mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, via a human machine interface, an input from a driver of a vehicle indicating a lateral-control aggressiveness, the input comprising a preset selection or adjustable selection of a minimum road-curvature to enable a lane change; receiving from a driver-monitoring sensor, with a controller circuit, identity data indicating an identity of the driver; receiving from one or more vehicle sensors separate from the human machine interface, with the controller circuit, vehicle lateral-response data based on steering maneuvers performed as the vehicle operates under control of the driver, the vehicle lateral-response data comprising information about lateral movements or lateral accelerations of the vehicle as it operates under control of the driver; determining, based on the vehicle lateral-response data, with the controller circuit, a plurality of lateral-steering parameters of the vehicle, the vehicle lateral-response data indicative of the lateral movements or lateral accelerations of the vehicle; adjusting based on the plurality of lateral-steering parameters and the input from the driver to the human machine interface, with the controller circuit, lateral-control parameters of the vehicle; associating the adjusted lateral-control parameters of the vehicle with the identity of the driver, the lateral-control parameters usable to adjust positioning of the vehicle; and operating the vehicle, with the controller circuit, according to the lateral-control parameters associated with the identity of the driver. receiving, via a human machine interface, an input from a driver of a vehicle indicating a lateral-control aggressiveness, the input comprising a preset selection or adjustable selection of a minimum road-curvature to enable a lane change; receiving from a driver-monitoring sensor, with a controller circuit, identity data indicating an identity of the driver; receiving from one or more vehicle sensors separate from the human machine interface, with the controller circuit, vehicle lateral-response data based on steering maneuvers performed as the vehicle operates under control of the driver, the vehicle lateral-response data comprising information about lateral movements or lateral accelerations of the vehicle as it operates under control of the driver; determining, based on the vehicle lateral-response data, with the controller circuit, a plurality of lateral-steering parameters of the vehicle, the vehicle lateral-response data indicative of the lateral movements or lateral accelerations of the vehicle; adjusting based on the plurality of lateral-steering parameters and the input from the driver to the human machine interface, with the controller circuit, lateral-control parameters of the vehicle; associating the adjusted lateral-control parameters of the vehicle with the identity of the driver, the lateral-control parameters usable to adjust positioning of the vehicle; and operating the vehicle, with the controller circuit, according to the lateral-control parameters associated with the identity of the driver.
A heat exchanger configured to perform heat exchange between a heat source and a liquid by boiling the liquid, wherein the heat exchanger comprises: a heat transfer member disposed between the heat source and the liquid, the heat transfer member configured to transfer heat from the heat source to the liquid, characterised in that a surface of the heat transfer member on a side of the heat transfer member that comes in contact with the liquid comprises a first heat conduction region and a second heat conduction region; the first heat conduction region and the second heat conduction region are alternately provided in a form of stripes on the surface; and the thermal conductivity of the first heat conduction region is higher than the thermal conductivity of the second heat conduction region. a heat transfer member disposed between the heat source and the liquid, the heat transfer member configured to transfer heat from the heat source to the liquid, characterised in that a surface of the heat transfer member on a side of the heat transfer member that comes in contact with the liquid comprises a first heat conduction region and a second heat conduction region; the first heat conduction region and the second heat conduction region are alternately provided in a form of stripes on the surface; and the thermal conductivity of the first heat conduction region is higher than the thermal conductivity of the second heat conduction region.
Process for producing hydrosilylable polyoxyalkylene ethers, comprising the steps of alkoxylation of at least one terminally unsaturated alcohol with alkylene oxides to afford a polyoxyalkylene ether, etherification of the polyoxyalkylene ether from step and neutralization of the product from step under buffered conditions. alkoxylation of at least one terminally unsaturated alcohol with alkylene oxides to afford a polyoxyalkylene ether, etherification of the polyoxyalkylene ether from step and neutralization of the product from step under buffered conditions.
A vehicle seat comprising a three-point safety belt arrangement for a vehicle safety belt, comprising a belt retractor with a belt reel onto which the safety belt is wound when the strap is reeled in and from which the safety belt can be unwound when the belt strap is pulled out, a belt strap-sensitive blocking device which blocks extension of the belt strap when the belt strap is extended with excessive acceleration, there being provided on the safety belt two insertion tongues (50, 51) which can be inserted into belt buckles (27, 28) which are provided on both sides of a vehicle seat, and of which one insertion tongue is fastened at the end of the belt strap and the other insertion tongue is displaceably mounted on the safety belt, and a back rest of the vehicle seat or the vehicle seat is made such that it can fold down or pivot, characterised in that the two belt buckles (27, 28) are also pivoted when the back rest of the vehicle seat or the vehicle seat is folded down or pivoted, and that a retarding device, which is rotatably connected to the belt reel and prevents activation of the belt strap-sensitive blocking mechanism, is designed to keep the belt strap-sensitive blocking mechanism inactive at the start of the belt strap extension, at least in the pivot region of the belt buckle located on the side of the belt retractor and in which the insertion tongue fastened to the end of the safety belt is inserted, the retarding device having a circular segmental track which is moved about the belt reel axis with gear reduction and along which a belt strap-sensitive locking device which rotates with the belt reel is guided in order to prevent any movement which initiates blocking.
A powder material for three-dimensional modeling comprising: a base particle; and a resin including a first water soluble resin and a second water soluble resin, wherein a first aqueous solution of the first water soluble resin having a concentration of two percent by mass has a thermally reversible sol-gel phase transition and is gelated at temperatures higher than a phase transition temperature of the first aqueous solution; and a second aqueous solution of the second water soluble resin having a concentration of two percent by mass: has a thermally reversible sol-gel phase transition and is gelated at temperatures lower than a phase transition temperature of the second aqueous solution, or has no thermally reversible sol-gel phase transition. a base particle; and a resin including a first water soluble resin and a second water soluble resin, wherein a first aqueous solution of the first water soluble resin having a concentration of two percent by mass has a thermally reversible sol-gel phase transition and is gelated at temperatures higher than a phase transition temperature of the first aqueous solution; and a second aqueous solution of the second water soluble resin having a concentration of two percent by mass: has a thermally reversible sol-gel phase transition and is gelated at temperatures lower than a phase transition temperature of the second aqueous solution, or has no thermally reversible sol-gel phase transition. has a thermally reversible sol-gel phase transition and is gelated at temperatures lower than a phase transition temperature of the second aqueous solution, or has no thermally reversible sol-gel phase transition.
A P-type skutterudite thermoelectric material represented by the following Chemical Formula 1: [Chemical Formula 1] M x Fe 4-y Co y Sb 12-z H z wherein, in Chemical Formula 1, M is two or more kinds of elements selected from the group consisting of Ce, La, Sm, Nd, Yb, In, and Ba, H is one or more kinds of elements selected from the group consisting of Sn, Ge, Se, and Te, 0 < x ≤1, 0 < y ≤ 1.5, and 0 < z ≤0.2. M is two or more kinds of elements selected from the group consisting of Ce, La, Sm, Nd, Yb, In, and Ba, H is one or more kinds of elements selected from the group consisting of Sn, Ge, Se, and Te, 0 < x ≤1, 0 < y ≤ 1.5, and 0 < z ≤0.2.
Powder mixture for dry method of thermal spraying which is a powder mixture consisting of ceramic powder A whose particle diameter is D1 and ceramic powder B whose particle diameter is D2, wherein D1 is 0.5 to 10 μm as a median diameter, wherein D2 is 0.003 to 0.030 μm as an average particle diameter converted from the BET specific surface area, wherein, in the powder mixture, the particles of ceramic powder B adhere to surfaces of the particles of ceramic powder A for preventing agglomeration of particles of ceramic powder A, wherein, in the powder mixture, the total weight of the ceramic powder A is W1, and the total weight of the ceramic powder B is W2, and wherein the relative weight of the ceramic powder B defined by the following formula Y = W 2 / W 1 + W 2 satisfies: Y ≥ 0.2066 × 1 μm − 1 × D 1 − 0.751 and Y ≤ 0.505 × 1 μm − 1 × D1 − 0.163. wherein D1 is 0.5 to 10 μm as a median diameter, wherein D2 is 0.003 to 0.030 μm as an average particle diameter converted from the BET specific surface area, wherein, in the powder mixture, the particles of ceramic powder B adhere to surfaces of the particles of ceramic powder A for preventing agglomeration of particles of ceramic powder A, wherein, in the powder mixture, the total weight of the ceramic powder A is W1, and the total weight of the ceramic powder B is W2, and wherein the relative weight of the ceramic powder B defined by the following formula Y = W 2 / W 1 + W 2 satisfies: Y ≥ 0.2066 × 1 μm − 1 × D 1 − 0.751 and Y ≤ 0.505 × 1 μm − 1 × D1 − 0.163.
A gate valve assembly comprising: a valve body having a channel extending from a distal end to a proximal end; a gate configured to be moved from a first position to a second position, the second position being when the gate is positioned in the channel of the valve body between the distal end and the proximal end of the valve body; a seat insert (104, 106) in a pocket of the valve body; a seat (114, 116) configured to be positioned within the seat insert (104, 106); an annular seal (111, 112, 210) adapted to be positioned within a groove of the seat insert (104, 106) and positioned between the valve body and the seat insert (104, 106), the seat insert (104, 106) is configured to receive and accommodate the seat (114, 116) in a counter bore channel with a seat seal (117, 118, 212) on an outside diameter of the seat (114, 116); a spring (120, 122, 204) positioned between the back face of the seat (114, 116) and the seat insert (104, 106); wherein the annular seal (111, 112) is a fixed static seal providing no gaps and/or spaces between the seat insert (104, 106) and the valve body allowing no debris to corrupt the seals wherein the seat seal (117, 118, 212) provides a very limited dynamic action; characterized in that the pocket of the valve body is threaded and the seat insert (104, 106) comprises threads to be threaded into the threaded pocket of the valve body; and in that when the gate is in a closed position, the seat (114, 116) and the gate have a metal-to-metal contact. a valve body having a channel extending from a distal end to a proximal end; a gate configured to be moved from a first position to a second position, the second position being when the gate is positioned in the channel of the valve body between the distal end and the proximal end of the valve body; a seat insert (104, 106) in a pocket of the valve body; a seat (114, 116) configured to be positioned within the seat insert (104, 106); an annular seal (111, 112, 210) adapted to be positioned within a groove of the seat insert (104, 106) and positioned between the valve body and the seat insert (104, 106), the seat insert (104, 106) is configured to receive and accommodate the seat (114, 116) in a counter bore channel with a seat seal (117, 118, 212) on an outside diameter of the seat (114, 116); a spring (120, 122, 204) positioned between the back face of the seat (114, 116) and the seat insert (104, 106); wherein the annular seal (111, 112) is a fixed static seal providing no gaps and/or spaces between the seat insert (104, 106) and the valve body allowing no debris to corrupt the seals wherein the seat seal (117, 118, 212) provides a very limited dynamic action; characterized in that the pocket of the valve body is threaded and the seat insert (104, 106) comprises threads to be threaded into the threaded pocket of the valve body; and in that when the gate is in a closed position, the seat (114, 116) and the gate have a metal-to-metal contact.
An instrument system for preparing an intervertebral space for receiving an implant, comprising: a trial implant of a size corresponding to an actual implant for the intervertebral space; a milling guide mounted on said trial implant; a cutting tool, characterized in that said milling guide includes upper and lower longitudinal guide chambers which are tapered from a forward end to a rearward end; and wherein the cutting tool is configured to be received in said guide chambers in order to form cutouts in adjacent respective upper and lower vertebra, said cutting tool including a bearing member which engages said rearward ends and forms a pivot axis therewith for said cutting tool in said tapered guide chamber. a trial implant of a size corresponding to an actual implant for the intervertebral space; a milling guide mounted on said trial implant; a cutting tool,
A method for processing data, performed by a terminal, comprising determining whether data to be processed needs to be processed by a network-side device, wherein the network-side device comprises at least one of: a base station, and a core network; in response to determining that the data to be processed needs to be processed by the network-side device, sending a request for establishing a connection to the network-side device, wherein, the request carries a purpose of establishing a connection, and the purpose is to request the network-side device to process the data to be processed and return processed data to the terminal; determining whether the network-side device is capable of processing the data to be processed based on feedback information sent by the network-side device; in response to the network-side device being capable of processing the data to be processed, sending the data to be processed to the network-side device for processing after establishing a connection with the network-side device; and receiving the processed data after the network-side device processes the data to be processed. determining whether data to be processed needs to be processed by a network-side device, wherein the network-side device comprises at least one of: a base station, and a core network; in response to determining that the data to be processed needs to be processed by the network-side device, sending a request for establishing a connection to the network-side device, wherein, the request carries a purpose of establishing a connection, and the purpose is to request the network-side device to process the data to be processed and return processed data to the terminal; determining whether the network-side device is capable of processing the data to be processed based on feedback information sent by the network-side device; in response to the network-side device being capable of processing the data to be processed, sending the data to be processed to the network-side device for processing after establishing a connection with the network-side device; and receiving the processed data after the network-side device processes the data to be processed.
A method for evaluating renal status in a subject, comprising: performing an assay method configured to detect one or more biomarkers comprising Beta-2-glycoprotein 1, wherein the assay generates a detectable signal indicative of the presence or amount of a physiologically relevant concentration of Beta-2-glycoprotein 1 of SEQ ID NO: 1, or a naturally occurring variant thereof, on a body fluid sample obtained from the subject to provide an assay result; and correlating the assay result to the renal status of the subject, wherein said correlating step comprises assigning a likelihood of a future change in renal status to the subject based on the assay result, wherein said future change in renal status comprises future acute renal failure. performing an assay method configured to detect one or more biomarkers comprising Beta-2-glycoprotein 1, wherein the assay generates a detectable signal indicative of the presence or amount of a physiologically relevant concentration of Beta-2-glycoprotein 1 of SEQ ID NO: 1, or a naturally occurring variant thereof, on a body fluid sample obtained from the subject to provide an assay result; and correlating the assay result to the renal status of the subject, wherein said correlating step comprises assigning a likelihood of a future change in renal status to the subject based on the assay result, wherein said future change in renal status comprises future acute renal failure.
A building element structure comprising a hollow shell formed from a first material defining at least one internal chamber (44,46,48,50,52) filled with a geopolymer material; wherein the geopolymer material is a curable mixture formed from a mixture of aluminosilicate metakaolin, mixed with mica and/or other lamellar material, and an aqueous alkali metal silicate solution comprising an alkali metal hydroxide solution, the curable mixture comprising by weight as compared to 3 parts by weight of the aluminosilicate metakaolin the following ratios of constituents: from at least 1 up to 5 parts of mica and/or other lamellar material; from 0 up to 4 parts of an alkali metal silicate, which is potassium and/or sodium silicate; from at least 0.2 up to 3 parts of an alkali metal hydroxide, which is potassium and/or sodium hydroxide; and from at least 1 up to 6 parts of water. from at least 1 up to 5 parts of mica and/or other lamellar material; from 0 up to 4 parts of an alkali metal silicate, which is potassium and/or sodium silicate; from at least 0.2 up to 3 parts of an alkali metal hydroxide, which is potassium and/or sodium hydroxide; and from at least 1 up to 6 parts of water.
A system for image-based analysis of a plurality of analytes (125a, 125b, 125c), comprising: a detection surface having a plurality of types of capture particles (115a, 115b, 115c) thereon, each of said types of capture particles (115a, 115b, 115c) having a uniquely identifiable spectral feature, and each type of said capture particles (115a, 115b, 115c) having at least one analyte-specific capture molecule (120a, 120b, 120c) attached thereto; a plurality of types of analyte-specific detector molecules (130a, 130b, 130c), each of said plurality of types corresponding to one of said types of analyte-specific capture molecules; a plurality of analytes (125a, 125b, 125c), each analyte (125a, 125b, 125c) attached to a capture molecule (120a, 120b, 120c) of a capture particle (115a, 115b, 115c) specific to the analyte (125a, 125b, 125c) and attached to a detector molecule (130a, 130b, 130c) specific to the analyte (125a, 125b, 125c); wherein said capture particles (115a, 115b, 115c), capture molecules (120a, 120b, 120c), detector molecules (130a, 130b, 130c) and attached analytes (125a, 125b, 125c) are immobilized in a matrix comprising a gel, a glue, a resin, a wax, or an adhesive; a light source; an imaging sensor; and a computer having a program stored in a computer memory device having instructions thereon; the computer being configured to determine the type and amount of each of said plurality of analytes. a detection surface having a plurality of types of capture particles (115a, 115b, 115c) thereon, each of said types of capture particles (115a, 115b, 115c) having a uniquely identifiable spectral feature, and each type of said capture particles (115a, 115b, 115c) having at least one analyte-specific capture molecule (120a, 120b, 120c) attached thereto; a plurality of types of analyte-specific detector molecules (130a, 130b, 130c), each of said plurality of types corresponding to one of said types of analyte-specific capture molecules; a plurality of analytes (125a, 125b, 125c), each analyte (125a, 125b, 125c) attached to a capture molecule (120a, 120b, 120c) of a capture particle (115a, 115b, 115c) specific to the analyte (125a, 125b, 125c) and attached to a detector molecule (130a, 130b, 130c) specific to the analyte (125a, 125b, 125c); wherein said capture particles (115a, 115b, 115c), capture molecules (120a, 120b, 120c), detector molecules (130a, 130b, 130c) and attached analytes (125a, 125b, 125c) are immobilized in a matrix comprising a gel, a glue, a resin, a wax, or an adhesive; a light source; an imaging sensor; and a computer having a program stored in a computer memory device having instructions thereon; the computer being configured to determine the type and amount of each of said plurality of analytes.