mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a computing device for managing data, and a remote historical data store, the computing device comprising: a plurality of sensors; one or more memory modules; a communication module; a Data Agent, when in use, coupled to the one or more memory modules, the communication module, and the plurality sensors, and the Data Agent configured to: provide access to data received by the Data Agent from the plurality of sensors to one or more applications executing on the computing device; and request, on behalf of one or more applications executing on the computing device, access to data in the remote historical data store, wherein the historical data store contains categorized or correlated data from one or more other devices, wherein the categorized or correlated data being the result of processing at the remote historical data store, and wherein a result of processing the categorized or correlated data is usable by the computing device. a plurality of sensors; one or more memory modules; a communication module; a Data Agent, when in use, coupled to the one or more memory modules, the communication module, and the plurality sensors, and the Data Agent configured to: provide access to data received by the Data Agent from the plurality of sensors to one or more applications executing on the computing device; and request, on behalf of one or more applications executing on the computing device, access to data in the remote historical data store, wherein the historical data store contains categorized or correlated data from one or more other devices, wherein the categorized or correlated data being the result of processing at the remote historical data store, and wherein a result of processing the categorized or correlated data is usable by the computing device. provide access to data received by the Data Agent from the plurality of sensors to one or more applications executing on the computing device; and request, on behalf of one or more applications executing on the computing device, access to data in the remote historical data store, wherein the historical data store contains categorized or correlated data from one or more other devices, wherein the categorized or correlated data being the result of processing at the remote historical data store, and wherein a result of processing the categorized or correlated data is usable by the computing device.
A system for managing patient data, the system comprising: a plurality of instruments (104, 104', 104"), each instrument comprising, a communication module (124, 124', 124") for enabling electronic bidirectional communication over a network between a first instrument and a second instrument in the plurality of instruments, wherein the direct electronic bidirectional communication comprises controlling the second instrument by the first instrument, and each instrument comprises a sampling member (120, 120', 120") comprising a probe for sampling a sample from a patient, and for acquiring data from the sample, the sample comprising a bodily fluid; characterized in that the network comprises a mesh-type network in which one or more of the plurality of instruments is configured to assist with transmission of a message from the first instrument to the second instrument; and wherein an instrument among the plurality of instruments is configured to operate as an agent-instrument for a plurality of others of the plurality of instruments to enable access to all patient data by the first instrument subsequent to other, second instruments acquiring and/or accessing their patient data by storing all patient data acquired by the plurality of other, second instruments in the agent instrument. a plurality of instruments (104, 104', 104"), each instrument comprising, a communication module (124, 124', 124") for enabling electronic bidirectional communication over a network between a first instrument and a second instrument in the plurality of instruments, wherein the direct electronic bidirectional communication comprises controlling the second instrument by the first instrument, and each instrument comprises a sampling member (120, 120', 120") comprising a probe for sampling a sample from a patient, and for acquiring data from the sample, the sample comprising a bodily fluid; characterized in that the network comprises a mesh-type network in which one or more of the plurality of instruments is configured to assist with transmission of a message from the first instrument to the second instrument; and wherein an instrument among the plurality of instruments is configured to operate as an agent-instrument for a plurality of others of the plurality of instruments to enable access to all patient data by the first instrument subsequent to other, second instruments acquiring and/or accessing their patient data by storing all patient data acquired by the plurality of other, second instruments in the agent instrument.
A superposed heat exchanger, comprising a plurality of fins superposed up; two opposite side edges of each fin are bent upwards to form a ventilating air path in coordination with an upper fin, and adjacent fins are arranged in a mode of vertical-horizontal alternating so as to form horizontal air paths and vertical air paths independent from each other; wherein pins are arranged on lower surfaces of two upwards bent side edges of the fin, and slots are arranged in upper surfaces of other two side edges; and pins of the fins are inserted into slots on lower fins so as to connect an upper and a lower adjacent fins, wherein the pins are downward convex, and the slots are downward concave; wherein a plurality of downward profiled grooves are provided in parallel on the fin in a direction vertical to the air path formed by the fin and an upper fin, and an air path formed with a lower fin is divided into a plurality of parallel air paths by the profiled grooves; wherein downward profiled grooves are provided on the fin in an air inlet and an air outlet in the front and rear of air paths formed between the fin and an upper fin, and the profiled grooves form the slots; and characterized in that a profiled depth on both ends of the profiled grooves is larger than a profiled depth in middle of the profiled grooves, so that downward convexes are formed so as to form the pins.
An ultrasound imaging device, comprising: an array of acoustic elements (729, 738) comprising a non-rectangular perimeter, wherein the array of acoustic elements further comprises: a plurality of active elements configured to emit ultrasound energy and to receive echoes corresponding to the emitted ultrasound energy; and a plurality of inactive elements surrounding the plurality of active elements at the non-rectangular perimeter of the array of acoustic elements; and an edge seal positioned at least partially around the plurality of inactive elements, wherein an inactive element of the plurality of inactive elements is spaced from at least one other inactive element by sealing material of the edge seal, and wherein the edge seal comprises: a first sealing material in direct contact with the non-rectangular perimeter of the array of acoustic elements, the first sealing material comprising a plurality of kerfs; and a second sealing material positioned around the first sealing material and disposed within the plurality of kerfs of the first sealing material. a plurality of active elements configured to emit ultrasound energy and to receive echoes corresponding to the emitted ultrasound energy; and a plurality of inactive elements surrounding the plurality of active elements at the non-rectangular perimeter of the array of acoustic elements; and an edge seal positioned at least partially around the plurality of inactive elements, wherein an inactive element of the plurality of inactive elements is spaced from at least one other inactive element by sealing material of the edge seal, and wherein the edge seal comprises: a first sealing material in direct contact with the non-rectangular perimeter of the array of acoustic elements, the first sealing material comprising a plurality of kerfs; and a second sealing material positioned around the first sealing material and disposed within the plurality of kerfs of the first sealing material. a first sealing material in direct contact with the non-rectangular perimeter of the array of acoustic elements, the first sealing material comprising a plurality of kerfs; and a second sealing material positioned around the first sealing material and disposed within the plurality of kerfs of the first sealing material.
Mercaptosilane-polymer blend, characterized in that this comprises at least one mercaptosilane of the general formula I where R 1 is an alkyl polyether group -O-(R 5 -O) m -R 6, where R 5 is identical or different and is a branched or unbranched, saturated or unsaturated, aliphatic divalent C1-C30 hydrocarbon group, m is on average from 1 to 30, and R 6 is composed of at least 1 C atom and is an unsubstituted or substituted, branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 2 is identical or different and is an R 1, C1-C12-alkyl or R 7 O group, where R 7 is H, methyl, ethyl, propyl, C9-C30 branched or unbranched monovalent alkyl, alkenyl, aryl, or aralkyl group or (R 8) 3 Si group, where R 8 is C1-C30 branched or unbranched alkyl or alkenyl group, R 3 is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group and R 4 is H, CN or (C=O) -R 9, where R 9 is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic monovalent C1-C30 hydrocarbon group, and at least one polymer selected from the group of polypropylene, polyethylene and mixtures of the abovementioned polymers.
A high-bonding strength copper-aluminum composite conductive material, comprising a clad copper layer and an aluminum core matrix, wherein an interatomic bonded metallurgical bonding layer is formed between the clad copper layer and the aluminum core matrix; the thickness of the bonding layer is 5∼35 μ m, and the bonding strength is ≥ 40Mpa; copper-aluminum intermetallic compounds are dispersedly distributed in the bonding layer; the copper-aluminum intermetallic compounds being CuAl 2, Cu 9 Al 4 and CuAl; the bonding layer comprises a first diffusion layer close to the clad copper layer and a second diffusion layer close to the aluminum core matrix, wherein the components of the first diffusion layer are uniform, wherein the second diffusion layer is of a reticular structure formed by a mixture of two or more component phases; and wherein a thickness of the second diffusion layer is wider than a thickness of the first diffusion layer; and wherein the clad copper layer of the high-bonding strength copper-aluminum composite conductive material comprises a side surface and a planar surface respectively called side copper layer and planar copper layer, wherein the thickness of the side copper layer is 1.6-2 times of the thickness the planar copper layer.
A method of handling transmission configuration of a communication device and a network in a wireless communication system, the method being utilized in the communication device and the network, and comprising: recording, by the communication device, traffic information of a plurality of packets which are transmitted between the communication device and the network of the wireless communication system according to the transmission configuration; transmitting, by the communication device, the traffic information to the network, wherein the transmission configuration is configured by the network according to the traffic information; receiving, by the network, the traffic information from the communication device; and configuring, by the network, the transmission configuration according to the traffic information; wherein the transmission configuration includes a discontinuous reception operation and the network configures a period of the DRX operation when a transition between a busy period and an idle period occurs; wherein the communication device performs at least one of a truncation and a quantization on the traffic information, before transmitting the traffic information to the network; wherein the traffic information comprises timing information, wherein the plurality of packets are transmitted according to the timing information, and comprises size information related to sizes of the plurality of packets. recording, by the communication device, traffic information of a plurality of packets which are transmitted between the communication device and the network of the wireless communication system according to the transmission configuration; transmitting, by the communication device, the traffic information to the network, wherein the transmission configuration is configured by the network according to the traffic information; receiving, by the network, the traffic information from the communication device; and configuring, by the network, the transmission configuration according to the traffic information; wherein the transmission configuration includes a discontinuous reception operation and the network configures a period of the DRX operation when a transition between a busy period and an idle period occurs; wherein the communication device performs at least one of a truncation and a quantization on the traffic information, before transmitting the traffic information to the network; wherein the traffic information comprises timing information, wherein the plurality of packets are transmitted according to the timing information, and comprises size information related to sizes of the plurality of packets.
An aircraft assembly, comprising: an aircraft panel; a channel attached to the aircraft panel; a fuel line (14a, 14b) for carrying cryogenic fuel, the fuel line (14a, 14b) disposed in the channel; and a sealed containment space around the fuel line (14a, 14b) for containing cryogenic fuel leaked from the fuel line (14a, 14b), the containment space defined between the channel, the fuel line (14a, 14b), and the aircraft panel. an aircraft panel; a channel attached to the aircraft panel; a fuel line (14a, 14b) for carrying cryogenic fuel, the fuel line (14a, 14b) disposed in the channel; and a sealed containment space around the fuel line (14a, 14b) for containing cryogenic fuel leaked from the fuel line (14a, 14b), the containment space defined between the channel, the fuel line (14a, 14b), and the aircraft panel.
A method for manufacturing a separator, comprising: preparing a porous planar substrate having a plurality of pores; preparing a slurry containing inorganic particles dispersed therein and a polymer solution comprising a first binder polymer and a second binder polymer in a solvent, and coating the slurry on at least one surface of the porous substrate; spraying a non-solvent incapable of dissolving the second binder polymer on the slurry; and simultaneously removing the solvent and the non-solvent by drying. preparing a porous planar substrate having a plurality of pores; preparing a slurry containing inorganic particles dispersed therein and a polymer solution comprising a first binder polymer and a second binder polymer in a solvent, and coating the slurry on at least one surface of the porous substrate; spraying a non-solvent incapable of dissolving the second binder polymer on the slurry; and simultaneously removing the solvent and the non-solvent by drying.
A device for mechanical separation of material conglomerates from materials of different density and/or consistency, comprising a separating chamber (22, 24, 26) with a feed side and a discharge side, which separating chamber is surrounded by a cylindrical separating chamber wall or a separating chamber wall the diameter of which increases from the feed side towards the discharge side, and comprises at least two consecutive sections (22, 24, 26) in the axial direction, in each of which at least one rotor (16, 18, 20) with impact tools (42, 44, 46, 48, 50, 52) which extend radially into the separating chamber is arranged, with the following features: - the rotors have in the consecutive sections from the feed side to the discharge side a rotor casing (17, 19, 21), of which the radius increases towards the discharge side, - the difference between the radius of the rotor casing and the radius of the separating chamber wall decreases from the feed side towards the discharge side, - the directions of rotation of the rotor in the section facing the discharge side and the rotor of the section which lies ahead in the direction of the material flow are counter-rotating, characterized in that the rotational velocity of the rotors in the sections (22, 24, 26) increases from the feed side towards the discharge side of the separating chamber. - the rotors have in the consecutive sections from the feed side to the discharge side a rotor casing (17, 19, 21), of which the radius increases towards the discharge side, - the difference between the radius of the rotor casing and the radius of the separating chamber wall decreases from the feed side towards the discharge side, - the directions of rotation of the rotor in the section facing the discharge side and the rotor of the section which lies ahead in the direction of the material flow are counter-rotating, characterized in that the rotational velocity of the rotors in the sections (22, 24, 26) increases from the feed side towards the discharge side of the separating chamber.
A system comprising an apparatus for determining the monomer to comonomer ratio of a copolymer of ethylene and at least one C3-C20 alpha-olefin wherein the C3-C20 alpha-olefin is selected from the group consisting of 1-propylene, 1-butene, 1-hexene, 1-heptene and 1-octene wherein the apparatus comprises a high temperature liquid chromatography unit equipped with a graphitic carbon liquid chromatography column, a pump, a copolymer solution, wherein the system further comprises a means for an additional fractionation by size exclusion chromatography or asymmetric flow field flow fractionation, added after the fractionation by the graphitic column.
Device for cutting a product of confectionery mass, comprising at least one transport device for a transport of the product that is to be cut, at least one further transport device and at least one cutting apparatus comprising a plurality of cutter means which are arranged on at least one cutting shaft, the transport device being implemented to feed a carpet of products to be cut to the cutting apparatus in a transport direction, the further transport device being implemented to remove the cut product from the cutting apparatus for further processing, characterised in that at least one adjustment device is provided for a displacement of the cutter means along the cutting shaft.
A skin material for the clad material used in a method for manufacturing a clad material composed of a core material and one or more skin materials that are superposed on either one or both faces of the core material, the method for manufacturing the clad material comprising: a clad material preparation process where an ingot for core material, which is manufactured by dissolving and casting a metal for core material in a core material preparation process, and an ingot for skin material, which is manufactured by dissolving and casting a metal for skin material different from the core material in their component compositions, in a skin material preparation process, are prepared, respectively; a superposition process where the ingot for skin material is superposed as a skin material at a predetermined position of either one or both faces of the ingot for core material to manufacture a superposed material; and a clad hot-rolling process where the superposed material is hot-rolled to manufacture a clad material, wherein the skin material for the clad material is composed of one or more layers; each layer of the skin material is made of a metal different from the core material in their component compositions; and at least one layer of the skin material has a cast microstructure, characterized in that at least one of the skin materials has a flatness of equal to or less than 1 mm per 1 m in the lengthwise direction and an arithmetic mean roughness (Ra) of a surface roughness in the range of 0.05 to 1.0 μm. a clad material preparation process where an ingot for core material, which is manufactured by dissolving and casting a metal for core material in a core material preparation process, and an ingot for skin material, which is manufactured by dissolving and casting a metal for skin material different from the core material in their component compositions, in a skin material preparation process, are prepared, respectively; a superposition process where the ingot for skin material is superposed as a skin material at a predetermined position of either one or both faces of the ingot for core material to manufacture a superposed material; and a clad hot-rolling process where the superposed material is hot-rolled to manufacture a clad material, wherein the skin material for the clad material is composed of one or more layers; each layer of the skin material is made of a metal different from the core material in their component compositions; and at least one layer of the skin material has a cast microstructure, characterized in that at least one of the skin materials has a flatness of equal to or less than 1 mm per 1 m in the lengthwise direction and an arithmetic mean roughness (Ra) of a surface roughness in the range of 0.05 to 1.0 μm.
Adaptive adjustment method for a bending tool assembly for air bending sheet metal parts, wherein the bending tool assembly comprises a pressing beam on which a bending punch can be mounted and a bench beam on which a bending die can be mounted, wherein the pressing beam can be moved along a displacement plane relative to the bench beam, and wherein a die width w of the bending die can be changed in a direction normal to the displacement plane, and wherein the bending tool assembly comprises an end stop device having an abutment surface for the sheet metal part, and wherein the end stop device is disposed so as to be movable parallel to a feed plane normal to the displacement plane, characterized in that in each bending process: - an actual thickness of the sheet metal part is captured; - a thickness deviation dt of the actual thickness from a target thickness is calculated; - a correction value dw is established for the die width depending on the thickness deviation dt based on a mathematical equation system of the bending operation; - the die width is changed by the correction value dw; - further, a correction value dx for an end stop position or end stop distance x is calculated from the thickness deviation dt, and the abutment surface is moved by the calculated correction value dx relative to the displacement plane to an end stop position x that is calculated on the basis of the mathematical equation system of the bending operation; - the bending deformation is performed. - an actual thickness of the sheet metal part is captured; - a thickness deviation dt of the actual thickness from a target thickness is calculated; - a correction value dw is established for the die width depending on the thickness deviation dt based on a mathematical equation system of the bending operation; - the die width is changed by the correction value dw; - further, a correction value dx for an end stop position or end stop distance x is calculated from the thickness deviation dt, and the abutment surface is moved by the calculated correction value dx relative to the displacement plane to an end stop position x that is calculated on the basis of the mathematical equation system of the bending operation; - the bending deformation is performed.