mhurhangee/ep-ind-claims huggingface dataset:
A method of determining whether a subject has neurobehavioral phenotype mapping data indicative of a neurobehavioral phenotype, wherein the neurobehavioral phenotype mapping data includes neuroimaging data, said method comprising: a. obtaining or having obtained samples of neurobehavioral phenotype mapping data from the subject, wherein each sample (i) includes data corresponding to a subcortical structure of the subject, and (ii) is mapped to a volumetric voxel of the subject in contrast to a surface grayordinate; b. defining a genotype topography of a first brain area for a gene based on gene expression mapping data; c. defining a neurophenotype topography of a second brain area for the neurobehavioral phenotype based on neurobehavioral phenotype mapping data; d. aligning the genotype topography of the first brain area and the neurophenotype topography of the second brain area to establish an alignment, optionally in form of a numerical score; e. performing or having performed a comparison of the samples with the aligned genotype topography and neurophenotype topography to determine if the subject has the neurobehavioral phenotype. a. obtaining or having obtained samples of neurobehavioral phenotype mapping data from the subject, wherein each sample (i) includes data corresponding to a subcortical structure of the subject, and (ii) is mapped to a volumetric voxel of the subject in contrast to a surface grayordinate; b. defining a genotype topography of a first brain area for a gene based on gene expression mapping data; c. defining a neurophenotype topography of a second brain area for the neurobehavioral phenotype based on neurobehavioral phenotype mapping data; d. aligning the genotype topography of the first brain area and the neurophenotype topography of the second brain area to establish an alignment, optionally in form of a numerical score; e. performing or having performed a comparison of the samples with the aligned genotype topography and neurophenotype topography to determine if the subject has the neurobehavioral phenotype.
A method of calibrating a header height controller, the header height controller comprising processing circuitry capable of receiving output signals from a plurality of height sensors mounted to a header, the output signals variable in magnitude with respect to changes in height of the header relative to a surface, the header height controller responsive to the output signals from the plurality of height sensors, the method comprising the steps of: moving the header through a range of motion relative to a surface characterized by: as the header moves through the range of motion, receiving and storing at predetermined sampling intervals, the output signal magnitudes for each of the plurality of height sensors; defining a Set Point C Magnitude ("SPCM") for each of the plurality of height sensors, wherein the SPCM is the magnitude of the output signal where a last appreciable change in the output signal magnitudes is detected between sequential sampling intervals as the header is moved toward a lower most point of the range of motion; defining a Set Point A Magnitude ("SPAM") for each of the plurality of height sensors, wherein the SPAM is the magnitude of the output signal at a predetermined elevation in the range of motion of the header above the elevation corresponding to the SPCM. moving the header through a range of motion relative to a surface characterized by: as the header moves through the range of motion, receiving and storing at predetermined sampling intervals, the output signal magnitudes for each of the plurality of height sensors; defining a Set Point C Magnitude ("SPCM") for each of the plurality of height sensors, wherein the SPCM is the magnitude of the output signal where a last appreciable change in the output signal magnitudes is detected between sequential sampling intervals as the header is moved toward a lower most point of the range of motion; defining a Set Point A Magnitude ("SPAM") for each of the plurality of height sensors, wherein the SPAM is the magnitude of the output signal at a predetermined elevation in the range of motion of the header above the elevation corresponding to the SPCM. as the header moves through the range of motion, receiving and storing at predetermined sampling intervals, the output signal magnitudes for each of the plurality of height sensors; defining a Set Point C Magnitude ("SPCM") for each of the plurality of height sensors, wherein the SPCM is the magnitude of the output signal where a last appreciable change in the output signal magnitudes is detected between sequential sampling intervals as the header is moved toward a lower most point of the range of motion; defining a Set Point A Magnitude ("SPAM") for each of the plurality of height sensors, wherein the SPAM is the magnitude of the output signal at a predetermined elevation in the range of motion of the header above the elevation corresponding to the SPCM.
Device for cleaning filter cloths, the device comprising a suction bar and a suction plate, the suction plate and the suction bar being detachably connectable by means of locking connections (4, 5), characterised in that the suction plate has locking lugs and the suction bar has recesses for engaging behind the locking lugs of the suction plate.
A composition for use in the reduction of plaque formation or diminishing of plaques in a patient with Alzheimer's disease comprising a homogenous population of isolated human umbilical cord tissue-derived cells, wherein the cells are obtainable from human umbilical cord tissue substantially free of blood, are capable of self-renewal and expansion in culture, have normal karyotypes and maintain normal karyotypes with passaging, and wherein the cells express each of the markers CD10, CD13, CD44, CD73, CD90, PDGFr-alpha and HLA-A,B,C and do not produce CD31, CD34, CD45, CD117, CD141 or HLA-DR,DP,DQ.
A method for making an admixture in liquid form for concrete comprising: providing a nanocarbon mixture as a carbon powder comprising at least two different types of nanocarbon particles selected from the group consisting of carbon nanotube particles, carbon nanofiber particles, graphene particles, graphite particles, carbon black, "amorphous" paracrystalline carbon particles, polycrystalline carbon particles, nanodiamonds, single-layer fullerene particles, and multi-layer fullerene particles; wetting and mixing the carbon powder into a water/surfactant mixture comprised of water and a surfactant configured to de-agglomerate and uniformly disperse the nanocarbon particles in the water/surfactant mixture containing the carbon powder configured for addition to a concrete material comprising a cementitious material, blending the nanocarbon mixture with a nano-silica based compound, wherein quantities of the nanocarbon mixture, superplasticizer surfactant, nano-silica based compound and water in the admixture are: nanocarbon mixture 0.4% to 1.9% mass percentage of total mass of admixture, superplasticizer surfactant 2% to 9% mass percentage of total mass of admixture, nano-silica based compound 5% to 21% mass percentage of total mass of admixture, and water 57% to 93% mass percentage of total mass of admixture. providing a nanocarbon mixture as a carbon powder comprising at least two different types of nanocarbon particles selected from the group consisting of carbon nanotube particles, carbon nanofiber particles, graphene particles, graphite particles, carbon black, "amorphous" paracrystalline carbon particles, polycrystalline carbon particles, nanodiamonds, single-layer fullerene particles, and multi-layer fullerene particles; wetting and mixing the carbon powder into a water/surfactant mixture comprised of water and a surfactant configured to de-agglomerate and uniformly disperse the nanocarbon particles in the water/surfactant mixture containing the carbon powder configured for addition to a concrete material comprising a cementitious material, blending the nanocarbon mixture with a nano-silica based compound, wherein quantities of the nanocarbon mixture, superplasticizer surfactant, nano-silica based compound and water in the admixture are: nanocarbon mixture 0.4% to 1.9% mass percentage of total mass of admixture, superplasticizer surfactant 2% to 9% mass percentage of total mass of admixture, nano-silica based compound 5% to 21% mass percentage of total mass of admixture, and water 57% to 93% mass percentage of total mass of admixture. nanocarbon mixture 0.4% to 1.9% mass percentage of total mass of admixture, superplasticizer surfactant 2% to 9% mass percentage of total mass of admixture, nano-silica based compound 5% to 21% mass percentage of total mass of admixture, and water 57% to 93% mass percentage of total mass of admixture.
A hybrid oil pump for a vehicle comprising an internal combustion engine, wherein the hybrid oil pump comprises: - an oil pump unit for pumping pressurized oil to the internal combustion engine, - a mechanical drive for driving the oil pump unit in a mechanical driving mode, wherein the mechanical drive is mechanically connected to and driven by the engine, - an electrical drive for driving the oil pump unit in an electrical driving mode, wherein the electrical drive comprises a synchronous reluctance motor without permanent magnets, which is directly mechanically connected to the pump unit so that a rotor of the reluctance motor co-rotates with a pump shaft, and - a freewheel clutch, which automatically couples the mechanical drive with a pump shaft when the rotational speed of the mechanical drive is higher than the rotational speed of the synchronous reluctance motor, so that the rotor of the synchronous reluctance motor is rotated by the mechanical drive. - an oil pump unit for pumping pressurized oil to the internal combustion engine, - a mechanical drive for driving the oil pump unit in a mechanical driving mode, wherein the mechanical drive is mechanically connected to and driven by the engine, - an electrical drive for driving the oil pump unit in an electrical driving mode, wherein the electrical drive comprises a synchronous reluctance motor without permanent magnets, which is directly mechanically connected to the pump unit so that a rotor of the reluctance motor co-rotates with a pump shaft, and - a freewheel clutch, which automatically couples the mechanical drive with a pump shaft when the rotational speed of the mechanical drive is higher than the rotational speed of the synchronous reluctance motor, so that the rotor of the synchronous reluctance motor is rotated by the mechanical drive.
A bioreactor system, including a cell culture module comprising: a. a base including a receiving station for removably receiving a plurality of bioreactor vessels at respective locations; b. a drive mechanism; c. a clamp plate, removably connectable to the base and connectable to the drive mechanism, for transmitting input motion from the drive mechanism into multiple rotary motion outputs, each output corresponding to a respective vessel location in the receiving station; and d. at least one bioreactor vessel having a stirrer, wherein the at least one vessel is received in the receiving station and wherein a drive connection is established between a respective one of the multiple rotary motion outputs and the stirrer. wherein the drive mechanism is adapted to convert a single input motion into the multiple rotary output motions; characterised in that the drive mechanism is an eccentric drive mechanism that includes an array of fixed drive elements, wherein the clamp plate includes a complementary array of rotatable members, each having an off-axis driven element. a. a base including a receiving station for removably receiving a plurality of bioreactor vessels at respective locations; b. a drive mechanism; c. a clamp plate, removably connectable to the base and connectable to the drive mechanism, for transmitting input motion from the drive mechanism into multiple rotary motion outputs, each output corresponding to a respective vessel location in the receiving station; and d. at least one bioreactor vessel having a stirrer, wherein the at least one vessel is received in the receiving station and wherein a drive connection is established between a respective one of the multiple rotary motion outputs and the stirrer.
A vehicle lighting device, comprising: a socket; a substrate provided on one end side of the socket; a first circuit provided on the substrate; and a second circuit provided on the substrate, wherein the first circuit is a stop lamp circuit and has: a plurality of first light emitting elements; and a control element electrically connected to the plurality of first light emitting elements and controlling a value of a current flowing through the plurality of first light emitting elements, wherein the second circuit is a tail lamp circuit and has: one second light emitting element whose number is smaller than the number of the plurality of first light emitting elements; and a resistor connected in series to the one second light emitting element; wherein the control element detects an input voltage and changes the number of the first light emitting elements through which the current flows according to the input voltage detected, wherein the plurality of first light emitting elements are provided at positions surrounding the one second light emitting element. a socket; a substrate provided on one end side of the socket; a first circuit provided on the substrate; and a second circuit provided on the substrate, wherein the first circuit is a stop lamp circuit and has: a plurality of first light emitting elements; and a control element electrically connected to the plurality of first light emitting elements and controlling a value of a current flowing through the plurality of first light emitting elements, a plurality of first light emitting elements; and a control element electrically connected to the plurality of first light emitting elements and controlling a value of a current flowing through the plurality of first light emitting elements, wherein the second circuit is a tail lamp circuit and has: one second light emitting element whose number is smaller than the number of the plurality of first light emitting elements; and a resistor connected in series to the one second light emitting element; wherein the control element detects an input voltage and changes the number of the first light emitting elements through which the current flows according to the input voltage detected, wherein the plurality of first light emitting elements are provided at positions surrounding the one second light emitting element. one second light emitting element whose number is smaller than the number of the plurality of first light emitting elements; and a resistor connected in series to the one second light emitting element; wherein the control element detects an input voltage and changes the number of the first light emitting elements through which the current flows according to the input voltage detected, wherein the plurality of first light emitting elements are provided at positions surrounding the one second light emitting element.
A vascular access device comprising: a catheter adapter; a catheter that extends distally from the catheter adapter; and an antimicrobial coating on the catheter, the antimicrobial coating extending from the catheter adapter towards a distal end of the catheter, the antimicrobial coating having an increased diameter portion adjacent the catheter adapter. a catheter adapter; a catheter that extends distally from the catheter adapter; and an antimicrobial coating on the catheter, the antimicrobial coating extending from the catheter adapter towards a distal end of the catheter, the antimicrobial coating having an increased diameter portion adjacent the catheter adapter.
A shot blaster comprising: a. a housing defining an interior chamber, said housing comprising a mounting plate, said mounting plate comprising an interior surface facing the interior chamber, an exterior surface, and a drive shaft orifice; b. a blast wheel coupled to a drive shaft, said blast wheel positioned within the interior chamber of the housing and said drive shaft extending from the blast wheel through the drive shaft orifice; c. a bearing mounted to the exterior surface of the mounting plate, surrounding a portion of the drive shaft, and closing the drive shaft orifice; d. a first motor coupled to the drive shaft; and e. a first direct vent (80, 81) providing airflow between an area exterior to the housing and the interior chamber of the housing to dissipate heat from the interior of the chamber, characterised in that said housing further comprises a liner between said direct vent (80, 81) and said blast wheel to prevent shot from exiting the housing through the direct vent (80, 81), wherein said liner is semi-permeable thereby permitting air to flow through the semi-permeable liner. a. a housing defining an interior chamber, said housing comprising a mounting plate, said mounting plate comprising an interior surface facing the interior chamber, an exterior surface, and a drive shaft orifice; b. a blast wheel coupled to a drive shaft, said blast wheel positioned within the interior chamber of the housing and said drive shaft extending from the blast wheel through the drive shaft orifice; c. a bearing mounted to the exterior surface of the mounting plate, surrounding a portion of the drive shaft, and closing the drive shaft orifice; d. a first motor coupled to the drive shaft; and e. a first direct vent (80, 81) providing airflow between an area exterior to the housing and the interior chamber of the housing to dissipate heat from the interior of the chamber,
Method for controlling a lithium ion battery as a traction battery of an industrial truck, wherein the lithium ion battery comprises at least one battery cell and a battery management system with monitoring and control devices in a battery housing, and the battery management system controls the maximum charge and the minimum discharge of the lithium ion battery, wherein it is possible to choose between different operating modes by a control command transmitted to the battery management system, wherein at least one operating mode has a reduced maximum charge and at least one operating mode has an increased minimum discharge, characterized in that a charge state indication orientated to the operating mode and its maximum charge and/or minimum discharge is transmitted to the industrial truck, so that the charge state indication corresponds to a value of the reduced capacity of the traction battery or an increased value for the minimum discharge.
A system of managing content having metadata, comprising: a plurality of edge facilities, each edge facility including a content source and a cache repository communicatively connected to each other, the content source for generating the content having the metadata and the cache repository for storing the content received from the content source; a primary system communicatively connected to the plurality of edge facilities for receiving the content and the metadata from at least one of the edge facilities, the primary system including a central registry for registering the content using the metadata, and a central repository for receiving and storing the content from the cache repository; and a secondary system communicatively connected to the plurality of edge facilities and the primary system, the secondary system including a backup repository for storing a backup of the content received and stored in the central repository, and a backup registry for storing a backup of the metadata in the central registry; wherein the plurality of edge facilities, the primary system and the secondary system are remotely connected to each other in a network, and wherein the primary system is configured to update and replicate the content and the metadata into the backup registry and the backup repository after the central registry registers the metadata and after the central repository stores the content in the primary system. a plurality of edge facilities, each edge facility including a content source and a cache repository communicatively connected to each other, the content source for generating the content having the metadata and the cache repository for storing the content received from the content source; a primary system communicatively connected to the plurality of edge facilities for receiving the content and the metadata from at least one of the edge facilities, the primary system including a central registry for registering the content using the metadata, and a central repository for receiving and storing the content from the cache repository; and a secondary system communicatively connected to the plurality of edge facilities and the primary system, the secondary system including a backup repository for storing a backup of the content received and stored in the central repository, and a backup registry for storing a backup of the metadata in the central registry; wherein the plurality of edge facilities, the primary system and the secondary system are remotely connected to each other in a network, and wherein the primary system is configured to update and replicate the content and the metadata into the backup registry and the backup repository after the central registry registers the metadata and after the central repository stores the content in the primary system.
A method for producing a sulfide solid electrolyte, comprising a firing step of firing a raw material containing Li 2 S in a hydrogen sulfide-containing atmosphere at a temperature of 300°C or higher, Li 2 S having a purity of 50 to 90% by mass and containing impurities including at least one of LiOH, Li 2 O, LiHCO 3, and Li 2 CO 3 at the start of firing.
A method of preparing MoS 2 nanoparticles comprising: agitating a mixture of molybdenum hexacarbonyl (Mo 6) and degassed oleylamine in a sealed container to produce a suspension of oleylamine/Mo 6; transferring at least a portion of the suspension of oleylamine/Mo 6 into a vessel containing degassed oleylamine to form a reaction mixture; heating the reaction mixture to 250° C; adding a first portion of 1-dodecane thiol to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; adding a second portion of 1-dodecane thiol to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; then heating the reaction mixture to 300° C; then adding a third portion of 1-dodecane thiol to the reaction mixture; and heating the reaction mixture at 300° C for 30 minutes. agitating a mixture of molybdenum hexacarbonyl (Mo 6) and degassed oleylamine in a sealed container to produce a suspension of oleylamine/Mo 6; transferring at least a portion of the suspension of oleylamine/Mo 6 into a vessel containing degassed oleylamine to form a reaction mixture; heating the reaction mixture to 250° C; adding a first portion of 1-dodecane thiol to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; adding a second portion of 1-dodecane thiol to the reaction mixture; heating the reaction mixture at 250° C for 30 minutes; then heating the reaction mixture to 300° C; then adding a third portion of 1-dodecane thiol to the reaction mixture; and heating the reaction mixture at 300° C for 30 minutes.
Degassing apparatus for degassing a liquid, comprising an in particular evacuable container, in particular mixing container, for accommodating the liquid to be degassed, a discharge device for discharging liquid standing in the container, a supply device for supplying liquid, wherein the supply device is connected in a fluid-conducting manner to the discharge device such that liquid discharged by the discharge device can be conducted back into the liquid standing in the container via the supply device, wherein the supply device comprises at least one nozzle which is positioned such that, during the use of the degassing apparatus, it is arranged above a liquid surface of the liquid standing in the container, and a rake stirrer having at least one rotatable arm and having a multiplicity of teeth which project from the at least one arm and are designed for being dipped into the liquid.