mhurhangee/ep-ind-claims huggingface dataset:
A base station in a wireless communication system, the base station comprising processing circuitry (1402, 1404, 1406) configured to: acquire at least height information of each of one or more user equipment, the height information being a height of a position of the UE above a reference height; perform, for each user equipment, resource allocation based on at least the height information of the user equipment and one or more height thresholds for the user equipment above the reference height; and switch, for each user equipment, between a height-based resource allocation mode and a resource allocation mode for ground based user equipment according to relationship between a current height of the user equipment and a smallest height threshold of the one or more height thresholds. acquire at least height information of each of one or more user equipment, the height information being a height of a position of the UE above a reference height; perform, for each user equipment, resource allocation based on at least the height information of the user equipment and one or more height thresholds for the user equipment above the reference height; and switch, for each user equipment, between a height-based resource allocation mode and a resource allocation mode for ground based user equipment according to relationship between a current height of the user equipment and a smallest height threshold of the one or more height thresholds.
Pressure casing of a turbomachine, which comprises at least two casing shells (10a, 10b) which are connected in a pressure-tight manner in a parting plane by means of a flange, wherein the casing shells (10a, 10b) are pressed together with sealing effect in the parting plane in the region of the flange by means of at least one threaded bolt which extends through a through hole in the flange perpendicularly to the parting plane, wherein the at least one threaded bolt is charged by a heat transfer medium, wherein at least one of feed holes or outlet holes for the heat transfer medium are arranged in the parting plane of the flange, characterized in that: the feed holes receive the heat transfer medium from a plenum and the outlet holes discharge into a flow channel for a working medium inside the pressure casing; or the feed holes receive the heat transfer medium from the flow channel and the outlet holes discharge into a cavity outside the pressure casing. the feed holes receive the heat transfer medium from a plenum and the outlet holes discharge into a flow channel for a working medium inside the pressure casing; or the feed holes receive the heat transfer medium from the flow channel and the outlet holes discharge into a cavity outside the pressure casing.
A device for indicating a test result of a specimen using recognizable symbols, comprising a reagent strip, the reagent strip comprising a detection zone including an analyte binding area (101, 5015) and a positive control area, and the positive control area including a light-emitting element (503, 805) which emits light after energizing, the light emitted by the element (503, 805) is projected to the positive control area, thereby combining with the analyte binding area (101, 5015) to form a symbol to indicate the test result, characterized in that the light-emitting element (503, 805) emits light after a current circuit of the light-emitting element (503, 805) is formed by conduction of a liquid sample.
Torque transmission device having a sleeve part which comprises on its output side an insertion opening, having a non-round, in particular polygonal, cross section, for a screwdriver insert, and comprises on its drive end a drive shank which is arranged in a drive cavity (6, 8, 9) of the sleeve part together with a gripping portion, a stop portion (20', 20") and a torsion portion which is located therebetween and turns when torque is applied, the gripping portion being pressed into a press-in region of the sleeve part so as to be rotationally and axially fixed, and the stop portion (20', 20") being rotatable relative to the gripping portion accompanied by turning of the torsion portion, the stop portion (20', 20") having a polygonal outer cross-sectional profile which is inserted into a larger polygonal inner cross-sectional profile of the drive cavity (6, 8, 9), such that the torsion portion can only be turned by a predetermined angle of rotation in the rotational screw-tightening direction or in the screw-loosening direction in a manner which is limited by a stop, characterised by an angular offset of the polygonal inner cross-sectional profile from the polygonal outer cross-sectional profile when no torque is applied, so that the twist angle of the stop portion (20', 20") is greater in the rotational screw-tightening direction than in the screw-loosening direction, the press-in region comprising an alignment recess which is arranged so as to be angularly offset from the polygonal inner corners of the polygonal inner cross-sectional profile, corresponding to the angular offset, which recess polygonal corners of the gripping portion enter when the drive shank is pressed into the sleeve part.
A method for parallel processing of a plurality of biological cellular samples for producing cellular samples for cell therapy comprising: i) transferring a plurality of cellular samples (S1 to Sn) to a first processing unit containing a plurality of identical processing stations (P1/1 to P1/n), wherein each of said plurality of cellular samples (S1 to Sn) is contained in a respective sterile container; ii) processing each of said cellular samples (S1 to Sn) on a processing station (P1/1 to P1/n) to produce a plurality of processed cellular samples (S1/1 to Sn/1); iii) transferring said processed cellular samples (S1/1 to Sn/1) to a second processing unit containing a plurality of identical processing stations (P2/1 to P2/n); iv) processing each of said cellular samples (S1/1 to Sn/1) on a processing station (P2/1 to P2/n) to produce a plurality of processed cellular samples (S 1/2 to Sn/2); and v) transferring to and further processing said plurality of processed cellular samples on one or more processing units to produce a plurality of processed cellular samples (S1/N to Sn/N), the method being characterised in that the processing of the cellular samples involves one or more processes selected from the group consisting of cell isolation, cell concentration, cell culture, cell expansion, cell transduction and cell formulation, and wherein a unit for long duration processes contains more processing stations than a unit for short duration processes, and further characterised by maintaining an identity custody chain by recording component unique identities at each stage of processing transfer of processed patient material. i) transferring a plurality of cellular samples (S1 to Sn) to a first processing unit containing a plurality of identical processing stations (P1/1 to P1/n), wherein each of said plurality of cellular samples (S1 to Sn) is contained in a respective sterile container; ii) processing each of said cellular samples (S1 to Sn) on a processing station (P1/1 to P1/n) to produce a plurality of processed cellular samples (S1/1 to Sn/1); iii) transferring said processed cellular samples (S1/1 to Sn/1) to a second processing unit containing a plurality of identical processing stations (P2/1 to P2/n); iv) processing each of said cellular samples (S1/1 to Sn/1) on a processing station (P2/1 to P2/n) to produce a plurality of processed cellular samples (S 1/2 to Sn/2); and v) transferring to and further processing said plurality of processed cellular samples on one or more processing units to produce a plurality of processed cellular samples (S1/N to Sn/N),
A pressure regulator comprising: a primary fluid inlet for connection to a source of high pressure fluid a fluid outlet for connection to a space to receive the high pressure fluid; a convergent-divergent nozzle having an upstream convergent section, a throat and a downstream divergent section, the primary fluid inlet being in fluid communication with the convergent section of the convergent-divergent nozzle; and an outlet pipe having an upstream end arranged around but radially spaced from the outlet of the divergent section of the convergent-divergent nozzle, the outlet pipe arranged to receive fluid flow from the outlet of the divergent section of the convergent-divergent nozzle and conduct the fluid flowing from the convergent-divergent nozzle to the fluid outlet; the radial spacing between the upstream end of the outlet pipe and the outlet of the divergent section of the convergent-divergent nozzle forming a secondary fluid inlet for introduction of a fluid into the outlet pipe from outside the convergent-divergent nozzle at a location adjacent the outlet of the divergent section of the convergent-divergent nozzle; the outlet pipe comprising a radially expanding section at its upstream end adjacent the convergent-divergent nozzle, and the radially expanding section expanding from smaller to larger dimension in a downstream direction; and characterized in that a flow recirculation conduit is connected at a first end to the secondary fluid inlet and configured to be connected at a second end to the space. a primary fluid inlet for connection to a source of high pressure fluid a fluid outlet for connection to a space to receive the high pressure fluid; a convergent-divergent nozzle having an upstream convergent section, a throat and a downstream divergent section, the primary fluid inlet being in fluid communication with the convergent section of the convergent-divergent nozzle; and an outlet pipe having an upstream end arranged around but radially spaced from the outlet of the divergent section of the convergent-divergent nozzle, the outlet pipe arranged to receive fluid flow from the outlet of the divergent section of the convergent-divergent nozzle and conduct the fluid flowing from the convergent-divergent nozzle to the fluid outlet; the radial spacing between the upstream end of the outlet pipe and the outlet of the divergent section of the convergent-divergent nozzle forming a secondary fluid inlet for introduction of a fluid into the outlet pipe from outside the convergent-divergent nozzle at a location adjacent the outlet of the divergent section of the convergent-divergent nozzle; the outlet pipe comprising a radially expanding section at its upstream end adjacent the convergent-divergent nozzle, and the radially expanding section expanding from smaller to larger dimension in a downstream direction; and characterized in that a flow recirculation conduit is connected at a first end to the secondary fluid inlet and configured to be connected at a second end to the space.
A method of displaying a characteristic of power associated with a first piece of electrical equipment (112, 114, 116, 118) that has an on-state and an off-state, the method comprising: receiving, at a circuit monitor, a measurement of a current consumed or produced by the first piece of electrical equipment in the on-state, the circuit monitor configured to monitor the state of a discrete input for the first piece of electrical equipment; storing, on a memory device, first data derived from the measured current and associated times when the first piece of electrical equipment is in the on-state, the on-state being indicated by the discrete input; calculating a characteristic of power as a function of the first data; graphically displaying on a video display a graphical representation of the characteristic of power as a multi-dimensional shape on a graph having a first axis with time increments and a second axis with increments representing units of the characteristic of power, the multi-dimensional shape including a first dimension along the first axis representing a duration of the on-state and a second dimension along the second axis representing the characteristic of power consumed or produced by at least the first piece of electrical equipment during the times associated with the duration of the on-state. receiving, at a circuit monitor, a measurement of a current consumed or produced by the first piece of electrical equipment in the on-state, the circuit monitor configured to monitor the state of a discrete input for the first piece of electrical equipment; storing, on a memory device, first data derived from the measured current and associated times when the first piece of electrical equipment is in the on-state, the on-state being indicated by the discrete input; calculating a characteristic of power as a function of the first data; graphically displaying on a video display a graphical representation of the characteristic of power as a multi-dimensional shape on a graph having a first axis with time increments and a second axis with increments representing units of the characteristic of power, the multi-dimensional shape including a first dimension along the first axis representing a duration of the on-state and a second dimension along the second axis representing the characteristic of power consumed or produced by at least the first piece of electrical equipment during the times associated with the duration of the on-state.
Method for integrating at least one application into a control system of an industrial truck which has at least one control computer, which is operatively connected to driving functions and/or working functions and/or sensors of the industrial truck, and at least one application computer, characterized in that the application computer is a virtual computer integrated into the control computer, and in that the application is loaded as software into the application computer and accesses the driving functions and/or working functions and/or sensors of the industrial truck operatively connected to the control computer via defined interfaces of the application computer with the control computer.
A combination of a printed circuit board, PCB, and a single piece of sheet metal antenna (100; 300; 500B, 500C), the antenna comprising: a reflector/shield portion (130; 330; 530) formed of a lower surface (331; 531) that extends in a horizontal direction and includes a through-hole (335; 535); an antenna portion (110; 310; 510) formed of an upper surface (311; 511) that extends in the horizontal direction and includes a through-hole and a vertically extending side (312; 512) that is joined between the upper surface and the lower surface; and a feed point (120; 320; 520) formed of a through-hole flap attached and extending from the upper surface down and through the through-hole of the lower surface, wherein the through-hole flap is attached to the PCB, and wherein the reflector/shield portion further comprises: a vertically extending edge at an end opposite the end where the vertically extending side is joined to the lower surface; a first peg (332; 532), second peg (334; 534), and a third peg (337; 535) attached to the PCB; wherein the first peg (332; 532) extends from an edge of the through-hole downward toward the PCB; wherein the second peg (334; 534) and the third peg (337; 535) extend from the vertically extending edge downward toward the PCB; and wherein the vertically extending edge is formed by bending the reflector/shield portion. a reflector/shield portion (130; 330; 530) formed of a lower surface (331; 531) that extends in a horizontal direction and includes a through-hole (335; 535); an antenna portion (110; 310; 510) formed of an upper surface (311; 511) that extends in the horizontal direction and includes a through-hole and a vertically extending side (312; 512) that is joined between the upper surface and the lower surface; and a feed point (120; 320; 520) formed of a through-hole flap attached and extending from the upper surface down and through the through-hole of the lower surface, wherein the through-hole flap is attached to the PCB, and wherein the reflector/shield portion further comprises: a vertically extending edge at an end opposite the end where the vertically extending side is joined to the lower surface; a first peg (332; 532), second peg (334; 534), and a third peg (337; 535) attached to the PCB; wherein the first peg (332; 532) extends from an edge of the through-hole downward toward the PCB; wherein the second peg (334; 534) and the third peg (337; 535) extend from the vertically extending edge downward toward the PCB; and wherein the vertically extending edge is formed by bending the reflector/shield portion. a vertically extending edge at an end opposite the end where the vertically extending side is joined to the lower surface; a first peg (332; 532), second peg (334; 534), and a third peg (337; 535) attached to the PCB; wherein the first peg (332; 532) extends from an edge of the through-hole downward toward the PCB; wherein the second peg (334; 534) and the third peg (337; 535) extend from the vertically extending edge downward toward the PCB; and wherein the vertically extending edge is formed by bending the reflector/shield portion.
A method for cephalometrically determining a parameter of an individual comprising determining points of reference in a two or three-dimensional image and determining the parameter from the points of reference, wherein the method comprises - determining a first point of reference aL1 with the first point of reference being the apex of an incisor on the mandible; - determining a second point of reference B with the second point of reference as B point being the lowest point of the anterior contour of the mandibular alveolar process in the median sagittal plane and the most dorsal point on the curvature of the mandibular symphysis; - determining a third point of reference CEJ with the third point of reference being on the cemento-enamel junction of the incisor on the mandible of the individual; and - determining a fourth point of reference CEJ2 that on a vertical straight line (v) that extends through the third point of reference CEJ is spaced apart from the third point of reference CEJ toward the base of the mandible by a distance value (a) with the distance value (a) being in a range of 1.3 mm to 2.3 mm; and from the first point of reference aL1, the second point of reference B, and the fourth point of reference CEJ2 an angle aL1-CEJ2-B serving as an individual parameter is determined, the apex of which is the fourth point of reference CEJ2, the first side of which is a straight line connecting the fourth point of reference CEJ2 with the first point of reference aL1, and the second side of which is a straight line connecting the fourth point of reference CEJ2 with the second point of reference B. - determining a first point of reference aL1 with the first point of reference being the apex of an incisor on the mandible; - determining a second point of reference B with the second point of reference as B point being the lowest point of the anterior contour of the mandibular alveolar process in the median sagittal plane and the most dorsal point on the curvature of the mandibular symphysis; - determining a third point of reference CEJ with the third point of reference being on the cemento-enamel junction of the incisor on the mandible of the individual; and - determining a fourth point of reference CEJ2 that on a vertical straight line (v) that extends through the third point of reference CEJ is spaced apart from the third point of reference CEJ toward the base of the mandible by a distance value (a) with the distance value (a) being in a range of 1.3 mm to 2.3 mm;
A deflection device for protecting a track arrangement and in particular a track switch from environmental influences such as wind, snow or sand, - comprising an elongated retaining ledge extending along a longitudinal direction for mounting laterally next to the track arrangement, - wherein a flexible ground skirt and a flexible windscreen are attached to the retaining ledge, - wherein the ground skirt, following the elongated contour of the retaining ledge, projects from the retaining ledge in the direction of the ground, - wherein the windscreen, following the elongated contour of the retaining ledge, projects upwards from the retaining ledge, characterized - in that main incisions are provided in the ground skirt, each of which extends in the form of a slot from the external edge of the ground skirt into a functional opening with a rounded shape. - comprising an elongated retaining ledge extending along a longitudinal direction for mounting laterally next to the track arrangement, - wherein a flexible ground skirt and a flexible windscreen are attached to the retaining ledge, - wherein the ground skirt, following the elongated contour of the retaining ledge, projects from the retaining ledge in the direction of the ground, - wherein the windscreen, following the elongated contour of the retaining ledge, projects upwards from the retaining ledge, characterized - in that main incisions are provided in the ground skirt, each of which extends in the form of a slot from the external edge of the ground skirt into a functional opening with a rounded shape.
A method, comprising: receiving a traffic flow at a tamper resistant environment on a host from an application executing on the host, wherein the tamper resistant environment is separated from an operating system of the host; deriving a security token by the tamper resistant environment, wherein the security token is derived from an enhanced privacy identification to attest that the tamper resistant environment is trusted; creating a modified traffic flow by adding information associated with the application to the received traffic flow, adding a device identifier of the host, and applying the security token to the modified traffic flow; and sending the modified traffic flow to a server. receiving a traffic flow at a tamper resistant environment on a host from an application executing on the host, wherein the tamper resistant environment is separated from an operating system of the host; deriving a security token by the tamper resistant environment, wherein the security token is derived from an enhanced privacy identification to attest that the tamper resistant environment is trusted; creating a modified traffic flow by adding information associated with the application to the received traffic flow, adding a device identifier of the host, and applying the security token to the modified traffic flow; and sending the modified traffic flow to a server.