ R H2 × 18.79 + T CH4 ×35.88 + R CnHm ×93.18, in which, T CO and T CH4 represent the measured volume concentrations and R H2 and R CnHm represent the revised volume concentrations.
A breath-sample container comprising: an inlet for receiving a breath sample; a wall at least partially defining a chamber for containing the breath sample; and a valve between the inlet and the chamber, in fluid communication with the inlet and the chamber, the valve configurable between at least: a first open configuration for flow of breath sample from the inlet to the chamber up to a first flow rate; a second open configuration for flow of breath sample from the inlet to the chamber at a second flow rate greater than the first flow rate; characterised in that, once the valve has been configured in the second open configuration, the valve cannot then reconfigure itself to the first open configuration. an inlet for receiving a breath sample; a wall at least partially defining a chamber for containing the breath sample; and a valve between the inlet and the chamber, in fluid communication with the inlet and the chamber, the valve configurable between at least: a first open configuration for flow of breath sample from the inlet to the chamber up to a first flow rate; a second open configuration for flow of breath sample from the inlet to the chamber at a second flow rate greater than the first flow rate; a first open configuration for flow of breath sample from the inlet to the chamber up to a first flow rate; a second open configuration for flow of breath sample from the inlet to the chamber at a second flow rate greater than the first flow rate; characterised in that, once the valve has been configured in the second open configuration, the valve cannot then reconfigure itself to the first open configuration.
A method for controlling a variable-geometry mechanism for a compressor, the VG mechanism being located such that fluid passing through the VG mechanism also passes through and is compressed by the compressor, the VG mechanism being adjustable to adjust an effective flow area for the fluid that passes through the VG mechanism and through the compressor, the VG mechanism being adjustable between a minimum flow area setpoint and a maximum flow area setpoint and being adjustable to at least one intermediate flow area setpoint between the minimum and the maximum flow area setpoints, the method comprising: predefining a VG setpoint map comprising optimum VG setpoints over a range of compressor pressure ratios and over a range of compressor corrected flow rates, each VG setpoint corresponding to a unique operating point location on a compressor map for the compressor, and being optimized based on at least one predefined optimization criterion for the compressor; determining a location of an operating point of the compressor on the compressor map; consulting the VG setpoint map based on the location of the operating point so as to determine an optimum VG setpoint for the VG mechanism; and adjusting the VG mechanism to the optimum VG setpoint, characterised in that VG setpoints in a first region of the compressor map are optimized based on a first optimization criterion, and VG setpoints in a second region of the compressor map are optimized based on a second optimization criterion. predefining a VG setpoint map comprising optimum VG setpoints over a range of compressor pressure ratios and over a range of compressor corrected flow rates, each VG setpoint corresponding to a unique operating point location on a compressor map for the compressor, and being optimized based on at least one predefined optimization criterion for the compressor; determining a location of an operating point of the compressor on the compressor map; consulting the VG setpoint map based on the location of the operating point so as to determine an optimum VG setpoint for the VG mechanism; and adjusting the VG mechanism to the optimum VG setpoint,
A lubricating oil distributor for a mechanical reduction gear of a turbomachine, in particular of an aircraft, this distributor having a body of generally annular shape around an axis and comprising independent oil circuits (23, 20) which are formed in the body, said circuits comprise: - an oil recovery circuit configured and dedicated to recover oil, and comprising several first oil inlets distributed over the body around said axis and connected by an first annular chamber to at least one first oil outlet, and - an oil supply circuit configured and dedicated to supply oil in particular to toothing of the reduction gear, and comprising a second oil inlet connected by a second annular chamber to several second oil outlets distributed on the body around said axis, the first and second annular chambers (23b, 20b) extending circumferentially around the axis at different diameters, characterized in that the oil recovery and supply circuit (23, 20) being independent so that the oil recovery is not hindered by the oil supply, and vice versa. - an oil recovery circuit configured and dedicated to recover oil, and comprising several first oil inlets distributed over the body around said axis and connected by an first annular chamber to at least one first oil outlet, and - an oil supply circuit configured and dedicated to supply oil in particular to toothing of the reduction gear, and comprising a second oil inlet connected by a second annular chamber to several second oil outlets distributed on the body around said axis, the first and second annular chambers (23b, 20b) extending circumferentially around the axis at different diameters,
A brewing unit for the production of a beverage, comprising: - a brewing chamber comprising at least two brewing chamber portions (215B, 227; 321, 323; 421, 423) movable one with respect to the other; - a flow through water heater (207; 315; 403) comprising an electric resistor (209; 315C; 411) and a water heating duct (211; 315D; 413); - a hot water feeding duct for feeding hot water from said water heating duct into said brewing chamber; - a beverage dispensing duct (219; 334; 434) from which said beverage is dispensed; wherein said water heater has a body (207B; 315B; 403B) made of heat-conductive material and surrounding a cavity (207C; 315E; 403C) through which said beverage dispensing duct extends for connection to an outer beverage dispensing spout (5; 5A); wherein said body encloses the electric resistor (209; 315C; 411) and the water heating duct (211; 315D; 413), such that heat generated by the electric resistor, when powered, heats the water flowing through the water heating duct by heat conduction through the material forming the body. - a brewing chamber comprising at least two brewing chamber portions (215B, 227; 321, 323; 421, 423) movable one with respect to the other; - a flow through water heater (207; 315; 403) comprising an electric resistor (209; 315C; 411) and a water heating duct (211; 315D; 413); - a hot water feeding duct for feeding hot water from said water heating duct into said brewing chamber; - a beverage dispensing duct (219; 334; 434) from which said beverage is dispensed;
A coolant system for an electric vehicle, the vehicle comprising at least a first vehicle heat generating component and a second vehicle heat generating component, said coolant system comprising a fluid circuit configured to define a fluid passageway for circulating a coolant there through and a coolant assembly arranged in said fluid circuit, wherein said coolant assembly is configured to decrease the temperature of a portion of the coolant to a first temperature and to supply the portion of coolant to the first vehicle heat generating component via a first supply branch of the fluid circuit and further configured to decrease the temperature of a remaining portion of the coolant to a second temperature and to supply the remaining portion of coolant to the second vehicle heat generating component via a second supply branch of the fluid circuit, said system further comprising a first pump unit arranged downstream of said coolant assembly in said first supply branch and in fluid communication with said coolant assembly and said first vehicle heat generating component, said first pump unit being configured to direct said portion of coolant to said first vehicle heat generating component, and a second pump unit arranged downstream of said coolant assembly in said second supply branch and in fluid communication with said coolant assembly and said second vehicle heat generating component, said second pump unit being configured to direct said remaining portion of coolant to said second vehicle heat generating component, and characterized in that said system further comprises a controllable valve for directing the flow of coolant and a heater for heating the coolant, said controllable valve being arranged upstream of said coolant assembly in a return flow path of said fluid circuit, said first supply branch and said second supply branch intersecting into said return flow path upstream of said controllable valve, said controllable valve further being in fluid communication with said coolant assembly and said heater, and said heater being arranged in a by-pass branch extending from said controllable valve and in fluid communication with said controllable valve and any one of the first vehicle heat generating component and the second vehicle heat generating component, so that said controllable valve can control the flow of coolant to the coolant assembly and the heater.