mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling inrush current between a power source and a load , comprising: an output capacitor configured to be coupled in parallel with the load ; a transistor having a gate , a collector configured to be coupled to the power source , and an emitter configured to be coupled to the load ; a supply resistor configured to be electrically coupled between the power source and the load and to provide a resistor charging current from the power source to the output capacitor to charge the output capacitor in response to initial power being provided by the power source ; and a gate resistor having a first terminal and a second terminal , the first terminal coupled to the gate of the transistor ; and a controller coupled to the second terminal of the gate resistor and configured to control a voltage applied to the gate of the transistor to cause the transistor to operate in a linear mode in response to the initial power being provided by the power source ; wherein the controller is further configured to identify a fully charged condition in response to determining that the output capacitor is fully charged, and to control the transistor to operate in an off mode in response to identifying the fully charged condition. an output capacitor configured to be coupled in parallel with the load ; a transistor having a gate , a collector configured to be coupled to the power source , and an emitter configured to be coupled to the load ; a supply resistor configured to be electrically coupled between the power source and the load and to provide a resistor charging current from the power source to the output capacitor to charge the output capacitor in response to initial power being provided by the power source ; and a gate resistor having a first terminal and a second terminal , the first terminal coupled to the gate of the transistor ; and a controller coupled to the second terminal of the gate resistor and configured to control a voltage applied to the gate of the transistor to cause the transistor to operate in a linear mode in response to the initial power being provided by the power source ; wherein the controller is further configured to identify a fully charged condition in response to determining that the output capacitor is fully charged, and to control the transistor to operate in an off mode in response to identifying the fully charged condition.
Airflow shut-off flap having a rotation axle , a first face and a second face opposite to the first face , said first and second faces of the shut-off flap defining a plane, said shut-off flap comprising: • a rotation shaft projecting on each face of the plane defined by the first and second faces of the shut-off flap , and • at least one lateral wall having a planar surface of substantially parallelepipedal shape arranged radially with respect to the rotation shaft , the rotation shaft having, in the plane of the at least one lateral wall , a half-ellipse shape extending along said at least one lateral wall , said half-ellipse shape comprising a major diameter (G1) that coincides with the rotation axle of the shut-off flap and a minor radius (P1) parallel to the plane of the at least one lateral wall , the first face having at least one first row of removals of material and the second face of the shut-off flap has at least one second row of removals of material , said rows of removals of material being positioned at the level of the rotation shaft parallel to the rotation axle of the shut-off flap , said removals of material corresponding to blind orifices, characterized in that the rotation shaft also has at least one longitudinal rib positioned substantially at the centre of the removals of material and parallel to the major diameter (G1) of the rotation shaft , the rotation shaft having a first row of removals of material comprising a first longitudinal rib positioned at the level of the rotation axle of the shut-off flap on the first face of the shut-off flap and a second row of removals of material comprising a second longitudinal rib on the second face of the shut-off flap in a manner offset from the rotation axle of the shut-off flap . • a rotation shaft projecting on each face of the plane defined by the first and second faces of the shut-off flap , and • at least one lateral wall having a planar surface of substantially parallelepipedal shape arranged radially with respect to the rotation shaft ,
An isolated nucleic acid molecule encoding a chimeric antigen receptor (CAR) comprising at least one extracellular antigen binding domain comprising a CD22 antigen binding domain comprising an amino acid sequence of SEQ ID NO: 52, 62, 72, 82, 92, 102, 112, 122, 132, 152, or 162, at least one transmembrane domain, and at least one intracellular signaling domain.
A cold-rolled steel sheet for crown caps, having a composition containing C: 0.02% to 0.08%, Si: 0.02% or less, Mn: 0.10% to 0.60%, P: 0.020% or less, S: 0.020% or less, Al: 0.01% to 0.06%, and N: 0.0100% to 0.0180% on a mass basis, the remainder being Fe and inevitable impurities, wherein N total-(N as AlN) is 0.0090% to 0.0170%, the maximum grain size of a carbide is 0.3 μm or more and 2.0 μm or less in a cross section in a rolling direction, measured according to the description, and the yield strength, measured using a tensile test specimen with a JIS #5 size in accordance with "JIS Z 2241" and after a heat treatment at 210° C for 15 minutes, is 420 MPa to 600 MPa in the rolling direction, where the N total is the total amount of N and the N as AlN is the amount of N present in the form of AlN, the N present in AlN being confirmed by dissolving and extracting AlN by a 10% Br-methanol solution and N present in the AlN quantitatively analyzed by absorptiometry.
Air vent for a vehicle, comprising a frame-shaped housing , in which a plurality of air guide elements are arranged, wherein first air guide elements are each mounted in a manner allowing pivot movement about a first pivot axis, and wherein second air guide elements are each mounted in a manner allowing pivot movement about a second pivot axis, wherein the first pivot axes extend perpendicular to the second pivot axes, further comprising a manually operable operating element for pivoting the air guide elements , characterized in that first guide rails are provided, along which the operating element for pivoting the first air guide elements about the first pivot axes is displaceable along a first direction of displacement, and that second guide rails are provided, along which the operating element for pivoting the second air guide elements about the second pivot axes is displaceable along a second direction of displacement.
An industrial hydraulic power take-off "PTO" , comprising: a housing mounted between a prime mover and a piece of driven equipment, the housing including, a hydraulic section having a clutch housing with multiple passages directing oil through the PTO ; a tower housing having multiple passages directing oil through the tower housing , characterized in that the tower housing is configured to connect to the clutch housing in multiple angularly indexed positions with respect to the clutch housing ; and a multi-position adapter is arranged between the tower and clutch housings , the multi-position adapter having spaced apart openings that align with various passages of the hydraulic and tower housings , wherein selecting an angularly indexed position of the multi-position adapter defines corresponding oil flow paths between respective ones of the passages of the hydraulic and tower housing and blocks flow through the remainder of the passages of the hydraulic and tower housings . a hydraulic section having a clutch housing with multiple passages directing oil through the PTO ; a tower housing having multiple passages directing oil through the tower housing , characterized in that the tower housing is configured to connect to the clutch housing in multiple angularly indexed positions with respect to the clutch housing ; and a multi-position adapter is arranged between the tower and clutch housings , the multi-position adapter having spaced apart openings that align with various passages of the hydraulic and tower housings , wherein selecting an angularly indexed position of the multi-position adapter defines corresponding oil flow paths between respective ones of the passages of the hydraulic and tower housing and blocks flow through the remainder of the passages of the hydraulic and tower housings .
An implant having an openwork, hollow-cylindrical main body , which is assembled from a plurality of openwork, hollow-cylindrical segments , which are arranged in succession in the longitudinal direction (L) and which are connected to one another, wherein the segments comprise a terminal segment at each end of the main body arranged in the longitudinal direction and at least one inner segment , which is arranged in the longitudinal direction (L) between the two terminal segments , wherein each segment has a plurality of bars , which together form a meandering structure with maximum points and minimum points which runs around in the circumferential direction, wherein the main body assumes a compressed state and an expanded state, wherein the meandering structure of at least one terminal segment has a smaller number of minimum points than the at least one inner segment , and characterised by at least one eyelet for the arrangement of a functional element consisting of an x-ray opaque and/or radiopaque material is provided in the meandering structure of at least one terminal segment of the main body .
A method , comprising: installing , by a network function virtualization compute element , an image supporting at least one virtualized network function on the compute element, the image comprising instructions and data to initiate a Transmission Control Protocol, TCP, connection between the compute element and a Software Defined Network, SDN, controller over a network upon a reboot of the compute element; rebooting the compute element after the installing; establishing , by the rebooted compute element as TCP client in accordance with the instructions and using the data, a TCP connection with the controller over the network; accepting , by the compute element as a cryptographic network protocol server, a cryptographic network protocol connection via the TCP connection from the controller as a cryptographic network protocol client in accordance with the instructions; accepting , by the compute element as a network management protocol server, a network management protocol connection via the cryptographic network protocol connection from the controller as network management protocol client in accordance with the instructions; receiving , by the compute element from the controller over the network management protocol connection, network management commands regarding a status of the rebooted compute element; and transmitting , by the compute element to the controller over the network management protocol connection, responses to the received commands in accordance with the instructions. installing , by a network function virtualization compute element , an image supporting at least one virtualized network function on the compute element, the image comprising instructions and data to initiate a Transmission Control Protocol, TCP, connection between the compute element and a Software Defined Network, SDN, controller over a network upon a reboot of the compute element; rebooting the compute element after the installing; establishing , by the rebooted compute element as TCP client in accordance with the instructions and using the data, a TCP connection with the controller over the network; accepting , by the compute element as a cryptographic network protocol server, a cryptographic network protocol connection via the TCP connection from the controller as a cryptographic network protocol client in accordance with the instructions; accepting , by the compute element as a network management protocol server, a network management protocol connection via the cryptographic network protocol connection from the controller as network management protocol client in accordance with the instructions; receiving , by the compute element from the controller over the network management protocol connection, network management commands regarding a status of the rebooted compute element; and transmitting , by the compute element to the controller over the network management protocol connection, responses to the received commands in accordance with the instructions.
A differential for a motor vehicle, in particular a utility vehicle, wherein the differential has a differential lock , wherein the differential lock has: a shift body , in particular a shift fork, which is movable in order to engage and in order to release the differential lock ; and a shift sleeve , which is connected to the shift body and is movable together with the shift body ; and a connecting component , which connects the shift body and the shift sleeve to one another for joint movement, wherein the connecting component is connected to the shift sleeve in an axially adjustable manner, in particular in order to set the play between the shift sleeve and the differential, characterized in that a relative positioning between the shift sleeve , on the one hand, and the connecting component and the shift body , on the other hand, is set via an axial adjustment of the connecting component on the shift sleeve . a shift body , in particular a shift fork, which is movable in order to engage and in order to release the differential lock ; and a shift sleeve , which is connected to the shift body and is movable together with the shift body ; and a connecting component , which connects the shift body and the shift sleeve to one another for joint movement, wherein the connecting component is connected to the shift sleeve in an axially adjustable manner, in particular in order to set the play between the shift sleeve and the differential, characterized in that a relative positioning between the shift sleeve , on the one hand, and the connecting component and the shift body , on the other hand, is set via an axial adjustment of the connecting component on the shift sleeve .
A coryneform bacterium transformant engineered by the following (A) to (E): (A) enhancement of 3-deoxy-D-arabino-heptulosonate-7-phosphate (DAHP) synthase activity; (B) prevention, inhibition, or reduction of intracellular sugar uptake mediated by phosphoenolpyruvate:sugar phosphotransferase system (PTS); (C) enhancement of intracellular sugar uptake activity mediated by a sugar transporter different from phosphoenolpyruvate:sugar phosphotransferase system; (D) enhancement of glyceraldehyde-3-phosphate dehydrogenase (GAPDH) activity; and (E) enhancement of glucokinase activity, wherein the sugar transporter different from phosphoenolpyruvate:sugar phosphotransferase system (PTS) is an inositol transporter. (A) enhancement of 3-deoxy-D-arabino-heptulosonate-7-phosphate (DAHP) synthase activity; (B) prevention, inhibition, or reduction of intracellular sugar uptake mediated by phosphoenolpyruvate:sugar phosphotransferase system (PTS); (C) enhancement of intracellular sugar uptake activity mediated by a sugar transporter different from phosphoenolpyruvate:sugar phosphotransferase system; (D) enhancement of glyceraldehyde-3-phosphate dehydrogenase (GAPDH) activity; and (E) enhancement of glucokinase activity,
Tablet press , comprising a shaft and a punch head , wherein the punch head has a circumferential surface , a central mirror surface on the side of the circumferential surface facing away from the shaft , and a retraction surface on the side of the circumferential surface facing the shaft , wherein the punch head has a head basic body and, separately therefrom, a central pressure absorption element , wherein the head basic body is connected non-rotatably and in particular integrally to the shaft , wherein the circumferential surface and the retraction surface are formed on the head basic body , and wherein the central mirror surface is formed on the pressure absorption element , characterized in that the pressure absorption element is mounted rotatably in the head basic body , in that , for the rotatable mounting of the pressure absorption element in the head basic body , the tablet press has an axial pressure bearing and, separately therefrom, a drop-out guard , in that , in order to form the drop-out guard , a retaining magnet is arranged between the head basic body and the pressure absorption element , and in that a receiving space with a base is formed in the head basic body , wherein the retaining magnet rests flat on the base of the receiving space , and wherein a gap remains between the retaining magnet and the pressure absorption element .
A fan assembly for a gas turbine, the assembly comprising: one or more fan blades ; and a fan frame having a fan exit case rear , a plurality of fan exit guide vanes and an intermediate case , wherein each of said plurality of fan exit guide vanes is connected to said intermediate case by a forward joint and an aft joint , wherein for each of said plurality of fan exit guide vanes one of said forward joint and said aft joint constrains movement of said fan exit guide vane in a radial and axial direction with respect to said intermediate case and the other of said forward joint and said aft joint constrains movement of said fan exit guide vane in a radial direction with respect to said intermediate case ; characterized in that the forward joint is connected in a direction perpendicular to a centerline (X) of the gas turbine, and the aft joint is connected in a direction parallel to the centerline (X) of the gas turbine. one or more fan blades ; and a fan frame having a fan exit case rear , a plurality of fan exit guide vanes and an intermediate case , wherein each of said plurality of fan exit guide vanes is connected to said intermediate case by a forward joint and an aft joint , wherein for each of said plurality of fan exit guide vanes one of said forward joint and said aft joint constrains movement of said fan exit guide vane in a radial and axial direction with respect to said intermediate case and the other of said forward joint and said aft joint constrains movement of said fan exit guide vane in a radial direction with respect to said intermediate case ; characterized in that the forward joint is connected in a direction perpendicular to a centerline (X) of the gas turbine, and the aft joint is connected in a direction parallel to the centerline (X) of the gas turbine.
A method for extracting an analyte from a sample, the method comprising: introducing a sample into a capillary; inserting a probe into the capillary, wherein the probe comprises an adsorbent material, the probe being configured to fit within the capillary such that the adsorbent matter enters the sample interacting within the capillary the sample with the adsorbent material of the probe such that at least one analyte is extracted from the sample and binds to the adsorbent material, wherein the adsorbent material comprises a polyporous polymer comprising micropores, mesopores, and pores larger than micropores and mesopores; interacting the adsorbent material of the probe with an extraction solvent by at least one of: (i) moving the probe from the sample into the extraction solvent that is already within the capillary in a manner that the adsorbent material enters the extraction solvent wherein the sample is immiscible with the extraction solvent; or (ii) removing the sample from the capillary after the probe has been inserted into the sample within the capillary, and introducing the extraction solvent into the capillary in a manner that the adsorbent material interacts with the extraction solvent; and interacting the extraction solvent with the adsorbent material in order to elute the at least one analyte from the adsorbent material. introducing a sample into a capillary; inserting a probe into the capillary, wherein the probe comprises an adsorbent material, the probe being configured to fit within the capillary such that the adsorbent matter enters the sample interacting within the capillary the sample with the adsorbent material of the probe such that at least one analyte is extracted from the sample and binds to the adsorbent material, wherein the adsorbent material comprises a polyporous polymer comprising micropores, mesopores, and pores larger than micropores and mesopores; interacting the adsorbent material of the probe with an extraction solvent by at least one of: (i) moving the probe from the sample into the extraction solvent that is already within the capillary in a manner that the adsorbent material enters the extraction solvent wherein the sample is immiscible with the extraction solvent; or (ii) removing the sample from the capillary after the probe has been inserted into the sample within the capillary, and introducing the extraction solvent into the capillary in a manner that the adsorbent material interacts with the extraction solvent; and (i) moving the probe from the sample into the extraction solvent that is already within the capillary in a manner that the adsorbent material enters the extraction solvent wherein the sample is immiscible with the extraction solvent; or (ii) removing the sample from the capillary after the probe has been inserted into the sample within the capillary, and introducing the extraction solvent into the capillary in a manner that the adsorbent material interacts with the extraction solvent; and interacting the extraction solvent with the adsorbent material in order to elute the at least one analyte from the adsorbent material.