mhurhangee/ep-ind-claims huggingface dataset:
A multiphase pump for conveying a multiphase process fluid from a low pressure side to a high pressure side, comprising an outer housing and a casing, the casing having a pump inlet and a pump outlet for the process fluid, the multiphase pump further comprising a pump rotor for rotating about an axial direction arranged within the casing, with the pump rotor being designed for conveying the process fluid from the pump inlet to the pump outlet, wherein the casing comprises a plurality of stage segments (51, 52, 71, 72, 73), and the plurality of stage segments (51, 52, 71, 72, 73) comprise an individual stage-segment (71, 72, 73), a low pressure segment arranged at the pump inlet and a high pressure segment arranged at the pump outlet, wherein the individual stage-segment (71, 72, 73) is arranged between the high pressure segment and the low pressure segment, and the plurality of stage segments (51, 52, 71, 72, 73) are held together by a sealing support structure (81, 82), the casing being arranged within the outer housing, characterized in that the sealing support structure (81, 82) is a tie rod, the tie rod being connected to a multiplicity of stage segments (51, 52, 71, 72, 73), in particular being connected to the low pressure segment and the high pressure segment, or the sealing support structure (81, 82) is the stage segments (51, 52, 71, 72, 73) being bolted individually to the adjacent stage segment (51, 52, 71, 72, 73), wherein the individual stage-segment (71, 72, 73) comprise a first individual stage-segment being bolted to low pressure segment and a second individual stage-segment being bolted to the high pressure segment.
Process for manufacturing dichloropropanol, in which a composition comprising glycerol and at least one cyclic dimer of glycerol at a content greater than or equal to 0.01 and less than or equal to 20 g of cyclic dimer/kg of composition, and in which the glycerol content is higher than or equal to 900 g of glycerol/kg of composition is reacted with a chlorinating agent in the presence of a catalyst chosen from carboxylic acids and carboxylic acid derivatives.
A method of coating ceramic material fibers in metal using a liquid technique, the method consisting in maintaining a charge of molten metal in levitation in a substantially spherical shape inside a crucible and in causing a tensioned ceramic material fiber to travel at a predetermined speed between a bottom pulley and a top pulley disposed on either side of the crucible in such a manner that a portion of fiber is immersed in the charge in order to be covered in a metal coating, the method being characterized in that it also consists in causing the portion of fiber that is immersed in the charge to shift during coating as a function of the remaining volume of the charge in such a manner that the instantaneous height (h) of fiber that is immersed in the charge remains substantially constant throughout the coating operation.
A system (10, 100) for applying a liner (12, 112) to an inner surface (14, 114) of a pipeline (16, 116), comprising: a first pipeline vehicle (20, 120) having: a first passage (24, 124) extending therethrough, the first passage (24, 124) being for the liner (12, 112) and comprising an inlet and ar outlet, and a guide surface (27, 137) arranged to direct a first portion of the liner (12, 112) passing through the outlet (23, 153) onto the inner surface (14, 114) of the pipe (16, 116); and a second pipeline vehicle (22, 122) having a second passage (26, 126) extending therethrough, the second passage (26, 126) being for the liner (12, 112), wherein the second pipeline vehicle (22, 122) comprises a second clamping component (211, 35) arranged to clamp a second portion of the liner (12, 112) when the liner is located in the second passage (26, 126). a first pipeline vehicle (20, 120) having: a first passage (24, 124) extending therethrough, the first passage (24, 124) being for the liner (12, 112) and comprising an inlet and ar outlet, and a guide surface (27, 137) arranged to direct a first portion of the liner (12, 112) passing through the outlet (23, 153) onto the inner surface (14, 114) of the pipe (16, 116); and a first passage (24, 124) extending therethrough, the first passage (24, 124) being for the liner (12, 112) and comprising an inlet and ar outlet, and a guide surface (27, 137) arranged to direct a first portion of the liner (12, 112) passing through the outlet (23, 153) onto the inner surface (14, 114) of the pipe (16, 116); and a second pipeline vehicle (22, 122) having a second passage (26, 126) extending therethrough, the second passage (26, 126) being for the liner (12, 112), wherein the second pipeline vehicle (22, 122) comprises a second clamping component (211, 35) arranged to clamp a second portion of the liner (12, 112) when the liner is located in the second passage (26, 126).
An apparatus, comprising: an accelerometer; a memory comprising instructions; and a processor configured, when carrying out the instructions, to: sample a signal obtained or derived from the accelerometer to thereby provide a predetermined number of samples of the signal; select samples having an absolute value that is greater than a first threshold; characterized in that the processor is further configured, when carrying out the instructions, to: accumulate the selected samples over a period of time to produce a first value, being the sum of the values of the selected samples over the period of time; compare the first value with a threshold set +P or -P; and determine that the apparatus is worn on the right limb if the first value is greater than +P, determine that the apparatus is worn on the left limb if the first value is less than -P, and not determine a wearing location otherwise. an accelerometer; a memory comprising instructions; and a processor configured, when carrying out the instructions, to: sample a signal obtained or derived from the accelerometer to thereby provide a predetermined number of samples of the signal; select samples having an absolute value that is greater than a first threshold; characterized in that the processor is further configured, when carrying out the instructions, to: accumulate the selected samples over a period of time to produce a first value, being the sum of the values of the selected samples over the period of time; compare the first value with a threshold set +P or -P; and determine that the apparatus is worn on the right limb if the first value is greater than +P, determine that the apparatus is worn on the left limb if the first value is less than -P, and not determine a wearing location otherwise. sample a signal obtained or derived from the accelerometer to thereby provide a predetermined number of samples of the signal; select samples having an absolute value that is greater than a first threshold; characterized in that the processor is further configured, when carrying out the instructions, to: accumulate the selected samples over a period of time to produce a first value, being the sum of the values of the selected samples over the period of time; compare the first value with a threshold set +P or -P; and determine that the apparatus is worn on the right limb if the first value is greater than +P, determine that the apparatus is worn on the left limb if the first value is less than -P, and not determine a wearing location otherwise. accumulate the selected samples over a period of time to produce a first value, being the sum of the values of the selected samples over the period of time; compare the first value with a threshold set +P or -P; and determine that the apparatus is worn on the right limb if the first value is greater than +P, determine that the apparatus is worn on the left limb if the first value is less than -P, and not determine a wearing location otherwise.
An article containing biotechnologically produced nanostructured cellulose for treating an area of skin, wherein the article - comprises BNC in an amount of at least 1 % by weight and at most 15 % by weight, - comprises fluid in an amount of at least 85 % by weight and at most 99 % by weight. - has an average thickness of at least 0.5 mm and at most 8 mm, wherein the BNC is of microbial origin and wherein the BNC of the article has a polydispersity index of less than 3.0 and wherein the article is provided in the form of • a face mask, • mouth mask, • forehead mask dimensioned to cover essentially the entire skin of the forehead or • eye mask dimensioned to cover essentially both eyes. - comprises BNC in an amount of at least 1 % by weight and at most 15 % by weight, - comprises fluid in an amount of at least 85 % by weight and at most 99 % by weight. - has an average thickness of at least 0.5 mm and at most 8 mm, • a face mask, • mouth mask, • forehead mask dimensioned to cover essentially the entire skin of the forehead or • eye mask dimensioned to cover essentially both eyes.
Method of trajectory planning for maneuvers for an ego vehicle equipped with: sensor systems to measure its position on the road ( L 1, L 2) as well as the relative positions and velocities of surrounding traffic participants and objects ( S 1, S 2, S 3); prediction systems to estimate the motion trajectories of surrounding traffic participants and objects ( S 1, S 2, S 3) over a defined time horizon; low-level control systems capable of following a planned trajectory; and a decision-making system to provide a desired maneuver request, characterized in that the method comprises the steps of, using receding horizon control applying a finite prediction horizon, for determining: possible lateral motion trajectories of a requested maneuver; longitudinal safety critical zones for each relevant surrounding traffic participant and object ( S 1, S 2, S 3) which correspond to each of the determined possible lateral motion trajectories; a longitudinal motion trajectory of the requested maneuver; lateral safety critical zones for each relevant surrounding traffic participant and object ( S 1, S 2, S 3) which correspond to the determined longitudinal motion trajectory of the requested maneuver; a lateral motion trajectory of the requested maneuver. sensor systems to measure its position on the road ( L 1, L 2) as well as the relative positions and velocities of surrounding traffic participants and objects ( S 1, S 2, S 3); prediction systems to estimate the motion trajectories of surrounding traffic participants and objects ( S 1, S 2, S 3) over a defined time horizon; low-level control systems capable of following a planned trajectory; and a decision-making system to provide a desired maneuver request, characterized in that the method comprises the steps of, using receding horizon control applying a finite prediction horizon, for determining: possible lateral motion trajectories of a requested maneuver; longitudinal safety critical zones for each relevant surrounding traffic participant and object ( S 1, S 2, S 3) which correspond to each of the determined possible lateral motion trajectories; a longitudinal motion trajectory of the requested maneuver; lateral safety critical zones for each relevant surrounding traffic participant and object ( S 1, S 2, S 3) which correspond to the determined longitudinal motion trajectory of the requested maneuver; a lateral motion trajectory of the requested maneuver. possible lateral motion trajectories of a requested maneuver; longitudinal safety critical zones for each relevant surrounding traffic participant and object ( S 1, S 2, S 3) which correspond to each of the determined possible lateral motion trajectories; a longitudinal motion trajectory of the requested maneuver; lateral safety critical zones for each relevant surrounding traffic participant and object ( S 1, S 2, S 3) which correspond to the determined longitudinal motion trajectory of the requested maneuver; a lateral motion trajectory of the requested maneuver.
A method comprising: receiving by a main device (10; 220) a trigger input signal that indicates a user is in proximity to the main device; in response to the received trigger input signal, outputting by the main device a wake-up signal to a secondary device (11; 210 A-F) and enabling a main device sensor to detect an input signal from the environment; receiving, in response to the wake-up signal, buffered input data from the secondary device, wherein the buffered input data was collected by the secondary device for a predetermined time period prior to the secondary device receiving the wake-up signal; subsequent to receiving the buffered input data, receiving, from the secondary device, an input signal collected in real time by the secondary device; receiving an input signal from the main device sensor, wherein the input signals from the main device sensor and the secondary device are spoken language inputs; separately recognizing the input signals from the main device sensor and the secondary device using speech recognition algorithms and providing separate recognition signals for each device; verifying a final recognition result using the separate recognition results, wherein the buffered input data is used to confirm an input signal previously detected by the main device, which was enabled prior to the secondary device receiving the wake-up signal; and in response to the recognized input signals, generating a command signal to perform an action related to the recognized input signals. receiving by a main device (10; 220) a trigger input signal that indicates a user is in proximity to the main device; in response to the received trigger input signal, outputting by the main device a wake-up signal to a secondary device (11; 210 A-F) and enabling a main device sensor to detect an input signal from the environment; receiving, in response to the wake-up signal, buffered input data from the secondary device, wherein the buffered input data was collected by the secondary device for a predetermined time period prior to the secondary device receiving the wake-up signal; subsequent to receiving the buffered input data, receiving, from the secondary device, an input signal collected in real time by the secondary device; receiving an input signal from the main device sensor, wherein the input signals from the main device sensor and the secondary device are spoken language inputs; separately recognizing the input signals from the main device sensor and the secondary device using speech recognition algorithms and providing separate recognition signals for each device; verifying a final recognition result using the separate recognition results, wherein the buffered input data is used to confirm an input signal previously detected by the main device, which was enabled prior to the secondary device receiving the wake-up signal; and in response to the recognized input signals, generating a command signal to perform an action related to the recognized input signals.
A power control method performed by a communications device, the method comprising: • for a terminal configured with a plurality of cells, grouping the plurality of cells into cell groups based on a subcarrier spacing, wherein a power control mode for the cell groups is configured by a base station as a first power control mode or a second power control mode, and the plurality of cells use either carrier aggregation CA or dual connectivity DC (step 502), wherein the grouping the plurality of cells into cell groups based on the subcarrier spacing comprises: putting cells with a same subcarrier spacing into a same cell group, wherein the cells in the cell group use a same power control mode, and the same power control mode is the first power control mode or the second power control mode, wherein the first power control mode is used to allocate a transmit power based on a priority of a channel type or a priority of a cell group type, and the second power control mode is used to allocate a power based on a time sequence for sending of a transmission channel or a cell group and, wherein the cell is at least one of a carrier or a serving cell. • for a terminal configured with a plurality of cells, grouping the plurality of cells into cell groups based on a subcarrier spacing, wherein a power control mode for the cell groups is configured by a base station as a first power control mode or a second power control mode, and the plurality of cells use either carrier aggregation CA or dual connectivity DC (step 502), wherein the grouping the plurality of cells into cell groups based on the subcarrier spacing comprises: putting cells with a same subcarrier spacing into a same cell group, wherein the cells in the cell group use a same power control mode, and the same power control mode is the first power control mode or the second power control mode, wherein the first power control mode is used to allocate a transmit power based on a priority of a channel type or a priority of a cell group type, and the second power control mode is used to allocate a power based on a time sequence for sending of a transmission channel or a cell group and, wherein the cell is at least one of a carrier or a serving cell. putting cells with a same subcarrier spacing into a same cell group, wherein the cells in the cell group use a same power control mode, and the same power control mode is the first power control mode or the second power control mode, wherein the first power control mode is used to allocate a transmit power based on a priority of a channel type or a priority of a cell group type, and the second power control mode is used to allocate a power based on a time sequence for sending of a transmission channel or a cell group and, wherein the cell is at least one of a carrier or a serving cell.
A connecting element for a ventilation duct system, which connecting element comprises a first end, a first projection, a groove and a sealing device, which first projection substantially is arranged at said first end and wholly or partly extends around an outer surface of the connecting element, which first projection with said outer surface form an angle of approximately 90 deg., which groove is arranged adjacent to said first projection of the connecting element and in which groove a sealing device is arranged, which sealing device is supported directly or indirectly by the first projection characterised by a second projection, such as a bead, is arranged at a predetermined distance from said first projection of the connecting element, said groove thereby being formed between the first projection and the second projection.
Electrical zero-force connector having a socket housing which has receptacles for a plurality of sleeve contacts, and having an assembly connection featuring the connector pins for contacting the sleeve contacts, whereby each of the sleeve contacts has a base body forming contact laminations and a clamping sleeve which is displaceable in relation to the base body, whereby, upon displacing the clamping sleeves in relation to the base body, the clamping sleeves press the contact laminations onto the connector pins of the assembly connection, whereby the socket housing has a resilient snap-in hook which interlocks with a detent lug on the assembly connection once the socket housing and assembly connection are joined together, and whereby the socket housing has a sealing element which comes to lie on the inside wall of the assembly connection once the socket housing and the assembly connection have been joined together, characterised in that a bar is located on the socket housing which can be displaced in relation to the socket housing once the socket housing and the assembly connection have been joined together and which locks the snap-in connection between snap-in hook and detent lug following this displacement, and that the bar is connected to a slide which is linked to the clamping sleeves and guided through at least one recess in the sealing element moving the slide with it in the event of a displacement, whereby the movement of the slide shifts the clamping sleeves against the base body of the sleeve contacts.
A method for characterizing an electromagnetic waveguide with a rotationally symmetrical cross section, wherein the electromagnetic waveguide is a glass fiber, wherein a refractive index profile of the electromagnetic waveguide is a parabolic profile, with: determining of a predetermined coupling angle which is different from 0°, as a function of a predetermined lateral offset, so that at least one predetermined waveguide propagation mode of the electromagnetic waveguide contributes to an annular field intensity distribution in the electromagnetic waveguide, wherein the predetermined coupling angle is determined as a function of the predetermined lateral offset based on the following relation: Δ φ Δ x ≈ sin − 1 A N n 0 a Δ x 2 − 1 where Δφ denotes the predetermined coupling angle, Δx denotes the predetermined lateral offset, A N denotes a numerical aperture of the electromagnetic waveguide, a denotes a core radius of the electromagnetic waveguide, and n 0 denotes a refractive index of the electromagnetic waveguide on a waveguide axis; coupling of an electromagnetic wave input signal into the electromagnetic waveguide under the predetermined coupling angle which is different from 0° and with the predetermined lateral offset, in order to couple the at least one predetermined waveguide propagation mode into the electromagnetic waveguide; and acquiring of a characteristic of the electromagnetic waveguide based on an electromagnetic wave output signal. determining of a predetermined coupling angle which is different from 0°, as a function of a predetermined lateral offset, so that at least one predetermined waveguide propagation mode of the electromagnetic waveguide contributes to an annular field intensity distribution in the electromagnetic waveguide, wherein the predetermined coupling angle is determined as a function of the predetermined lateral offset based on the following relation: Δ φ Δ x ≈ sin − 1 A N n 0 a Δ x 2 − 1 where Δφ denotes the predetermined coupling angle, Δx denotes the predetermined lateral offset, A N denotes a numerical aperture of the electromagnetic waveguide, a denotes a core radius of the electromagnetic waveguide, and n 0 denotes a refractive index of the electromagnetic waveguide on a waveguide axis; coupling of an electromagnetic wave input signal into the electromagnetic waveguide under the predetermined coupling angle which is different from 0° and with the predetermined lateral offset, in order to couple the at least one predetermined waveguide propagation mode into the electromagnetic waveguide; and acquiring of a characteristic of the electromagnetic waveguide based on an electromagnetic wave output signal.