mhurhangee/ep-ind-claims huggingface dataset:
A synchronization signal carrying method, comprising: determining, by first user equipment, a priority parameter of a synchronization signal; determining, by the first user equipment according to the priority parameter, a resource for carrying the synchronization signal, wherein the resource includes a codeword resource, a configuration of the codeword resource indicates the priority parameter; and sending, by the first user equipment, the synchronization signal to second user equipment by using the resource, so that the second user equipment determines a synchronization signal for the second user equipment. determining, by first user equipment, a priority parameter of a synchronization signal; determining, by the first user equipment according to the priority parameter, a resource for carrying the synchronization signal, wherein the resource includes a codeword resource, a configuration of the codeword resource indicates the priority parameter; and sending, by the first user equipment, the synchronization signal to second user equipment by using the resource, so that the second user equipment determines a synchronization signal for the second user equipment.
A method comprising: turning on a first plurality of switches arranged in parallel (307, 401, 403, 405) to couple an inductor to a clock network in a staggered manner when switching the clock network out of a conventional mode of operation into a resonant mode of operation. turning on a first plurality of switches arranged in parallel (307, 401, 403, 405) to couple an inductor to a clock network in a staggered manner when switching the clock network out of a conventional mode of operation into a resonant mode of operation.
A self-loop detection method for a charging device, wherein the charging device comprises an inbound charging interface and an outbound charging interface, wherein the inbound charging interface comprises a positive signal cable D i and a negative signal cable D i, the outbound charging interface comprises a positive signal cable D o and a negative signal cable D o, the inbound charging interface is in an inbound charging state, and the outbound charging interface is in an outbound charging state; and the method comprises: switching the positive signal cable D o and the negative signal cable D o from a connected state to a disconnected state; and detecting whether the positive signal cable D i and the negative signal cable D i are switched from a connected state to a disconnected state; and if the positive signal cable D i and the negative signal cable D i are switched from the connected state to the disconnected state, determining that a self-loop exists in the charging device. switching the positive signal cable D o and the negative signal cable D o from a connected state to a disconnected state; and detecting whether the positive signal cable D i and the negative signal cable D i are switched from a connected state to a disconnected state; and if the positive signal cable D i and the negative signal cable D i are switched from the connected state to the disconnected state, determining that a self-loop exists in the charging device.
A process for producing polycrystalline silicon by the thermal decomposition of dichlorosilane in a fluidized bed reactor, the fluidized bed reactor having a reaction chamber wall and a cross-section through which a first feed gas and a second feed gas pass, the first feed gas comprising dichlorosilane and the second feed gas comprising at least one compound selected from the group consisting of silicon tetrachloride, hydrogen, argon and helium, wherein the overall concentration of dichlorosilane in the first feed gas and the second feed gas is at least 10% by volume and the concentration (by volume) of dichlorosilane in the first feed gas is at least 25% greater than the concentration of dichlorosilane in the second feed gas, the fluidized bed reactor producing at least 100 kg/hr of polycrystalline silicon per square meter of fluidized bed reactor cross-section, the process comprising: directing the second feed gas to the reaction chamber wall and directing the first feed gas inward of the second feed gas, the temperature of the first feed gas being from 50°C to 600°C, the temperature of the second feed gas being from 50°C to 600°C, and the pressure in the fluidized bed reactor being at least 3 bar, wherein dichlorosilane contacts silicon particles to cause silicon to deposit onto the silicon particles and increase in size, and wherein the average residence time of gas introduced into the fluidized bed reactor is from 1 second to 12 seconds. directing the second feed gas to the reaction chamber wall and directing the first feed gas inward of the second feed gas, the temperature of the first feed gas being from 50°C to 600°C, the temperature of the second feed gas being from 50°C to 600°C, and the pressure in the fluidized bed reactor being at least 3 bar, wherein dichlorosilane contacts silicon particles to cause silicon to deposit onto the silicon particles and increase in size, and wherein the average residence time of gas introduced into the fluidized bed reactor is from 1 second to 12 seconds.
A low environmental impact electrical insulation system for medium or high voltage electrical switchgear comprising: a) a gaseous medium consisting of a mixture of: i) one or more fluoroketones of between 5 and 6 carbon atoms; ii) one or more non-flammable hydrofluoroolefins of 4 carbon atoms; and iii) one, two or three carrier gases selected from N2, O2, dry air, helium or mixtures thereof; b) a molecular sieve having a pore size of 3 to 6 Å and a polar surface. a) a gaseous medium consisting of a mixture of: i) one or more fluoroketones of between 5 and 6 carbon atoms; ii) one or more non-flammable hydrofluoroolefins of 4 carbon atoms; and iii) one, two or three carrier gases selected from N2, O2, dry air, helium or mixtures thereof; i) one or more fluoroketones of between 5 and 6 carbon atoms; ii) one or more non-flammable hydrofluoroolefins of 4 carbon atoms; and iii) one, two or three carrier gases selected from N2, O2, dry air, helium or mixtures thereof; b) a molecular sieve having a pore size of 3 to 6 Å and a polar surface.
A system, comprising: a conductivity cell configured to measure electrolytic conductivity of a fluid stream that flows through the conductivity cell; a temperature sensor coupled to measure temperature of the fluid stream, wherein the temperature sensor is insertable directly into the fluid stream; a pressure sensor coupled to measure pressure of the fluid stream; and an analyzer with logic configured to determine ammonium bisulfide concentration based on signals received from the conductivity cell, the temperature sensor and the pressure sensor. a conductivity cell configured to measure electrolytic conductivity of a fluid stream that flows through the conductivity cell; a temperature sensor coupled to measure temperature of the fluid stream, wherein the temperature sensor is insertable directly into the fluid stream; a pressure sensor coupled to measure pressure of the fluid stream; and an analyzer with logic configured to determine ammonium bisulfide concentration based on signals received from the conductivity cell, the temperature sensor and the pressure sensor.
Glass interleaving paper comprising: a main component of chemical pulp; and a sodium content of 0.03 to 1.0% by mass, wherein the glass interleaving paper has a basis weight of 10 to 300 g/m 2, and the chemical pulp contains hardwood pulp having a ratio of 10% by mass or more to the chemical pulp. a main component of chemical pulp; and a sodium content of 0.03 to 1.0% by mass, wherein the glass interleaving paper has a basis weight of 10 to 300 g/m 2, and the chemical pulp contains hardwood pulp having a ratio of 10% by mass or more to the chemical pulp.
A clay-like composition for forming a sintered precious metal body, the clay-like composition comprising: at least a precious metal powder and/or a precious metal alloy powder at an amount of 50 to 95 mass%; an organic binder; an organic additive including propylene glycol, glycerol, and polyethylene glycol; and water, wherein the combined amount of the propylene glycol, the glycerol and the polyethylene glycol is 0.1 to 3.0 mass %. at least a precious metal powder and/or a precious metal alloy powder at an amount of 50 to 95 mass%; an organic binder; an organic additive including propylene glycol, glycerol, and polyethylene glycol; and water, wherein the combined amount of the propylene glycol, the glycerol and the polyethylene glycol is 0.1 to 3.0 mass %.
A semiconductor structure suitable for fluid ejection devices, comprising: a substrate comprising a first surface; a first insulative material disposed on at least a portion of the first surface, the first insulative material comprising a plurality of openings forming a path to the first surface; a first conductive material disposed on the first insulative material, the first conductive material being disposed so that the plurality of openings are substantially free of the first conductive material; a second insulative material disposed on the first conductive material and portions of the first insulative material, the second insulative material being disposed so that the plurality of openings are substantially free of the second insulative material; and a second conductive material (85, 50) being disposed on second insulative material, characterized in that the second conductive material (85, 50) is disposed within the plurality of openings so that some of the second conductive material (85, 50) disposed upon the second insulative material is in electrical contact with the substrate. a substrate comprising a first surface; a first insulative material disposed on at least a portion of the first surface, the first insulative material comprising a plurality of openings forming a path to the first surface; a first conductive material disposed on the first insulative material, the first conductive material being disposed so that the plurality of openings are substantially free of the first conductive material; a second insulative material disposed on the first conductive material and portions of the first insulative material, the second insulative material being disposed so that the plurality of openings are substantially free of the second insulative material; and a second conductive material (85, 50) being disposed on second insulative material, characterized in that the second conductive material (85, 50) is disposed within the plurality of openings so that some of the second conductive material (85, 50) disposed upon the second insulative material is in electrical contact with the substrate.
Fluid-flow machine with a flow path provided by a casing and a rotating shaft, in which path rows of rotor blades and stator blades are arranged, characterized in that a row of recesses arranged distributed in the circumferential direction is disposed in a blade (3, 4) tip area in an annulus duct wall of the casing and/ or the shaft, where the cross-section and the position of each recess are defined as follows: - a limit point E of the recess upstreamly arranged in the flow direction features a distance e > 0 to the forward blade tip point A, - a limit point F of the recess downstreamly arranged in the flow direction features a distance f to the forward blade tip point A, - where the following applies: 0.5 L > f > 0, - with L being defined as the distance between the blade tip points A and B, - with the wall of the recess including a point S, which is arranged on an orthogonal on line A-B through the point S, - with a straight line through the blade tip points A and B and a tangent to the wall of the recess including an angle beta amounting to 15° ≤ beta ≤ 70° in at least one point of the wall of the recess provided in a meridional section between the points S and F, - with all points lying in a meridional plane established by an axial direction x of the axis of the fluid-flow machine and a radial direction r, - with all distances being measured parallelly to a line connecting a forward blade tip point A and a rearward blade tip point B, - with two further points C and D characterizing the course of the annulus duct wall upstream of the recess, C at a distance of 0.75 L to the blade tip point A and D at a distance of 0.25 L to the blade tip point A, and - with the connecting line A-B and the connecting line C-D including an angle -15° < alpha < 30°. - a limit point E of the recess upstreamly arranged in the flow direction features a distance e > 0 to the forward blade tip point A, - a limit point F of the recess downstreamly arranged in the flow direction features a distance f to the forward blade tip point A, - where the following applies: 0.5 L > f > 0, - with L being defined as the distance between the blade tip points A and B, - with the wall of the recess including a point S, which is arranged on an orthogonal on line A-B through the point S, - with a straight line through the blade tip points A and B and a tangent to the wall of the recess including an angle beta amounting to 15° ≤ beta ≤ 70° in at least one point of the wall of the recess provided in a meridional section between the points S and F, - with all points lying in a meridional plane established by an axial direction x of the axis of the fluid-flow machine and a radial direction r, - with all distances being measured parallelly to a line connecting a forward blade tip point A and a rearward blade tip point B, - with two further points C and D characterizing the course of the annulus duct wall upstream of the recess, C at a distance of 0.75 L to the blade tip point A and D at a distance of 0.25 L to the blade tip point A, and - with the connecting line A-B and the connecting line C-D including an angle -15° < alpha < 30°.
An apparatus, in particular a flight simulator, a motion simulator or an orientation simulator for spatial movement at least one person and in particular for simulating the effects of acceleration, wherein a holding device is provided for holding a person in the area of a center, - wherein the holding device is mounted on a carriage by means of a movement device, - wherein the carriage can be moved along a main horizontal support and in particular can be moved linearly, - wherein the main support is mounted to be rotatable about a main vertical axis of rotation, driveable and is optionally driven by a main drive, - wherein the main support has a first main arm and a second main arm, - wherein the two main arms (8, 9) extend radially outward in opposite directions away from the main axis of rotation, - wherein the center can be moved between a first outer maximum position and a second outer maximum position by moving the carriage along a path of travel on the main support, - wherein the carriage is arranged on the first main arm in the first outer maximum position of the center, - and wherein the carriage is arranged on the second main arm in the second outer maximum position of the center, characterized in that the normal distance between the first outer maximum position of the center and the main axis of rotation is greater than the normal distance between the second outer maximum position of the center and the main axis of rotation. - wherein the holding device is mounted on a carriage by means of a movement device, - wherein the carriage can be moved along a main horizontal support and in particular can be moved linearly, - wherein the main support is mounted to be rotatable about a main vertical axis of rotation, driveable and is optionally driven by a main drive, - wherein the main support has a first main arm and a second main arm, - wherein the two main arms (8, 9) extend radially outward in opposite directions away from the main axis of rotation, - wherein the center can be moved between a first outer maximum position and a second outer maximum position by moving the carriage along a path of travel on the main support, - wherein the carriage is arranged on the first main arm in the first outer maximum position of the center, - and wherein the carriage is arranged on the second main arm in the second outer maximum position of the center,
A humidifier, comprising: a heating element including a porous structure of electrically resistive and thermally conductive material, the porous structure having a liquid inlet and a vapour outlet and being configured to heat and substantially vaporise liquid as it flows from the liquid inlet to the vapour outlet to form steam; and an outer housing surrounding at least a portion of the porous structure for containing the liquid and vapour within the porous structure; wherein the porous structure includes a first electrical connector and a second electrical connector, the first and second connectors being configured for receiving electrical power and applying a voltage across the porous structure to generate heat, and wherein the vapour outlet is arranged to expel steam for delivery into a respiratory gas flow path to humidify the respiratory gas flow path. a heating element including a porous structure of electrically resistive and thermally conductive material, the porous structure having a liquid inlet and a vapour outlet and being configured to heat and substantially vaporise liquid as it flows from the liquid inlet to the vapour outlet to form steam; and an outer housing surrounding at least a portion of the porous structure for containing the liquid and vapour within the porous structure; wherein the porous structure includes a first electrical connector and a second electrical connector, the first and second connectors being configured for receiving electrical power and applying a voltage across the porous structure to generate heat, and wherein the vapour outlet is arranged to expel steam for delivery into a respiratory gas flow path to humidify the respiratory gas flow path.
A method for computer-implemented determination of sensor positions in a simulated process of an automation system, where the simulated process includes a digital process description of an automation task to be executed by a number of components (1, 2) of the automation system, characterized in the process description including a movement specification describing the movement of the number of components (1, 2) during the execution of the automation task, and where a digital sensing description is provided, the sensing description defining a sensing task to be performed by a sensor means during the execution of the automation task and a number of sensor parameters of the sensor means, the number of sensor parameters comprising one or more sensing constraints of the sensor means and the sensor volume of the sensor means, the method comprising the steps of: a) determining a placement volume based on the movement specification, where the placement volume lies within a predetermined area surrounding the number of components (1, 2) and where the placement volume does not overlap with the number of components (1, 2) and any other object during the execution of the automation task; b) determining a sensor arrangement volume defining a volume of sensor positions of the sensor means, where the sensor volume of the sensor means lies at each sensor position within the sensor arrangement volume completely inside the placement volume and where the sensing task can be performed during the execution of the automation task at each sensor position within the sensor arrangement volume by the sensor means with regard to the number of sensing constraints. a) determining a placement volume based on the movement specification, where the placement volume lies within a predetermined area surrounding the number of components (1, 2) and where the placement volume does not overlap with the number of components (1, 2) and any other object during the execution of the automation task; b) determining a sensor arrangement volume defining a volume of sensor positions of the sensor means, where the sensor volume of the sensor means lies at each sensor position within the sensor arrangement volume completely inside the placement volume and where the sensing task can be performed during the execution of the automation task at each sensor position within the sensor arrangement volume by the sensor means with regard to the number of sensing constraints.
A child-resistant blister package having a top face, a bottom face, and a periphery, the package comprising: a. a protection layer having a top face, a bottom face, and a periphery; b. a blister layer having a top face, a bottom face, and a periphery wherein one or more cavities are formed therein, wherein a cavity contains at least one unit dose; c. an access layer having a top face, a bottom face, and a periphery wherein the access layer has a line of weakness on the bottom face that extends at least partially towards the top face; wherein substantially the entire periphery of the blister layer is disposed between the protection layer and the access layer; wherein the bottom face of the protection layer and the top face of the access layer are permanently joined along substantially the entire periphery of the package; wherein the unit dose can be removed from the cavity in one-step by applying a force to the top of the cavity and pressing the unit dose through the line of weakness; characterized in that the protection layer or the access layer further comprises a tear resistant layer (50,54). a. a protection layer having a top face, a bottom face, and a periphery; b. a blister layer having a top face, a bottom face, and a periphery wherein one or more cavities are formed therein, wherein a cavity contains at least one unit dose; c. an access layer having a top face, a bottom face, and a periphery wherein the access layer has a line of weakness on the bottom face that extends at least partially towards the top face; wherein substantially the entire periphery of the blister layer is disposed between the protection layer and the access layer; wherein the bottom face of the protection layer and the top face of the access layer are permanently joined along substantially the entire periphery of the package; wherein the unit dose can be removed from the cavity in one-step by applying a force to the top of the cavity and pressing the unit dose through the line of weakness; characterized in that the protection layer or the access layer further comprises a tear resistant layer (50,54).