mhurhangee/ep-ind-claims huggingface dataset:
A method of estimating the skew of a local clock of a peer-to-peer transparent clock device connected through a network with d total,n, a master device having a master clock and a slave device, the method including the steps of: sending timing messages from the master device to the slave device over the network, the timing messages passing through said transparent clock device; recording times of sending of said timing messages by the master device; extracting, by the transparent clock device, from timing messages sent from the master device to the slave device, the times of sending of said timing messages; recording the times of receipt by the transparent clock device of timing messages sent from the master device to the slave device; extracting, by the transparent clock device, from the timing messages, the total delay experienced by each timing message in passing from the master device to the transparent clock device, including the residence time in other transparent clock devices between the master device and the transparent clock device; by the transparent clock device, measuring a message residence time for a timing message passing through the transparent clock device, modifying a correction field in the received timing message with at least the measured message residence time to generate a modified correction field in the timing message sent from the transparent clock device to the slave device; and estimating, by the transparent clock device, the skew of the local clock in the transparent clock device compared to the master clock using a plurality of each of said extracted and recorded times. sending timing messages from the master device to the slave device over the network, the timing messages passing through said transparent clock device; recording times of sending of said timing messages by the master device; extracting, by the transparent clock device, from timing messages sent from the master device to the slave device, the times of sending of said timing messages; recording the times of receipt by the transparent clock device of timing messages sent from the master device to the slave device; extracting, by the transparent clock device, from the timing messages, the total delay experienced by each timing message in passing from the master device to the transparent clock device, including the residence time in other transparent clock devices between the master device and the transparent clock device; by the transparent clock device, measuring a message residence time for a timing message passing through the transparent clock device, modifying a correction field in the received timing message with at least the measured message residence time to generate a modified correction field in the timing message sent from the transparent clock device to the slave device; and estimating, by the transparent clock device, the skew of the local clock in the transparent clock device compared to the master clock using a plurality of each of said extracted and recorded times.
A method, comprising: receiving, at a transmission control protocol, TCP, spoofer, a message from a local host (30, 40) including a request to initiate a TCP connection with a remote host (30, 40); determining from the message an IP address of the local host (30, 40); based on the determined IP address of the local host (30, 40), determining: characteristics of applications in use by the local host (30, 40) over a time window or packet loss conditions of the local host (30, 40) over the time window; determining spoofing resource conditions of the TCP spoofer; and determining at the TCP spoofer whether to spoof the TCP connection from the local host (30, 40) to the remote host (30, 40) using at least: the determined spoofing resource conditions of the TCP spoofer; and the characteristics of applications in use by the local host (30, 40) over the time window or the packet loss conditions of the local host (30, 40) over the time window. receiving, at a transmission control protocol, TCP, spoofer, a message from a local host (30, 40) including a request to initiate a TCP connection with a remote host (30, 40); determining from the message an IP address of the local host (30, 40); based on the determined IP address of the local host (30, 40), determining: characteristics of applications in use by the local host (30, 40) over a time window or packet loss conditions of the local host (30, 40) over the time window; determining spoofing resource conditions of the TCP spoofer; and determining at the TCP spoofer whether to spoof the TCP connection from the local host (30, 40) to the remote host (30, 40) using at least: the determined spoofing resource conditions of the TCP spoofer; and the characteristics of applications in use by the local host (30, 40) over the time window or the packet loss conditions of the local host (30, 40) over the time window. the determined spoofing resource conditions of the TCP spoofer; and the characteristics of applications in use by the local host (30, 40) over the time window or the packet loss conditions of the local host (30, 40) over the time window.
A self-propelled agricultural machine, in particular a harvester, comprising a driver operating position arranged behind a windscreen and a display instrument arranged in front of the driver operating position, wherein the display instrument is fixed to the windscreen, characterised in that a motor for driving a windscreen wiper of the windscreen is arranged in a housing of the display instrument.
A lead frame for attaching leads to a hermetic feedthrough, comprising: a cross-member; and a plurality of leads, each lead having an elongate body extending from the cross-member in a direction substantially parallel with one another; wherein each lead comprises at least one of a notch on an end thereof opposite to the cross-member and a projection proximate to the end; and wherein the at least one of the notch and the projection of each lead is configured to be aligned with a pad of a feedthrough for joining of the lead thereto. a cross-member; and a plurality of leads, each lead having an elongate body extending from the cross-member in a direction substantially parallel with one another; wherein each lead comprises at least one of a notch on an end thereof opposite to the cross-member and a projection proximate to the end; and wherein the at least one of the notch and the projection of each lead is configured to be aligned with a pad of a feedthrough for joining of the lead thereto.
A method for diagnosing the presence or for diagnosing the risk of development, or for the therapy control of spondyloarthritis (Spa), like ankylosing spondylitis and undifferentiated spondyloarthritis, in a subject comprising, on a biological sample obtained from the subject, analysing the sample for the presence of autoantibodies against CD74 and/or IKBKB, whereby the presence of autoantibodies against CD74 and/or IKBKB are indicative of the presence or the risk of development, or for the therapy control of Spa, like AS.
A computer-implemented method for enhanced event processing, the method comprising: receiving an enhanced event processing request, wherein the enhanced event processing request comprises an indication of input data from a database data source; wherein the input data from the database data source is not associated with a temporal element for the input data, accessing the input data in the indication of input data using a constructed data stream source, wherein the constructed data stream source provides access to a collection of snapshots, of database data of the database data source, over time, wherein the input data is accessed using the constructed data stream that comprises a temporal element; and generating an output for the enhanced event processing request based on the input data accessed using the constructed data stream. receiving an enhanced event processing request, wherein the enhanced event processing request comprises an indication of input data from a database data source; wherein the input data from the database data source is not associated with a temporal element for the input data, accessing the input data in the indication of input data using a constructed data stream source, wherein the constructed data stream source provides access to a collection of snapshots, of database data of the database data source, over time, wherein the input data is accessed using the constructed data stream that comprises a temporal element; and generating an output for the enhanced event processing request based on the input data accessed using the constructed data stream.
Sealing unit for sealing a transition between a valve member and an end of a fluid channel, comprising a sealing ring for sealing against the valve member, and a spring washer for sealing against the end of the fluid channel, wherein the sealing ring and the spring washer are sealingly connected to one another, characterized in that the sealing unit has at least one O-ring for influencing the spring action of the spring washer, wherein the O-ring takes the form of an elastomer element, wherein said spring washer has an inner end region and is connected to said sealing ring at said inner end region in a bonded, friction-locking and/or interlocking manner, wherein said spring washer has an outer end region, wherein said outer end region is directed away from said sealing ring, and wherein said outer end region of said spring washer is adapted to abut an exterior region of said end of said fluid channel in order to seal said outer end region against said exterior region.
A turbofan engine including: an engine case with an inlet and an interior of the engine; a bearing disposed on a portion of the engine case; the portion being substantially parallel to the centerline of the engine; a fan is disposed within the interior and rotates with operation of the engine, the fan having a plurality of fan blades, each fan blade is secured at a first end to a disk, and a second end of each fan blade is disposed adjacent to the bearing, characterized in that: the bearing is an abradable member having a non-uniform thickness or cross-section from the inlet to the interior, such that the bearing tapers from a first edge adjacent the inlet to a second edge 38 toward the interior and by virtue of the taper provides a narrowing of the engine inlet toward the interior of the engine at the bearing such that a force on a fan blade impacting the bearing directs the fan blade axially inward or away from the inlet. an engine case with an inlet and an interior of the engine; a bearing disposed on a portion of the engine case; the portion being substantially parallel to the centerline of the engine; a fan is disposed within the interior and rotates with operation of the engine, the fan having a plurality of fan blades, each fan blade is secured at a first end to a disk, and a second end of each fan blade is disposed adjacent to the bearing, characterized in that: the bearing is an abradable member having a non-uniform thickness or cross-section from the inlet to the interior, such that the bearing tapers from a first edge adjacent the inlet to a second edge 38 toward the interior and by virtue of the taper provides a narrowing of the engine inlet toward the interior of the engine at the bearing such that a force on a fan blade impacting the bearing directs the fan blade axially inward or away from the inlet.
A lighting apparatus for a vehicle comprising: headlamps configured to be switchable between high beam and low beam, wherein a direction of an optical axis of each of the headlamps is variable in a substantially horizontal plane by use of a swivel actuator, and wherein each of the headlamps includes a shade which is driven such that a light distribution pattern of the high beam is varied; and a controlling device configured to control the headlamps; characterized in that, if the controlling device detects, while projection by the high beam is performed, a forward vehicle in projection areas of the headlamps, the controlling device temporarily switches from the high beam to the low beam, then drives the swivel actuator toward a target swivel angle according to a position of the detected forward vehicle and, after finishing driving toward the target swivel angle or during driving toward the target swivel angle, starts projection by the high beam. headlamps configured to be switchable between high beam and low beam, wherein a direction of an optical axis of each of the headlamps is variable in a substantially horizontal plane by use of a swivel actuator, and wherein each of the headlamps includes a shade which is driven such that a light distribution pattern of the high beam is varied; and a controlling device configured to control the headlamps; characterized in that, if the controlling device detects, while projection by the high beam is performed, a forward vehicle in projection areas of the headlamps, the controlling device temporarily switches from the high beam to the low beam, then drives the swivel actuator toward a target swivel angle according to a position of the detected forward vehicle and, after finishing driving toward the target swivel angle or during driving toward the target swivel angle, starts projection by the high beam.
A method for transmitting data from a transmitter to a receiver over an optical super-channel formed by a set of sub-channels of different wavelengths, comprising: partitioning the data unequally into a set of data streams for transmission over a set of sub-channels of the optical super-channel, such that a bit-rate of a first data stream for transmission over a first sub-channel is different than a bit-rate of a second data stream of the data for transmission over a second sub-channel; encoding each data stream of the data with an error correction code having different ECC rates to produce a set of encoded data streams, such that a first ECC rate for encoding the first data stream to produce a first encoded data stream is different than a second ECC rate for encoding the second data stream; to produce a second encoded data stream, wherein a bit-rate of the first encoded data stream equals a bit-rate of the second encoded data stream, or the bandwidth of the first sub-channel equals the bandwidth of the second sub-channel, or both; and multiplexing the set of encoded data streams over the set of sub-channels of the optical super-channel. partitioning the data unequally into a set of data streams for transmission over a set of sub-channels of the optical super-channel, such that a bit-rate of a first data stream for transmission over a first sub-channel is different than a bit-rate of a second data stream of the data for transmission over a second sub-channel; encoding each data stream of the data with an error correction code having different ECC rates to produce a set of encoded data streams, such that a first ECC rate for encoding the first data stream to produce a first encoded data stream is different than a second ECC rate for encoding the second data stream; to produce a second encoded data stream, wherein a bit-rate of the first encoded data stream equals a bit-rate of the second encoded data stream, or the bandwidth of the first sub-channel equals the bandwidth of the second sub-channel, or both; and multiplexing the set of encoded data streams over the set of sub-channels of the optical super-channel.
A horizontal electric field liquid crystal display device comprising a plurality of pixels and including a reflection portion and a transmission portion in each pixel, the liquid crystal display device comprising in each pixel: a thin film transistor comprising: a gate electrode; a semiconductor layer comprising polycrystalline silicon; a gate insulating layer separating the gate electrode and the semiconductor layer; a first insulating layer over the thin film transistor; a first wiring on the first insulating layer and in direct contact with the semiconductor layer through an opening in the first insulating layer; a second insulating layer over the first wiring; a reflecting common electrode on the second insulating layer; a third insulating layer over the reflecting common electrode; and a pixel electrode on the third insulating layer and on the second insulating layer, wherein the pixel electrode is in electrical contact with the first wiring through an opening in the third insulating layer and an opening in the second insulating layer, wherein the reflecting common electrode is in electrical contact with a second wiring on the first insulating layer and made of the same film as the first wiring, wherein the second wiring is in electrical contact with a third wiring made of the same film as the gate electrode, and wherein the reflecting common electrode substantially overlaps in plan view with the portion of the pixel electrode formed on the third insulating layer to define the reflective portion of each pixel. a thin film transistor comprising: a gate electrode; a semiconductor layer comprising polycrystalline silicon; a gate insulating layer separating the gate electrode and the semiconductor layer; a gate electrode; a semiconductor layer comprising polycrystalline silicon; a gate insulating layer separating the gate electrode and the semiconductor layer; a first insulating layer over the thin film transistor; a first wiring on the first insulating layer and in direct contact with the semiconductor layer through an opening in the first insulating layer; a second insulating layer over the first wiring; a reflecting common electrode on the second insulating layer; a third insulating layer over the reflecting common electrode; and a pixel electrode on the third insulating layer and on the second insulating layer, wherein the pixel electrode is in electrical contact with the first wiring through an opening in the third insulating layer and an opening in the second insulating layer, wherein the reflecting common electrode is in electrical contact with a second wiring on the first insulating layer and made of the same film as the first wiring, wherein the second wiring is in electrical contact with a third wiring made of the same film as the gate electrode, and wherein the reflecting common electrode substantially overlaps in plan view with the portion of the pixel electrode formed on the third insulating layer to define the reflective portion of each pixel.
A method for evaluating survival of a patient suffering from lung cancer, comprising the steps of: a) detecting from a biological sample of said patient an expression profile of the DNA replication stress gene signature, said signature comprising the CDC6, CLASPIN, PLK1, and POLQ genes; b) comparing the expression profile of step a) with at least one reference expression profile, and c) evaluating the survival of the said patient from the said comparison; d) wherein the said reference expression profile is obtained by measuring the expression level of each of the genes of the said signature in a reference sample and wherein the said reference sample is a healthy lung tissue sample from the said patient a) detecting from a biological sample of said patient an expression profile of the DNA replication stress gene signature, said signature comprising the CDC6, CLASPIN, PLK1, and POLQ genes; b) comparing the expression profile of step a) with at least one reference expression profile, and c) evaluating the survival of the said patient from the said comparison; d) wherein the said reference expression profile is obtained by measuring the expression level of each of the genes of the said signature in a reference sample and wherein the said reference sample is a healthy lung tissue sample from the said patient
An organic electroluminescent device, comprising a pair of electrodes and at least one organic layer including a luminescent layer between the pair of electrodes, wherein at least one layer between the pair of electrodes comprises at least one metal complex, wherein the metal complex is a compound represented by formula: wherein, M 21 represents a metal ion; Y 21 represents a linking group, a single bond, or a double bond; Y 22 and Y 23 each represent a single bond or a linking group; Q 21 and Q 22 each represent an atomic group necessary to form a nitrogen-containing heterocycle; a bond between Y 21 and the ring formed with Q 21, and a bond between Y 21 and the ring formed with Q 22 each represent a single bond, or a double bond; X 21 and X 22 each represent, a sulfur atom, or a substituted or unsubstituted nitrogen atom; R 21, R 22, R 23, and R 24 each represent a hydrogen atom, or a substituent; R 21 and R 22, and R 23 and R 24, respectively, may bond to each other to form a ring; L 23 represents a ligand to coordinate to M 21; n 21 represents an integer of 0 to 4.
Method for producing flexographic printing plates, using as starting material a photopolymerizable flexographic printing plate which at least comprises, arranged one above another, • a dimensionally stable support, • at least one photopolymerizable, relief-forming layer, at least comprising an elastomeric binder, an ethylenically unsaturated compound and a photoinitiator, • a digitally imagable layer, comprising at least the following steps: (a) producing a mask by imaging the digitally imagable layer, (b) exposing the flexographic printing plate through the mask with actinic light, and photopolymerizing the image regions of the layer, the exposing taking place with a plurality of UV-LEDs which are arranged on at least one UV-LED strip which is moved relative to the surface of the flexographic printing plate, and (c) developing the photopolymerized layer by washing out and drying or by thermal development, characterized in that - in the UV-LED strip or in a separate strip, at least one ultrasonic sensor is arranged, - at least the thickness of the flexographic printing plate for exposure is determined with the at least one ultrasonic sensor, - depending on the measured thickness of the flexographic printing plate, the exposing of the flexographic printing plate is controlled in respect of at least one of the following parameters: (i) number of exposure steps, (ii) exposure intensity, (iii) energy input per exposure step, (iv) duration of the individual exposure steps, (v) overall duration of exposure. • a dimensionally stable support, • at least one photopolymerizable, relief-forming layer, at least comprising an elastomeric binder, an ethylenically unsaturated compound and a photoinitiator, • a digitally imagable layer, (a) producing a mask by imaging the digitally imagable layer, (b) exposing the flexographic printing plate through the mask with actinic light, and photopolymerizing the image regions of the layer, the exposing taking place with a plurality of UV-LEDs which are arranged on at least one UV-LED strip which is moved relative to the surface of the flexographic printing plate, and (c) developing the photopolymerized layer by washing out and drying or by thermal development, - in the UV-LED strip or in a separate strip, at least one ultrasonic sensor is arranged, - at least the thickness of the flexographic printing plate for exposure is determined with the at least one ultrasonic sensor, - depending on the measured thickness of the flexographic printing plate, the exposing of the flexographic printing plate is controlled in respect of at least one of the following parameters: (i) number of exposure steps, (ii) exposure intensity, (iii) energy input per exposure step, (iv) duration of the individual exposure steps, (v) overall duration of exposure. (i) number of exposure steps, (ii) exposure intensity, (iii) energy input per exposure step, (iv) duration of the individual exposure steps, (v) overall duration of exposure.