mhurhangee/ep-ind-claims huggingface dataset:
Retaining device for a floor mat in the form of a sheet-like material such as a single-layer or multi-layer paper web, comprising a frame designed to receive the floor mat, where at least one clamping device in the form of a clamping strip (40, 42, 44, 46) is provided along at least one side of the frame; where the floor mat can be placed into the frame or removed from the frame in an opened position of the clamping strip (40, 42, 44, 46) and is fixed in the frame in a closed position of the clamping strip (40, 42, 44, 46); where the frame is formed of individual frame profile rail sections (16, 18, 20, 22) connectable at the ends, each comprising a floor profile rail (24, 26, 28, 30) and the clamping strip (40, 42, 44, 46) which is in turn swivelably connected via a swivel joint (48, 50, 52, 54) to the floor profile rail (24, 26, 28, 30), wherethe swivel joint (48, 50, 52, 54) is covered by the clamping strip (40, 42, 44, 46), wherein the swivel joint comprises bearing parts movable relative to one another, where a first bearing part in the form of a section of a hollow cylinder profile is provided on the clamping strip (40, 42, 44, 46) and a second bearing part in the form of a receptacle, adapted to the section of the hollow cylinder profile, on the floor profile rail (24, 26, 28, 30), and where a swivel axis of the swivel joint runs substantially parallel to the extension direction of the frame profile rail (16, 18, 20, 22).
A method for generating images using a magnetic resonance imaging system, the method comprising: a) providing a plurality of constraints comprising an eddy current nulling constraint for imaging a target at a selected diffusion weighting; b) applying a convex optimization framework to generate an optimized diffusion encoding gradient waveform satisfying the plurality of constraints, wherein applying the optimization framework comprises performing an iterative process to minimize at least one pulse sequence timing parameter comprising a gradient duration during a diffusion encoding period, wherein performing the iterative process includes successive binary searches that divide a pulse sequence timing parameter search space with each iteration of G t = argmax G β G where β = ∫ 0 T Diff F t dt, F ( t) = ∫ 0 t G τ dτ, T Diff, is a time corresponding to an end of diffusion encoding, and G(t) is a gradient amplitude as a function of time; wherein a magnitude of β corresponds directly with a b-value, such that a gradient waveform G(t) that produces a maximum β also produces a maximum b-value; c) performing, using the MRI system, a pulse sequence comprising the optimized diffusion encoding gradient waveform to generate diffusion-weighted data; and d) generating at least one image of the target using the diffusion-weighted data. a) providing a plurality of constraints comprising an eddy current nulling constraint for imaging a target at a selected diffusion weighting; b) applying a convex optimization framework to generate an optimized diffusion encoding gradient waveform satisfying the plurality of constraints, wherein applying the optimization framework comprises performing an iterative process to minimize at least one pulse sequence timing parameter comprising a gradient duration during a diffusion encoding period, wherein performing the iterative process includes successive binary searches that divide a pulse sequence timing parameter search space with each iteration of G t = argmax G β G where β = ∫ 0 T Diff F t dt, F ( t) = ∫ 0 t G τ dτ, T Diff, is a time corresponding to an end of diffusion encoding, and G(t) is a gradient amplitude as a function of time; wherein a magnitude of β corresponds directly with a b-value, such that a gradient waveform G(t) that produces a maximum β also produces a maximum b-value; c) performing, using the MRI system, a pulse sequence comprising the optimized diffusion encoding gradient waveform to generate diffusion-weighted data; and d) generating at least one image of the target using the diffusion-weighted data.
A neural network-implemented system for classifying variants as somatic variants, germline variants, or noise comprising: a variant classifier, running on one or more processors operating in parallel and coupled to memory, that has a convolutional neural network having at least two convolution layers and each of the convolution layers having at least five convolution filters trained over one thousand to millions of gradient update iterations to process an input sequence with a variant at a target position flanked by at least ten bases on each side, and produce an intermediate convolved feature; a metadata correlator that correlates the variant with a set of metadata features which represent mutation characteristics of the variant, read mapping statistics of the variant, and occurrence frequency of the variant; and a fully-connected neural network having at least two fully-connected layers trained over the one thousand to millions of gradient update iterations to process a feature sequence derived by concatenating of the intermediate convolved feature and the set of metadata features, and output, based on processing the feature sequence, a plurality of classification scores that each indicate a likelihood that the variant is a somatic variant, a germline variant, or noise. a variant classifier, running on one or more processors operating in parallel and coupled to memory, that has a convolutional neural network having at least two convolution layers and each of the convolution layers having at least five convolution filters trained over one thousand to millions of gradient update iterations to process an input sequence with a variant at a target position flanked by at least ten bases on each side, and produce an intermediate convolved feature; process an input sequence with a variant at a target position flanked by at least ten bases on each side, and produce an intermediate convolved feature; a metadata correlator that correlates the variant with a set of metadata features which represent mutation characteristics of the variant, read mapping statistics of the variant, and occurrence frequency of the variant; and mutation characteristics of the variant, read mapping statistics of the variant, and occurrence frequency of the variant; and a fully-connected neural network having at least two fully-connected layers trained over the one thousand to millions of gradient update iterations to process a feature sequence derived by concatenating of the intermediate convolved feature and the set of metadata features, and output, based on processing the feature sequence, a plurality of classification scores that each indicate a likelihood that the variant is a somatic variant, a germline variant, or noise. process a feature sequence derived by concatenating of the intermediate convolved feature and the set of metadata features, and output, based on processing the feature sequence, a plurality of classification scores that each indicate a likelihood that the variant is a somatic variant, a germline variant, or noise.
A space-through charge transfer compound, comprising: a naphthalene core; an electron donor moiety selected from carbazole, phenylcarbazole and biphenylamine; and an electron acceptor moiety selected from pyridine, diazine, pyrrole, diazole, triazole and phenyl benzodiazole, wherein the electron donor moiety and the electron acceptor moiety are combined to first and eighth positions of the naphthalene core with a benzene linker, respectively. a naphthalene core; an electron donor moiety selected from carbazole, phenylcarbazole and biphenylamine; and an electron acceptor moiety selected from pyridine, diazine, pyrrole, diazole, triazole and phenyl benzodiazole, wherein the electron donor moiety and the electron acceptor moiety are combined to first and eighth positions of the naphthalene core with a benzene linker, respectively.
An accessory device introduction system which works in conjunction with an endoscope and enables more than one accessory device to be used at the same time, the accessory device introduction system comprising: a. an attachment assembly comprising: - a fixed portion which is adapted to connect securely to the endoscope by means of a compression friction fit between the endoscope and itself, and - a rotating portion having a range of motion to rotate around a central axis of the fixed portion and comprising a plurality of access ports to be presented to an end user and a plurality of access funnels, to enable the end user to pass an accessory device within said access ports and access funnels; and b. a multi-channeled endoscope shaft sheath which is connected to the attachment assembly at one end and to a distal end of the endoscope shaft at the other end therefore covering an entire outer shaft diameter length, the endoscope shaft sheath having a plurality of channels which only expand to accommodate said accessory devices; wherein the plurality of access ports and access funnels can be rotated independently of the fixed portion. a. an attachment assembly comprising: - a fixed portion which is adapted to connect securely to the endoscope by means of a compression friction fit between the endoscope and itself, and - a rotating portion having a range of motion to rotate around a central axis of the fixed portion and comprising a plurality of access ports to be presented to an end user and a plurality of access funnels, to enable the end user to pass an accessory device within said access ports and access funnels; and - a fixed portion which is adapted to connect securely to the endoscope by means of a compression friction fit between the endoscope and itself, and - a rotating portion having a range of motion to rotate around a central axis of the fixed portion and comprising a plurality of access ports to be presented to an end user and a plurality of access funnels, to enable the end user to pass an accessory device within said access ports and access funnels; and b. a multi-channeled endoscope shaft sheath which is connected to the attachment assembly at one end and to a distal end of the endoscope shaft at the other end therefore covering an entire outer shaft diameter length, the endoscope shaft sheath having a plurality of channels which only expand to accommodate said accessory devices;
A method for wireless communications by a network entity, comprising: determining time and frequency resources to use for transmitting demodulation reference signals, DMRS, based on a resource mapping and a cell identification, ID, wherein determining the time and frequency resources comprises: determining a base set of tones; determining a shift to apply to the base set of tones by applying a modulo function to the cell ID; and applying the shift to the base set of tones to determine at least the frequency resources to use for transmitting the DMRS; and transmitting a physical broadcast channel, PBCH, with the DMRS transmitted on the determined time and frequency resources, wherein the transmitted DMRS includes two or three bits of timing information indicating a synchronization signal, SS, block index associated with the PBCH. determining a base set of tones; determining a shift to apply to the base set of tones by applying a modulo function to the cell ID; and applying the shift to the base set of tones to determine at least the frequency resources to use for transmitting the DMRS; and transmitting a physical broadcast channel, PBCH, with the DMRS transmitted on the determined time and frequency resources, wherein the transmitted DMRS includes two or three bits of timing information indicating a synchronization signal, SS, block index associated with the PBCH.
A composition for use in a method of treating a mammalian subject for intracellular pathogen infection, wherein the pathogen is a retrovirus, the method comprising: administering to the subject an anti-CD47 agent that reduces the binding of CD47 on an infected cell to SIRPα on a phagocytic cell, at an effective dose for increasing the phagocytosis of the infected cell, wherein the anti-CD47 agent is: (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, (c) a SIRPα-derived polypeptide that specifically binds to CD47, or (d) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα. (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, (c) a SIRPα-derived polypeptide that specifically binds to CD47, or (d) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα.
A system for monitoring respiration of a user, comprising: • a respiration sensing module configured to detect a set of respiration signals in response to forces detected at a sensor-user interface during the user's respiration; • a supplementary sensing module configured to detect a set of supplementary signals during the user's respiration; • an electronics subsystem configured to condition the set of respiration signals and the set of supplementary signals; • a housing configured to couple the respiration and the supplementary sensing modules to an article of user's clothing, wherein the respiration sensing module is enclosed within the housing, and wherein the respiration sensing module comprises a capacitor that is configured to produce an electrical signal, indicative of the respiration of the user, in response to a deflection of a first capacitor plate relative to a second capacitor plate of the capacitor, as a result of forces caused by the respiration of the user being applied to the housing; and • a processor configured to generate an analysis based on at least one of the set of respiration signals, the set of supplementary signals, and output of the electronics subsystem, wherein the analysis can be used to provide respiration monitoring for the user. • a respiration sensing module configured to detect a set of respiration signals in response to forces detected at a sensor-user interface during the user's respiration; • a supplementary sensing module configured to detect a set of supplementary signals during the user's respiration; • an electronics subsystem configured to condition the set of respiration signals and the set of supplementary signals; • a housing configured to couple the respiration and the supplementary sensing modules to an article of user's clothing, wherein the respiration sensing module is enclosed within the housing, and wherein the respiration sensing module comprises a capacitor that is configured to produce an electrical signal, indicative of the respiration of the user, in response to a deflection of a first capacitor plate relative to a second capacitor plate of the capacitor, as a result of forces caused by the respiration of the user being applied to the housing; and • a processor configured to generate an analysis based on at least one of the set of respiration signals, the set of supplementary signals, and output of the electronics subsystem, wherein the analysis can be used to provide respiration monitoring for the user.
A canted coil spring comprising: a plurality of coils interconnected with one another in a spaced-apart relationship and each coil in its entirety of said plurality of coils is disposed at a first preselected canting angle with respect to a centerline of said canted coil spring and each coil in its respective entirety of said plurality of coils is disposed at a second preselected canting angle with respect to the centerline of said canted coil spring; and wherein the first preselected canting angle allows deflection of each coil of the plurality of coils in a first direction perpendicular to the centerline, wherein said plurality of coils are deflected from the first preselected canting angle to a canted angle, which is smaller in value than the first preselected canting angle, the first direction of canting for each coil from the first preselected canting angle to the smaller angle defines a first canting plane; wherein the second preselected canting angle allows the coils to deflect in a second direction essentially perpendicular to the centerline; wherein the first direction and the second direction are different, wherein said plurality of coils are deflectable from the second preselected canting angle to a canted angle, which is smaller in value than the second preselected canting angle, the second direction of canting for each coil from the second preselected canting angle to the smaller angle defines a second canting plane, characterized in that the second canting plane is different from the first canting plane. a plurality of coils interconnected with one another in a spaced-apart relationship and each coil in its entirety of said plurality of coils is disposed at a first preselected canting angle with respect to a centerline of said canted coil spring and each coil in its respective entirety of said plurality of coils is disposed at a second preselected canting angle with respect to the centerline of said canted coil spring; and wherein the first preselected canting angle allows deflection of each coil of the plurality of coils in a first direction perpendicular to the centerline, wherein said plurality of coils are deflected from the first preselected canting angle to a canted angle, which is smaller in value than the first preselected canting angle, the first direction of canting for each coil from the first preselected canting angle to the smaller angle defines a first canting plane; wherein the second preselected canting angle allows the coils to deflect in a second direction essentially perpendicular to the centerline; wherein the first direction and the second direction are different, wherein said plurality of coils are deflectable from the second preselected canting angle to a canted angle, which is smaller in value than the second preselected canting angle, the second direction of canting for each coil from the second preselected canting angle to the smaller angle defines a second canting plane, characterized in that the second canting plane is different from the first canting plane.
A printing control method comprising: detecting the state of a paper, characterized in that detecting the state of the paper comprises: detecting whether the paper jammed in a paper conveying path; and performing a mark process on a printed receipt paper when the state of the paper is abnormal; wherein the abnormal state of the paper comprises: the paper jammed in the paper conveying path. detecting whether the paper jammed in a paper conveying path; and performing a mark process on a printed receipt paper when the state of the paper is abnormal; wherein the abnormal state of the paper comprises: the paper jammed in the paper conveying path.
A method for producing solid oxide fuel cells having a cathode-electrolyte-anode unit supported by a metal substrate, wherein a layer forming the anode is wet-chemically applied to a surface of a porous, metallic substrate as the support of the cathode-electrolyte-anode unit, an element that has already been sintered gas-tight in advance, which forms the electrolyte, is placed or applied in a planar manner on to said layer forming the anode, and in a first thermal treatment up to a maximum temperature of 1250°C, the organic components contained in the layer forming the anode are driven off, said layer is sintered and a material bond is thereby created between the substrate and the electrolyte, and subsequent to this, a further layer forming the cathode is wet-chemically applied to the electrolyte and, in a further thermal treatment at temperatures below 1000°C, is sintered and joined to the electrolyte in a material bond.
A method for positioning a nozzle within a cylindrical body, said method comprising the steps of: providing a nozzle within said cylindrical body defining a cylindrical bore; said nozzle having a tubular shape with an outer cylindrical surface and an inner radial surface, moving said nozzle within the cylindrical bore; characterized in that said method further comprises the steps of positioning a first, tubular locking member within said nozzle, and axially moving said first, tubular locking member within the nozzle, said first tubular locking member being configured to cause the nozzle to become positionally fixed at a selected position within the bore in response to the first, tubular locking member being axially moved relative to the nozzle. providing a nozzle within said cylindrical body defining a cylindrical bore; said nozzle having a tubular shape with an outer cylindrical surface and an inner radial surface, moving said nozzle within the cylindrical bore; characterized in that said method further comprises the steps of positioning a first, tubular locking member within said nozzle, and axially moving said first, tubular locking member within the nozzle, said first tubular locking member being configured to cause the nozzle to become positionally fixed at a selected position within the bore in response to the first, tubular locking member being axially moved relative to the nozzle.
An outer package material for a lithium-ion battery, comprising: a base layer; a first adhesive layer; a metallic foil layer; a corrosion prevention treatment layer; a second adhesive layer; and a sealant layer, the first adhesive layer, the metallic foil layer, the corrosion prevention treatment layer, the second adhesive layer and the sealant layer being sequentially layered on one of surfaces of the base layer, wherein the base layer is a sequentially biaxially stretched film, and wherein, in the following tensile test: tensile elongation in a first direction of a specimen of the base layer to length of the specimen is from not less than 50% to less than 80%, the first direction being one of an MD direction and a TD direction of the specimen of the base layer; and tensile stress in a second direction is from not less than 150 MPa to not more than 230 MPa, the second direction being perpendicular to the first direction. (tensile test) After standing of the specimen under an environment of 23°C and 40%RH for 24 hours, tensile test is carried out under an environment of 23°C and 40%RH and under conditions of 15 mm in width of the specimen, 50 mm in distance between gauge points and 100 mm/minute in tensile rate, and tensile elongation and tensile stress of the specimen are measured. a base layer; a first adhesive layer; a metallic foil layer; a corrosion prevention treatment layer; a second adhesive layer; and a sealant layer, the first adhesive layer, the metallic foil layer, the corrosion prevention treatment layer, the second adhesive layer and the sealant layer being sequentially layered on one of surfaces of the base layer, wherein the base layer is a sequentially biaxially stretched film, and wherein, in the following tensile test: tensile elongation in a first direction of a specimen of the base layer to length of the specimen is from not less than 50% to less than 80%, the first direction being one of an MD direction and a TD direction of the specimen of the base layer; and tensile stress in a second direction is from not less than 150 MPa to not more than 230 MPa, the second direction being perpendicular to the first direction. (tensile test) tensile elongation in a first direction of a specimen of the base layer to length of the specimen is from not less than 50% to less than 80%, the first direction being one of an MD direction and a TD direction of the specimen of the base layer; and tensile stress in a second direction is from not less than 150 MPa to not more than 230 MPa, the second direction being perpendicular to the first direction. (tensile test) After standing of the specimen under an environment of 23°C and 40%RH for 24 hours, tensile test is carried out under an environment of 23°C and 40%RH and under conditions of 15 mm in width of the specimen, 50 mm in distance between gauge points and 100 mm/minute in tensile rate, and tensile elongation and tensile stress of the specimen are measured.