mhurhangee/ep-ind-claims huggingface dataset:
A method for centralized heat disinfection control for a dialysis system, comprising: providing a central water processing system, a plurality of dialysis machines (103A-D) having fluid inlets (101A-D) which are fluidly connected to a water supply loop which circulates heated water from the central water processing system to fluid inlets (101A-D) of the dialysis machines (103A-D) and back to the central water processing system; supplying heated water to the loop from the central water processing system; sensing water temperature with temperature sensors (119A-D) at the fluid inlets (101A-D) of the plurality of dialysis machines (103A-D) on the loop; and communicating data on the sensed temperature at the fluid inlets (101A-D) of the dialysis machines (103A-D) to a process controller capable of (i) comparing the sensed temperature to a predetermined value or value range selected for disinfection, and (ii) issuing an alarm, or controlling a temperature controller for adjusting water temperature of water at the central water processing system when a sensed inlet water temperature of a dialysis machine (103A-D) does not meet the predetermined value or value range, or both. providing a central water processing system, a plurality of dialysis machines (103A-D) having fluid inlets (101A-D) which are fluidly connected to a water supply loop which circulates heated water from the central water processing system to fluid inlets (101A-D) of the dialysis machines (103A-D) and back to the central water processing system; supplying heated water to the loop from the central water processing system; sensing water temperature with temperature sensors (119A-D) at the fluid inlets (101A-D) of the plurality of dialysis machines (103A-D) on the loop; and communicating data on the sensed temperature at the fluid inlets (101A-D) of the dialysis machines (103A-D) to a process controller capable of (i) comparing the sensed temperature to a predetermined value or value range selected for disinfection, and (ii) issuing an alarm, or controlling a temperature controller for adjusting water temperature of water at the central water processing system when a sensed inlet water temperature of a dialysis machine (103A-D) does not meet the predetermined value or value range, or both.
A method comprising: receiving a bitstream comprising at least a first coded video stream, CVS, the first CVS having a plurality of temporal sub-layers and comprising a first flag that indicates whether each of the plurality of temporal sub-layers in the first CVS has a respectively corresponding set of temporal sub-layer parameters, each respective set of temporal sub-layer parameters applicable to a respective temporal sub-layer, or whether a common set of temporal sub-layer parameters is applicable to the plurality of temporal sub-layers, wherein each temporal sub-layer corresponds to a respective temporal identifier value indicating a level in a hierarchical temporal prediction structure; and characterised in that the first flag further indicates the absence or presence of specific types of VCL NAL units in the CVS, wherein a given value of the first flag specifies that TSA and STSA NAL unit types are not present in the CVS.
A communication method comprising: detecting a status of a direct link directly connected from a source device to a destination device or a status of a relay link connected from the source device to the destination device via a relay device; selecting any one of the direct link and the relay link based on a result of the detection; and transmitting data using the selected link, wherein the relay device operates in a normal mode or an alternative mode, wherein the data is transmitted to the destination device using any one link until any one of the direct link and the relay link is determined to be unavailable, when the relay device operates in the normal mode, wherein the source device transmits data to the destination device alternately using the direct link and the relay link at each start point of a preset link change interval, when the relay device operates in the alternative mode, when the relay device operates in the normal mode and a media access control header of a last frame received from the source device has a more data field of 0, wherein the destination device maintains the selected link even if data is not received through the selected link during a data sensing time, when the relay device operates in the alternative mode and a MAC header of a last frame received from the source device has a more data field of 0, wherein the destination device maintains the selected link, instead of exchanging links in the next link change interval to the preset link change interval. detecting a status of a direct link directly connected from a source device to a destination device or a status of a relay link connected from the source device to the destination device via a relay device; selecting any one of the direct link and the relay link based on a result of the detection; and transmitting data using the selected link, wherein the relay device operates in a normal mode or an alternative mode, wherein the data is transmitted to the destination device using any one link until any one of the direct link and the relay link is determined to be unavailable, when the relay device operates in the normal mode, wherein the source device transmits data to the destination device alternately using the direct link and the relay link at each start point of a preset link change interval, when the relay device operates in the alternative mode, when the relay device operates in the normal mode and a media access control header of a last frame received from the source device has a more data field of 0, wherein the destination device maintains the selected link even if data is not received through the selected link during a data sensing time, when the relay device operates in the alternative mode and a MAC header of a last frame received from the source device has a more data field of 0, wherein the destination device maintains the selected link, instead of exchanging links in the next link change interval to the preset link change interval.
A machine tool which is provided with an emergency stop system for making operation of a machine stop on an emergency basis, said machine tool provided with a splash guard which surrounds a machining region of said machine tool and an emergency stop switch which is arranged at an edge part which is formed between a first outside surface of said splash guard and a second outside surface of said splash guard which intersects said first outside surface and which outputs an emergency stop signal to said emergency stop system, characterized in that said edge part is formed from a chamfered surface (16, 17) which intersects said first outside surface and said second outside surface, and said emergency stop switch is arranged on said chamfered surface (16, 17).
A system comprising: a radiation source, a detector and a photonics integrated system, the photonics integrated system comprising - a substrate, - an integrated interferometer integrated in the substrate and being configured for receiving radiation from a radiation source, and - an integrated spectral filter integrated in the substrate and being configured for receiving radiation from the interferometer, wherein the integrated interferometer has a period (P ii) and the integrated spectral filter has a bandwidth (BW sa) such that the period (P ii) of the integrated interferometer is smaller than the bandwidth (BW sa) of the integrated spectral filter, and the system being characterized in that the integrated spectral filter has a periodic transfer characteristic with a period (P sa) and the system has a bandwidth (BW system) determined by the bandwidth of the radiation source, components of the photonics integrated system and of the detector, such that the period (P sa) of the periodic transfer characteristic of the integrated spectral filter is larger than the bandwidth (BW system) of the system. a radiation source, a detector and a photonics integrated system, the photonics integrated system comprising - a substrate, - an integrated interferometer integrated in the substrate and being configured for receiving radiation from a radiation source, and - an integrated spectral filter integrated in the substrate and being configured for receiving radiation from the interferometer, - a substrate, - an integrated interferometer integrated in the substrate and being configured for receiving radiation from a radiation source, and - an integrated spectral filter integrated in the substrate and being configured for receiving radiation from the interferometer, wherein the integrated interferometer has a period (P ii) and the integrated spectral filter has a bandwidth (BW sa) such that the period (P ii) of the integrated interferometer is smaller than the bandwidth (BW sa) of the integrated spectral filter, and the system being characterized in that the integrated spectral filter has a periodic transfer characteristic with a period (P sa) and the system has a bandwidth (BW system) determined by the bandwidth of the radiation source, components of the photonics integrated system and of the detector, such that the period (P sa) of the periodic transfer characteristic of the integrated spectral filter is larger than the bandwidth (BW system) of the system.
A Connector assembly comprising a one-piece connector element and a corrugated tube fluidically connected to the connector element, wherein the connector element comprises a through channel extending along a center axis, which opens on one side of the connector element into a mandrel formed on the connector element, the mandrel having a holding area and a sealing area, and at least two holding elements being arranged in the holding area axially adjacent to the center axis, wherein the corrugated tube is slipped onto the mandrel with a corrugated slip-on section in a slip-on direction and is arranged in the holding area and the sealing area and is fluidically connected to the through channel of the connector element, wherein the holding area and the sealing area are arranged one behind the other axially to the center axis, wherein the mandrel in the sealing area has formed a flat surface facing the corrugated tube, which has a larger outer diameter facing the corrugated tube than an inner diameter of the corrugated tube facing the mandrel in a wave trough characterized in that at least one holding element is formed as a wave element of the mandrel which is particularly fully circumferential with respect to the center axis and which at a wave maximum of the wave element has a larger outer diameter facing the corrugated tube than the inner diameter of the corrugated tube in the wave trough, and the wave element has a holding slope which reduces the outer diameter of the wave element in the wave maximum in the slip-on direction to a holding diameter.
A method for generating a stereoscopic video stream comprising composite images, said composite images comprising information about a right image and a left image, wherein pixels of said right image and pixels of said left image are selected, and said selected pixels are entered into a composite image of said stereoscopic video stream, all the pixels of said right image and all the pixels of said left image are entered into said composite image by leaving one of said two images unchanged and breaking up the other one into regions (R1, R2, R3) having a rectangular shape and comprising a plurality of pixels and entering said regions into said composite image in areas of said composite image not occupied by said unchanged image, the ratio between horizontal and vertical resolution of said left and right images being unchanged, said composite image being a frame of said stereoscopic video stream having a number of pixels equal to or greater than the sum of the pixels of said left and right images, the method being characterized in that, in order to reduce, in the boundary area of said regions, the generation of artifacts due to the image compression, said regions are obtained through the steps of: - dividing vertically said other image into two equally sized portions; - dividing horizontally one of said two equally sized portions into two further equally sized portions (R2, R3), the other of said two equally sized portions being not further divided. - dividing vertically said other image into two equally sized portions; - dividing horizontally one of said two equally sized portions into two further equally sized portions (R2, R3), the other of said two equally sized portions being not further divided.
A method for manufacturing a section of an aircraft fuselage, the method comprising: positioning a plurality of stiffeners (230, 336, 338, 450) on a mandrel assembly, wherein each of the stiffeners (230, 336, 338, 450) includes: a raised portion (234, 334, 434) projecting away from a skin (220, 320, 420); and a plurality of first and opposing second flange portions (231 a, 231 b, 337a, 337b, 431, 437), the flange portions (231 a, 231 b, 337a, 337b, 431, 437) being configured to be mated to the skin, and wherein the first flange portions (231a, 331a, 331b, 431) and/or the second flange portions (231 b, 331b) extend outwardly from the respective raised portion (234, 334) to at least approximately contact the corresponding flange portion (231 a, 231 b, 337a, 337b, 431, 437) of an adjacent one of the stiffeners (230, 336, 228, 450), thereby forming at least approximately continuous support surfaces extending between the raised portions of the stiffeners; applying a plurality of fiber tows to form the continuous skin (220, 320, 420) extending 360 degrees around the mandrel assembly; and cocuring the stiffeners (230, 336, 338, 450) and the plurality of fiber tows. positioning a plurality of stiffeners (230, 336, 338, 450) on a mandrel assembly, wherein each of the stiffeners (230, 336, 338, 450) includes: a raised portion (234, 334, 434) projecting away from a skin (220, 320, 420); and a plurality of first and opposing second flange portions (231 a, 231 b, 337a, 337b, 431, 437), the flange portions (231 a, 231 b, 337a, 337b, 431, 437) being configured to be mated to the skin, and wherein the first flange portions (231a, 331a, 331b, 431) and/or the second flange portions (231 b, 331b) extend outwardly from the respective raised portion (234, 334) to at least approximately contact the corresponding flange portion (231 a, 231 b, 337a, 337b, 431, 437) of an adjacent one of the stiffeners (230, 336, 228, 450), thereby forming at least approximately continuous support surfaces extending between the raised portions of the stiffeners; applying a plurality of fiber tows to form the continuous skin (220, 320, 420) extending 360 degrees around the mandrel assembly; and cocuring the stiffeners (230, 336, 338, 450) and the plurality of fiber tows.
A method comprising the step of detecting modulation in gene expression data, generated from RNA levels in a subject derived sample, characterised in that a 6 gene signature GBP6, TMCC1, PRDM1, ARG1, CREB5 and VPREB3 is employed to discriminate active tuberculosis from other diseases in the presence of a complicating factor.
Distribution device for the distribution of agricultural harvested material, having a shield element with a harvested material contact surface angled relative to a working direction for pushing the harvested material in the working direction and a multiplicity of prong elements projecting from the shield element and extending longitudinally parallel to one another in the working direction, characterized in that the prong elements are mounted rotatably about axes of rotation extending in the working direction relative to the shield element for conveying the harvested material transversely to the working direction.
A method of implementing multipath TCP, MPTCP, on a first node, comprising: at a data link layer of the first node, receiving an indication from a remote node that carrier aggregation is supported by the remote node and establishing first and second data link layer connections with the remote node, at the data link layer, notifying a network layer of the first node of the establishment of the first and second data link layer connections, the network layer further notifying a transport layer of the first node of the establishment of the first and second data link layer connections, at the transport layer, establishing first and second transport layer connections with the remote node over the first and second data link layer connections, wherein the first and second transport layer connections are MPTCP sub-flows; at the data link layer, inspecting a packet received from the network layer; and at the data link layer, assigning the received packet to one of the first the first data link layer connection and the second data link layer connection based on an affinity between an MPTCP sub-flow associated with the packet and the one of the first data link layer connection and the second data link layer connection. at a data link layer of the first node, receiving an indication from a remote node that carrier aggregation is supported by the remote node and establishing first and second data link layer connections with the remote node, at the data link layer, notifying a network layer of the first node of the establishment of the first and second data link layer connections, the network layer further notifying a transport layer of the first node of the establishment of the first and second data link layer connections, at the transport layer, establishing first and second transport layer connections with the remote node over the first and second data link layer connections, wherein the first and second transport layer connections are MPTCP sub-flows; at the data link layer, inspecting a packet received from the network layer; and at the data link layer, assigning the received packet to one of the first the first data link layer connection and the second data link layer connection based on an affinity between an MPTCP sub-flow associated with the packet and the one of the first data link layer connection and the second data link layer connection.
A computer-implemented method for inferring activity of a JAK-STAT1/2 cellular signaling pathway in a subject performed by a digital processing device, wherein the inferring comprises: receiving expression levels of three or more target genes of the JAK-STAT1/2 cellular signaling pathway measured in a sample of the subject, determining an activity level of a JAK-STAT1/2 transcription factor element in the sample of the subject, the JAK-STAT1/2 TF element controlling transcription of the three or more JAK-STAT1/2 target genes, the determining being based on evaluating a calibrated mathematical pathway model relating the expression levels of the three or more JAK-STAT1/2 target genes to the activity level of the JAK-STAT1/2 TF element, and inferring the activity of the JAK-STAT1/2 cellular signaling pathway in the subject based on the determined activity level of the JAK-STAT1/2 TF element in the sample of the subject, wherein the three or more JAK-STAT1/2 target genes are selected from the group consisting of: BID, GNAZ, IRF1, IRF7, IRF8, IRF9, LGALS1, NCF4, NFAM1, OAS1, PDCD1, RAB36, RBX1, RFPL3, SAMM50, SMARCB1, SSTR3, ST13, STAT1, TRMT1, UFD1L, USP18, and ZNRF3, preferably, from the group consisting of: IRF1, IRF7, IRF8, IRF9, OAS1, PDCD1, ST13, STAT1, and USP18, wherein the activity of the JAK-STAT1/2 cellular signaling pathway is inferred to be either IFN type I activity or IFN type II activity by using two calibrated mathematical pathway models of which one is calibrated on IFN type I activity and the other is calibrated on IFN type II activity. receiving expression levels of three or more target genes of the JAK-STAT1/2 cellular signaling pathway measured in a sample of the subject, determining an activity level of a JAK-STAT1/2 transcription factor element in the sample of the subject, the JAK-STAT1/2 TF element controlling transcription of the three or more JAK-STAT1/2 target genes, the determining being based on evaluating a calibrated mathematical pathway model relating the expression levels of the three or more JAK-STAT1/2 target genes to the activity level of the JAK-STAT1/2 TF element, and inferring the activity of the JAK-STAT1/2 cellular signaling pathway in the subject based on the determined activity level of the JAK-STAT1/2 TF element in the sample of the subject, wherein the three or more JAK-STAT1/2 target genes are selected from the group consisting of: BID, GNAZ, IRF1, IRF7, IRF8, IRF9, LGALS1, NCF4, NFAM1, OAS1, PDCD1, RAB36, RBX1, RFPL3, SAMM50, SMARCB1, SSTR3, ST13, STAT1, TRMT1, UFD1L, USP18, and ZNRF3, preferably, from the group consisting of: IRF1, IRF7, IRF8, IRF9, OAS1, PDCD1, ST13, STAT1, and USP18, wherein the activity of the JAK-STAT1/2 cellular signaling pathway is inferred to be either IFN type I activity or IFN type II activity by using two calibrated mathematical pathway models of which one is calibrated on IFN type I activity and the other is calibrated on IFN type II activity.
Method for calibration of a terminal with a multi-sector antenna in a mesh broadcast network comprising at least one other terminal, characterized in that the method comprises steps for: selecting one of the sectors of the antenna of the terminal to be calibrated, receiving by the selected sector the identification signals transmitted by each one of the other terminals present of the network as well as the associated signal level information, and storing in the memory of the terminal to be calibrated, for each sector, the different identification signals of the network terminals present as well as the items of received signal level information. selecting one of the sectors of the antenna of the terminal to be calibrated, receiving by the selected sector the identification signals transmitted by each one of the other terminals present of the network as well as the associated signal level information, and storing in the memory of the terminal to be calibrated, for each sector, the different identification signals of the network terminals present as well as the items of received signal level information.
A filter device (100, 130) comprising a guide structure (102, 132, 234, 388, 412, 434, 446, 464, 630, 656), an anchor (110, 150) secured at a fixed location on the guide structure (102, 132, 234, 388, 412, 434, 446, 464, 630, 656) having a central axis, a slide (112, 161, 432, 442, 444, 460) positioned over the guide structure (102, 132, 234, 388, 412, 434, 446, 464, 630, 656), a filter cartridge (104, 134, 170, 200, 220) secured on one end to the anchor (110, 150) and on the other end to the slide (112, 161, 432, 442, 444, 460), wherein the filter cartridge (104, 134, 170, 200, 220) comprises a plurality of polymer fibers in an unwoven bundle in an un-deployed configuration, and one or more metal elements (114, 154, 176, 206, 208, 210, 212) radially below relative to the central axis the bundle of polymer fibers secured around the guide structure (102, 132, 234, 388, 412, 434, 446, 464, 630, 656), wherein the metal elements (114, 154, 176, 206, 208, 210, 212) have a deployed configuration with the slide (112, 161, 432, 442, 444, 460) approaching closer to the anchor (110, 150) with the metal elements (114, 154, 176, 206, 208, 210, 212) forming a curved structure extending radially outward, and wherein the device has an un-deployed low profile configuration and an unconstrained deployed configuration with the furthest radial extent of the metal elements (114, 154, 176, 206, 208, 210, 212) being below a mat of fibers.