mhurhangee/ep-ind-claims huggingface dataset:
An in vitro method for detecting class II restricted CD4+ T cells in a sample comprising the steps of: - providing a sample, - contacting said sample with a complex of an isolated MHC class II molecule and a peptide, said peptide comprising an MHC class II restricted T cell epitope of an antigenic protein and immediately adjacent thereof, or separated by a linker of at most 7 amino acids, a sequence with a -XX-C or C-XX- redox motif, wherein X is any amino acid and wherein stands for one amino acid selected from: a Cysteine, a Serine or a Threonine, and - measuring the binding of said complex with cells in said sample, wherein the binding of said complex to a cell is indicative for the presence of CD4+ T cells in said sample. - providing a sample, - contacting said sample with a complex of an isolated MHC class II molecule and a peptide, said peptide comprising an MHC class II restricted T cell epitope of an antigenic protein and immediately adjacent thereof, or separated by a linker of at most 7 amino acids, a sequence with a -XX-C or C-XX- redox motif, wherein X is any amino acid and wherein stands for one amino acid selected from: a Cysteine, a Serine or a Threonine, and - measuring the binding of said complex with cells in said sample, wherein the binding of said complex to a cell is indicative for the presence of CD4+ T cells in said sample.
A filter for filtering liquid fuels, the filter comprising: filter media configured and arranged for placement in a liquid fuel stream, the filter media comprising an upstream layer and a downstream layer, wherein the upstream layer comprises a mixture of: a) media fiber; and b) binder fiber having an average diameter greater than the media fiber, wherein the upstream layer has a mean flow pore size smaller than the downstream layer, and wherein the mode pore size of the upstream layer is at least 40 percent greater than the mode pore size of the downstream layer. filter media configured and arranged for placement in a liquid fuel stream, the filter media comprising an upstream layer and a downstream layer, wherein the upstream layer comprises a mixture of: a) media fiber; and b) binder fiber having an average diameter greater than the media fiber, a) media fiber; and b) binder fiber having an average diameter greater than the media fiber, wherein the upstream layer has a mean flow pore size smaller than the downstream layer, and wherein the mode pore size of the upstream layer is at least 40 percent greater than the mode pore size of the downstream layer.
Insertion pipe clamp comprising at least one pipe clamp bracket with lateral clasps and supports with a plurality of lateral openings, wherein the pipe clamp bracket comprises a left and a right end region (21, 22) with one opening each, the supports can be inserted into the openings of the end regions (21, 22) and the clasps can be slid over the end regions (21, 22) in such a way that the clasps engage into at least one opening of the support in order to attach the pipe clamp to the support, wherein the insertion pipe clamp comprises a base plate and the supports comprise a foot arranged essentially at a right angle in the lower end region of the supports, characterized in that the base plate and the foot of the supports for fastening the supports to the base plate together form a screw cap, the screw cap comprises at least one rounded guide area, wherein the guide area is part of the base plate and the angular circumference of the guide area(s) does not exceed a 180° angle, and the foot of the support comprises at least one rounded section, wherein the rounded section of the foot engages into the guide area of the base plate.
A sonothrombolysis infusion system comprising: a syringe pump; a syringe having a barrel configured to hold a microbubble solution containing a plurality of magnetic beads, the syringe being mounted on the syringe pump; and a magnetic stirrer; wherein the magnetic stirrer is mounted in proximity to the barrel of the syringe, characterised in that the magnetic stirrer comprises a rotating rod having a plurality of magnets thereon. a syringe pump; a syringe having a barrel configured to hold a microbubble solution containing a plurality of magnetic beads, the syringe being mounted on the syringe pump; and a magnetic stirrer; wherein the magnetic stirrer is mounted in proximity to the barrel of the syringe, characterised in that the magnetic stirrer comprises a rotating rod having a plurality of magnets thereon.
A computing system comprising a processor configured to at least: obtain, via at least one sensing system, measurement data associated with at least one chronic inflammation response-related patient biomarker; predict an adhesion complication based on the measurement data associated with the at least one patient biomarker; and generate an output based on the predicted adhesion complication. obtain, via at least one sensing system, measurement data associated with at least one chronic inflammation response-related patient biomarker; predict an adhesion complication based on the measurement data associated with the at least one patient biomarker; and generate an output based on the predicted adhesion complication.
A coextrusion head for manufacturing a bicomponent polymer fiber, the coextrusion head comprising a first inlet for receiving a core polymer component, a second inlet for receiving a cladding polymer component, and a dual-channel nozzle, the dual-channel nozzle comprising an inner channel and an outer channel encompassing the inner channel, the inner channel being in hydraulic connection with the first inlet, the outer channel being in hydraulic connection with the second inlet, the dual-channel nozzle further comprising a joining path, the joining path establishing a hydraulic connection between the inner channel, the outer channel, and a nozzle outlet of the dual-channel nozzle, the joining path being adapted for bringing the core polymer component and the cladding polymer component into contact with each other such that a contact layer is formed between the core polymer component and the cladding polymer component in response to simultaneously receiving the core polymer component from the inner channel and the cladding polymer component from the outer channel, the contact layer comprising a mixture of the core polymer component and the cladding polymer component, wherein the inner channel has a circular cross section, characterised by the joining path having an axial length x 1 between the nozzle outlet and the inner channel, the axial length x 1 being 3 to 7 times the diameter of the inner channel. wherein the inner channel has a circular cross section, characterised by the joining path having an axial length x 1 between the nozzle outlet and the inner channel, the axial length x 1 being 3 to 7 times the diameter of the inner channel.
Process for producing a connection between a carbon strip and a metal mounting of a sliding brush for current collectors by means of an adhesive containing electrically conductive particles, characterized in that the adhesive contains 40-50 parts by weight of a first adhesive component based on a phenolic resin, 5-20 parts by weight of a second adhesive component based on an epoxy resin, and 40-50 parts by weight of conductive particles. 40-50 parts by weight of a first adhesive component based on a phenolic resin, 5-20 parts by weight of a second adhesive component based on an epoxy resin, and 40-50 parts by weight of conductive particles.
A build system comprising: a plurality of libraries (402a,... 402n), wherein each one of the plurality of libraries includes at least one functional module optimized for a corresponding target platform, wherein each one of the functional modules includes a corresponding description file that includes a description of the function of the corresponding functional module and identifies the target platform that the corresponding functional module is compatible with, and wherein said functional modules provide target platform-specific functions for use by a platform independent layer to support applications; a selector capable of selecting at least one functional module from the plurality of libraries, the selected at least one functional module being optimized for the target platform; and a compiler for compiling the selected functional module(s). a plurality of libraries (402a,... 402n), wherein each one of the plurality of libraries includes at least one functional module optimized for a corresponding target platform, wherein each one of the functional modules includes a corresponding description file that includes a description of the function of the corresponding functional module and identifies the target platform that the corresponding functional module is compatible with, and wherein said functional modules provide target platform-specific functions for use by a platform independent layer to support applications; a selector capable of selecting at least one functional module from the plurality of libraries, the selected at least one functional module being optimized for the target platform; and a compiler for compiling the selected functional module(s).
Method for monitoring functionality of a first and a second component of a motor vehicle, valid monitoring of the first component requiring a predetermined first operating state of the motor vehicle to be present and valid monitoring of the second component requiring the functionality of the first component, characterised in that it is determined for a forthcoming journey, by taking into account navigation data which provide information regarding a route, whether the first operating state is expected to be present, and, if this is the case, the monitoring of the second component is begun during the journey prior to the monitoring of the first component.
A flexible magnetic sensor, comprising: a flexible sensor element; a flexible shield partially surrounding the flexible sensor element and comprised of a plurality of laminae that are magnetically permeable, substantially flat, disposed one upon another and electrically insulated from one another, characterised in that the plurality of laminae is fixed together on a first end and free to slide over one another when the flexible magnetic sensor is formed into a shape. a flexible sensor element; a flexible shield partially surrounding the flexible sensor element and comprised of a plurality of laminae that are magnetically permeable, substantially flat, disposed one upon another and electrically insulated from one another, characterised in that the plurality of laminae is fixed together on a first end and free to slide over one another when the flexible magnetic sensor is formed into a shape.
A method for enrolling nodes into an ad hoc network associated with a multi-roomed structure, each node comprising a communication hub configured to communicate with the ad hoc network using room-limited communication and communication configured such that it is not stopped by barriers, the method characterized by comprising: providing, at a computing device associated with a user, an instruction for the user to cause the transmission of a room-limited communication and a communication configured such that it is not stopped by barriers from a first node; determine at a second node if the room-limited communication and the communication configured such that it is not stopped by barriers were received; upon determining that the room-limited communication and the communication configured such that it is not stopped by barriers were received at the second node, segmenting the first and second nodes into a single room in a room list stored in a memory. providing, at a computing device associated with a user, an instruction for the user to cause the transmission of a room-limited communication and a communication configured such that it is not stopped by barriers from a first node; determine at a second node if the room-limited communication and the communication configured such that it is not stopped by barriers were received; upon determining that the room-limited communication and the communication configured such that it is not stopped by barriers were received at the second node, segmenting the first and second nodes into a single room in a room list stored in a memory.
Repeatable-sealing cap (1, 10, 30) for use with an optical waveguide cable conduit assembly for sealing the optical waveguide cable conduit assembly, wherein the optical waveguide cable conduit assembly has a stiffening inner conduit and is at least partially received by the repeatable-sealing cap (1, 10, 30), and wherein the repeatable-sealing cap has a plastics base body (2, 12, 32) with an end face and a side wall, within which a centring mandrel (3, 13, 33), at least one portion of which has a self-tapping external thread (4, 14, 34), is at least partially arranged, wherein the self-tapping external thread (4, 14, 34) is arranged in the inner volume of the plastics base body, wherein a viewing opening is arranged and a seal is placed in the plastics base body (2, 12, 32), the seal at least partially surrounding the centring mandrel (3, 13, 33), and wherein the centring mandrel (3, 13, 33) is received in an opening of the seal, and wherein a shim or intermediate plate is provided between the seal and the end face of the plastics base body (2, 12, 32) to homogenize the contact pressure of the seal, and wherein a portion of a stiffening inner conduit of the conduit assembly can be received on the centring mandrel, characterized in that the repeatable-sealing cap has a mounting indicator comprising at least one signalling mandrel above the shim, which signalling mandrel, after the sealing cap has been mounted on the end face of the plastics base body (2, 12, 32), passes through at least one opening provided therein so as to be visible and/or tactile.
Method for detecting an open phase fault in a multi-phase electric machine, wherein the method comprises the step of: - measuring at least one current value of each phase of the multi-phase electric machine, characterized in that the method further comprises: - for always two phases of the multi-phase electric machine, determining a phase delay between the two phases based on the measured current values; - determining if a determined phase delay between two phases exceeds a predetermined threshold; - if a determined phase delay between two phases exceeds a predetermined threshold, detecting that there is an open phase fault. - measuring at least one current value of each phase of the multi-phase electric machine, characterized in that the method further comprises: - for always two phases of the multi-phase electric machine, determining a phase delay between the two phases based on the measured current values; - determining if a determined phase delay between two phases exceeds a predetermined threshold; - if a determined phase delay between two phases exceeds a predetermined threshold, detecting that there is an open phase fault.
Use of oxidation agent containing electrolysis water with neutral to alkaline pH, which is produced in a single-chamber electrolysis cell having at least one diamond electrode, from an aqueous saline solution, as a means for preventing or hindering or reducing spore germination and mycelium growth of fungi of the genres botrytis or fusarium on plants or fruit by applying the electrolysis water to said plants or fruit.
A nanosensor, comprising: a substrate having an opening formed therein; two separate nanomaterials (430-1, 430-2) formed on the substrate; a nanogap formed between the two separate nanomaterials (430-1, 430-2) such that the nanogap and a portion of each of the two separate nanomaterials (430-1, 430-2) are suspended over the opening, characterised in that the nanogap is formed by: prefabricating the two separate nanomaterials (430-1, 430-2); and placing the two separate nanomaterials (430-1, 430-2) on the substrate; a voltage source 416, wherein the voltage source is coupled to one of the two separate nanomaterials that is on a first side of the nanogap and the other one of the two separate nanomaterials that is on a second side of the nanogap; and an instrument configured to: measure a resistance of the nanogap over a period of time, wherein: a molecule traverses the nanogap during the period of time; and the resistance of the nanogap while the molecule traverses the nanogap is a maximum resistance during the period of time; and identify a type of the molecule based on the maximum resistance during the period of time. a substrate having an opening formed therein; two separate nanomaterials (430-1, 430-2) formed on the substrate; a nanogap formed between the two separate nanomaterials (430-1, 430-2) such that the nanogap and a portion of each of the two separate nanomaterials (430-1, 430-2) are suspended over the opening, characterised in that the nanogap is formed by: prefabricating the two separate nanomaterials (430-1, 430-2); and placing the two separate nanomaterials (430-1, 430-2) on the substrate; prefabricating the two separate nanomaterials (430-1, 430-2); and placing the two separate nanomaterials (430-1, 430-2) on the substrate; a voltage source 416, wherein the voltage source is coupled to one of the two separate nanomaterials that is on a first side of the nanogap and the other one of the two separate nanomaterials that is on a second side of the nanogap; and an instrument configured to: measure a resistance of the nanogap over a period of time, wherein: a molecule traverses the nanogap during the period of time; and the resistance of the nanogap while the molecule traverses the nanogap is a maximum resistance during the period of time; and identify a type of the molecule based on the maximum resistance during the period of time. measure a resistance of the nanogap over a period of time, wherein: a molecule traverses the nanogap during the period of time; and the resistance of the nanogap while the molecule traverses the nanogap is a maximum resistance during the period of time; and a molecule traverses the nanogap during the period of time; and the resistance of the nanogap while the molecule traverses the nanogap is a maximum resistance during the period of time; and identify a type of the molecule based on the maximum resistance during the period of time.
A system, comprising - a surface material comprising (i) a first layer having perforations and (ii) a second layer carrying fibers, wherein the fibers are arranged such that they penetrate the first layer having perforations via the perforations, - a mechanism for switching the fibers between an erected position and a relaxed position, - a control unit for comparing an actual temperature T A at at least one position of the surface material with a temperature threshold T T and for controlling the mechanism for switching the fibers between an erected position and a relaxed position based on the result of the comparison. - a surface material comprising (i) a first layer having perforations and (ii) a second layer carrying fibers, - a mechanism for switching the fibers between an erected position and a relaxed position, - a control unit for comparing an actual temperature T A at at least one position of the surface material with a temperature threshold T T and for controlling the mechanism for switching the fibers between an erected position and a relaxed position based on the result of the comparison.
A tangible, non-transitory, machine-readable medium, comprising machine- readable instructions that, when executed by one or more processors of a machine, cause the machine to: store participant interactivity data of a distributed attraction comprising a plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E), where the participant interactivity data relates to interaction of the participant with one or more of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E), the participant being associated with a wearable electronic device while the participant interacts with one or more of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E); identify one or more subscriber interaction points, comprising a subset of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E) that have subscribed to a first portion of the participant interactivity data, where the subscription of an interaction point of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E) is established by the interaction point providing a request for the first portion of the participant interactivity data prior to an interaction indicated by the first portion of the participant interactivity data; and provide the first portion of the participant interactivity data to the one or more subscriber interaction points, while refraining from providing the first portion of the participant interactivity data to distributed interaction points (216A, 216B, 216C, 216D, 216E) outside of the one or more subscriber interaction points. store participant interactivity data of a distributed attraction comprising a plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E), where the participant interactivity data relates to interaction of the participant with one or more of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E), the participant being associated with a wearable electronic device while the participant interacts with one or more of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E); identify one or more subscriber interaction points, comprising a subset of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E) that have subscribed to a first portion of the participant interactivity data, where the subscription of an interaction point of the plurality of distributed interaction points (216A, 216B, 216C, 216D, 216E) is established by the interaction point providing a request for the first portion of the participant interactivity data prior to an interaction indicated by the first portion of the participant interactivity data; and provide the first portion of the participant interactivity data to the one or more subscriber interaction points, while refraining from providing the first portion of the participant interactivity data to distributed interaction points (216A, 216B, 216C, 216D, 216E) outside of the one or more subscriber interaction points.