mhurhangee/ep-ind-claims huggingface dataset:
A method at a first server in a distributed network for validating a custom signature, the method comprising: receiving a first request to validate a first signing certificate from a first client; identifying a first tenant that relates to the first signing certificate from a plurality of tenants; accessing a first tenant certificate collection from a first tenant store remote from the first server in the distributed network; loading, on the first server, the first tenant certificate collection as a first tenant virtual store; performing validation of the first signing certificate using the first tenant virtual store; and upon receiving a request to validate a signing certificate of a tenant distinct from the first tenant, deleting the first tenant virtual store. receiving a first request to validate a first signing certificate from a first client; identifying a first tenant that relates to the first signing certificate from a plurality of tenants; accessing a first tenant certificate collection from a first tenant store remote from the first server in the distributed network; loading, on the first server, the first tenant certificate collection as a first tenant virtual store; performing validation of the first signing certificate using the first tenant virtual store; and upon receiving a request to validate a signing certificate of a tenant distinct from the first tenant, deleting the first tenant virtual store.
A bubble column reactor for reacting a predominately liquid-phase stream and a predominately gas-phase stream, the improvement comprising: a vessel shell including a reaction section and a disengagement section, wherein said reaction section defines an elongated reaction zone having a maximum diameter of from 1 to 12 meters, wherein said disengagement section is located above said reaction section and defines a disengagement zone in fluid communication with said reaction zone, wherein said disengagement zone has a maximum diameter and a maximum height, and wherein said vessel shell has an X:D ratio of at least 1.1:1, characterized in that said elongated reaction zone has a maximum length of at least 30 meters, wherein the length-to-diameter ratio L:D is from 6:1 to 30:1, wherein said reaction zone presents normally-upper and normally-lower ends spaced from one another by said length, and wherein said reactor further comprises one or more gas openings for introducing said gas-phase stream into said reaction zone, wherein a majority of the cumulative open area defined by all of said gas openings is located within 0.25D of said normally-lower end of said reaction zone, wherein said reactor further comprises one or more liquid openings for introducing said liquid-phase stream into said reaction zone, wherein at least 30 percent of the cumulative open area defined by all of said liquid openings is located within 1.5D of the gas opening located closest to said normally-lower end. a vessel shell including a reaction section and a disengagement section, wherein said reaction section defines an elongated reaction zone having a maximum diameter of from 1 to 12 meters, wherein said disengagement section is located above said reaction section and defines a disengagement zone in fluid communication with said reaction zone, wherein said disengagement zone has a maximum diameter and a maximum height, and wherein said vessel shell has an X:D ratio of at least 1.1:1, characterized in that said elongated reaction zone has a maximum length of at least 30 meters, wherein the length-to-diameter ratio L:D is from 6:1 to 30:1, wherein said reaction zone presents normally-upper and normally-lower ends spaced from one another by said length, and wherein said reactor further comprises one or more gas openings for introducing said gas-phase stream into said reaction zone, wherein a majority of the cumulative open area defined by all of said gas openings is located within 0.25D of said normally-lower end of said reaction zone, wherein said reactor further comprises one or more liquid openings for introducing said liquid-phase stream into said reaction zone, wherein at least 30 percent of the cumulative open area defined by all of said liquid openings is located within 1.5D of the gas opening located closest to said normally-lower end.
A satellite system for providing a communications link for a defined geographic region, wherein the geographic region is associated with a given communications network latency, the system comprising: a space segment comprising a plurality of satellites; and first and second ground segment systems (104,110), wherein the first and second ground segment systems are disposed at respective first and second locations, the first and second locations spanning the geographic region, wherein the space segment and the first and second ground segment systems are configured to establish a communications link between the first and second ground segment systems via the space segment, the communications link having a lower latency than the given communications network latency associated with the geographic region, wherein each of the plurality of satellites is in a repeating ground track orbit, wherein the plurality of satellites precede one another on the same ground track, and wherein the plurality of satellites are disposed in respective separate orbital planes (208, 216, 408, 408'). a space segment comprising a plurality of satellites; and first and second ground segment systems (104,110), wherein the first and second ground segment systems are disposed at respective first and second locations, the first and second locations spanning the geographic region, wherein the space segment and the first and second ground segment systems are configured to establish a communications link between the first and second ground segment systems via the space segment, the communications link having a lower latency than the given communications network latency associated with the geographic region, wherein each of the plurality of satellites is in a repeating ground track orbit, wherein the plurality of satellites precede one another on the same ground track, and wherein the plurality of satellites are disposed in respective separate orbital planes (208, 216, 408, 408').
Method for optical internal surveying of a seamless pipe produced by rolling or a longitudinal seam welded pipe produced from sheet metal plates reshaped to form half shells or from a reshaped sheet metal plate or from a metal strip unwound from a coil, comprising sensor means emitting a laser beam in the interior of the pipe and a laser tracker, wherein the sensor meals is moved horizontally through the pipe and wherein the laser beam emitted by the sensor means scans the internal contour of the pipe, characterised in that the internal contour of the pipe is surveyed in that a laser tracker, which is provided at the end of the travel path in fixed position linearly opposite the sensor means, tracks by its laser beam the respective position of the sensor means in the space of the pipe and detects deviations of the sensor means from rectilinearity, wherein the laser beam is reflected back to the laser tracker by a reflector arranged at the sensor means.
An intermediate bulk container, comprising a base, side plates, a valve provided on the base and a valve opening/closing device, characterized in that the valve opening/closing device comprises a handle (402,412,420,430), a motion-transferring device, and a valve opening/closing mechanism, wherein the opening/closing mechanism is a valve stem and the handle (402,412,420,430) is mounted on the side plate and connected to the motion-transferring device, and the motion-transferring device is mounted on the side plate and used to transfer the force applied on the handle (402,412,420,430) to the valve, so as to open or close the valve.
Ingress protection assembly for leading a wire, such as a signal line and/or a supply line, in a sealed-up manner through a partition wall of an electrical device, the ingress protection assembly comprising a first wall section provided with a receiving slot extending through the first wall section in a lead-through direction and opening at an inlet (112, 122) facing in an assembly direction of the ingress protection assembly; and a second wall section provided with a counter slot extending through the second wall section in the lead-through direction and opening at a counter inlet (112, 122) facing against the assembly direction, wherein at least in a fully assembled state of the ingress protection assembly, the first wall section and the second wall section are at least partially superimposed in a projection along the lead-through direction such that the receiving slot and the counter slot together form an aperture configured for tightly encompassing the wire; wherein the first wall section and the second wall section each comprise respective support surfaces (114, 124) on the opposing sides of the aperture, wherein at least in the fully assembled state, the support surfaces (114, 124) are configured to compress opposite sides of the wire to thereby form a seal between the wire and the first and second wall sections (110, 120); wherein at least one of the receiving slot and the counter receiving slot partially widen in a longitudinal direction of the ingress protection assembly extending essentially perpendicularly to the assembly direction and the lead-through direction, to form a wire compartment configured for tightly encompassing an outer circumference of the wire, and at least two wire compartments are arranged next each other along the assembly direction. wherein the first wall section and the second wall section each comprise respective support surfaces (114, 124) on the opposing sides of the aperture, wherein at least in the fully assembled state, the support surfaces (114, 124) are configured to compress opposite sides of the wire to thereby form a seal between the wire and the first and second wall sections (110, 120); wherein at least one of the receiving slot and the counter receiving slot partially widen in a longitudinal direction of the ingress protection assembly extending essentially perpendicularly to the assembly direction and the lead-through direction, to form a wire compartment configured for tightly encompassing an outer circumference of the wire, and at least two wire compartments are arranged next each other along the assembly direction.
A method for manipulating particles using a fluidized bed, the method comprising: rotating a chamber about an axis to create a centrifugal force field, the chamber comprising an inlet and an outlet; flowing a first stream containing a first media and particles into the chamber through the inlet, wherein flowing the first stream acts to create a force which opposes the centrifugal force; forming a fluidized bed of particles in the chamber, wherein the forces substantially immobilize the particles in the fluidized bed by the summation of vector forces acting on the particles; collecting the first media substantially without particles passing through the outlet of the chamber; then manipulating the particles in the fluidized bed, wherein said manipulating is selected from the group consisting of removing, concentrating, diluting, exchanging media, harvesting, transferring, dispensing, transfecting, electroporating, separating, extracting, isolating, selecting, purifying, coating, binding, physically modifying, and altering the environment; and thereafter removing the particles from the fluidized bed, wherein removing the particles comprises: flowing a second stream into the chamber through the outlet, wherein flowing the second stream acts to create a force at least partially in the same direction as the centrifugal force field; and collecting the particles passing through the inlet of the chamber. rotating a chamber about an axis to create a centrifugal force field, the chamber comprising an inlet and an outlet; flowing a first stream containing a first media and particles into the chamber through the inlet, wherein flowing the first stream acts to create a force which opposes the centrifugal force; forming a fluidized bed of particles in the chamber, wherein the forces substantially immobilize the particles in the fluidized bed by the summation of vector forces acting on the particles; collecting the first media substantially without particles passing through the outlet of the chamber; then manipulating the particles in the fluidized bed, wherein said manipulating is selected from the group consisting of removing, concentrating, diluting, exchanging media, harvesting, transferring, dispensing, transfecting, electroporating, separating, extracting, isolating, selecting, purifying, coating, binding, physically modifying, and altering the environment; and thereafter removing the particles from the fluidized bed, wherein removing the particles comprises: flowing a second stream into the chamber through the outlet, wherein flowing the second stream acts to create a force at least partially in the same direction as the centrifugal force field; and collecting the particles passing through the inlet of the chamber. flowing a second stream into the chamber through the outlet, wherein flowing the second stream acts to create a force at least partially in the same direction as the centrifugal force field; and collecting the particles passing through the inlet of the chamber.
Spray boom comprising a first section connected in a pivotable manner to a second section by means of an articulation, and a safety device intended to keep the said first section in the extension of the second section, and intended to allow the said first section to rotate relative to the said second section in case of collision with an obstacle, the said safety device for its part comprises a power accumulator connected on the one hand to the said first section and on the other hand to the said second section, the hitchting point of the said power accumulator on the said first section takes up at least two different positions relative to the said first section during rotation about the said articulation, characterized in that the displacement of the hitching point of the said power accumulator relative to the said first section is carried out by means of a roller rolling on a cam and that in one of the positions, the torque applied by the said power accumulator on the said first section relative to the said rotation axis becomes nil.
A curved flow channel (1, 2) with a built-in lattice structure, the curved flow channel (1, 2) comprising: a curved section; and a spatial lattice structure (11, 21) disposed inside the curved section and at an outer inside wall of the curved section away from a center of curvature of the curved section, the lattice structure (11, 21) not extending across a complete cross-section of the curved section, a cross-sectional area of the lattice structure (11, 21) being equal to or less than a half of a cross-sectional area of the curved section of the curved flow channel (1, 2), and the lattice structure (11, 21) comprising a plurality of unit lattices. a curved section; and a spatial lattice structure (11, 21) disposed inside the curved section and at an outer inside wall of the curved section away from a center of curvature of the curved section, the lattice structure (11, 21) not extending across a complete cross-section of the curved section, a cross-sectional area of the lattice structure (11, 21) being equal to or less than a half of a cross-sectional area of the curved section of the curved flow channel (1, 2), and the lattice structure (11, 21) comprising a plurality of unit lattices.
A telescopic slide (2, 2') for a microwave oven, having at least one first slide element (5, 5') produced from an electrically conductive material and a second slide element (6, 6') produced from an electrically conductive material, wherein the first and the second slide elements (5, 5', 6, 6') each have two running surfaces, wherein rolling bodies received in a rolling body cage (26, 27) are disposed on the two running surfaces of the first slide element (5, 5') and rolling bodies received in a rolling body cage (26, 27) are disposed on the two running surfaces of the second slide element (6, 6'), and wherein the first and the second slide elements (5, 5', 6, 6') can be moved against each other between a retracted position and an extended position along an extension direction, characterized in that the first slide element (5, 5') has at least one electrically conductive contact element (18, 22) and the second slide element (6, 6') has at least one electrically conductive contact element (19, 23), wherein the contact element (18, 22) of the first slide element (5, 5') and the contact element (19, 23) of the second slide element (6, 6') are configured and disposed on the slide elements (5, 5', 6, 6') in such a manner that in the retracted position, either the contact element of the first slide element and the contact element of the second slide element are in engagement with each other, or the contact element of the first slide element and the contact element of the second slide element are each in engagement with an electrically conducting conductive element that is moved concomitantly with the rolling body cage, such that in the retracted position, there is an electrically conducting connection between the first and the second slide elements (5, 5', 6, 6'), in that in at least one position other than the retracted position, the contact element of the first slide element and the contact element of the second slide element are not in engagement with each other or at least the contact element of the first slide element or the contact element of the second slide element is not in engagement with the conductive element, such that in the at least one other position, the electrically conducting connection is interrupted, and in that at least the first slide element (5, 5') or the second slide element (6, 6') has two limbs (12, 13), which form the running surfaces for the rolling bodies, and a connecting portion (14, 15) connecting the two limbs (12, 13), wherein the contact element (18, 19, 22, 23) is disposed on the connecting portion (14, 15).
A method in a base station of a wireless communication system, comprising: determining whether a first time slot of a broadcast transmission transmitted over a channel in accordance with a broadcast transmission scheme is adjacent to a second time slot of a unicast transmission transmitted over the channel in accordance with a unicast transmission scheme; and when the first time slot of a broadcast transmission is adjacent to a second time slot of the unicast transmission, determining a broadcast symbol within the first time slot that is adjacent to a unicast symbol of the second time slot; increasing a pilot power of the broadcast symbol and/or increasing a number of pilot sub-carriers for the broadcast symbol to be transmitted over the channel for purposes of performing channel estimation using the broadcast symbol by a receiver. determining whether a first time slot of a broadcast transmission transmitted over a channel in accordance with a broadcast transmission scheme is adjacent to a second time slot of a unicast transmission transmitted over the channel in accordance with a unicast transmission scheme; and when the first time slot of a broadcast transmission is adjacent to a second time slot of the unicast transmission, determining a broadcast symbol within the first time slot that is adjacent to a unicast symbol of the second time slot; increasing a pilot power of the broadcast symbol and/or increasing a number of pilot sub-carriers for the broadcast symbol to be transmitted over the channel for purposes of performing channel estimation using the broadcast symbol by a receiver.
Vehicle front, preferably lorry front or bus front, with a front outer skin, a windscreen and a ladder, wherein the ladder can be mounted in a manner secured on the vehicle by means of a ladder base (4.1) and a user can reach the windscreen from the outside via the ladder, characterized in that the ladder is designed as a telescopic ladder, wherein the vehicle front comprises a front opening via which the ladder can be pushed together behind the front outer skin for storage purposes and preferably via which the ladder can be extended in order to be brought into an operating position, wherein the front outer skin comprises an upper front outer skin component (2.1) and a lower front outer skin component (2.2), and the front opening is formed by the fact that the upper front outer skin component (2.1) is offset forwards in the longitudinal direction of the vehicle in relation to the lower front outer skin component (2.2).
A catheter system, comprising: a catheter adapter, comprising a distal end, a proximal end, and a lumen extending through the distal end and the proximal end; a catheter extending distally from the distal end of the catheter adapter; a needle hub, comprising a distal end and a proximal end, wherein the distal end of the needle hub is coupled to the proximal end of the catheter adapter, wherein the needle hub is transparent; a needle, comprising a distal end and a proximal end, wherein the needle is secured within the needle hub; a flow control plug that inserts into the proximal end of the needle hub; wherein an outer surface of the flow control plug includes side walls that form a channel within the proximal end of the needle hub, the channel forming a flashback pathway between the outer surface of the flow control plug and an inner surface of the needle hub; characterized in that the outer surface of the flow control plug includes a pocket that is positioned within the channel and extends through a distal end of the flow control plug, the proximal end of the needle is disposed within the pocket such that blood inside the needle flows into the pocket and then into the channel, and a proximal end of the channel includes one or more vents for venting air from the channel to thereby allow the blood to flow proximally within the channel. a catheter adapter, comprising a distal end, a proximal end, and a lumen extending through the distal end and the proximal end; a catheter extending distally from the distal end of the catheter adapter; a needle hub, comprising a distal end and a proximal end, wherein the distal end of the needle hub is coupled to the proximal end of the catheter adapter, wherein the needle hub is transparent; a needle, comprising a distal end and a proximal end, wherein the needle is secured within the needle hub; a flow control plug that inserts into the proximal end of the needle hub; wherein an outer surface of the flow control plug includes side walls that form a channel within the proximal end of the needle hub, the channel forming a flashback pathway between the outer surface of the flow control plug and an inner surface of the needle hub; characterized in that the outer surface of the flow control plug includes a pocket that is positioned within the channel and extends through a distal end of the flow control plug, the proximal end of the needle is disposed within the pocket such that blood inside the needle flows into the pocket and then into the channel, and a proximal end of the channel includes one or more vents for venting air from the channel to thereby allow the blood to flow proximally within the channel.