mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: (a) bis(2-ethylhexyl) succinate; (b) a binder selected from the group consisting of an alkyd, an acrylic, a vinyl acrylic, a vinyl acetate/ethylene, a polyurethane, a polyester, a melamine resin, an epoxy, a styrene, a styrene-acrylic copolymer, a styrene-alkene copolymer, and any derivative thereof; and (c) a solvent, wherein the composition is used in a product selected from the group consisting of a paint, an adhesive, an ink, a toner, a sealant, a stain, a glaze, a carpet backing, and a primer. (a) bis(2-ethylhexyl) succinate; (b) a binder selected from the group consisting of an alkyd, an acrylic, a vinyl acrylic, a vinyl acetate/ethylene, a polyurethane, a polyester, a melamine resin, an epoxy, a styrene, a styrene-acrylic copolymer, a styrene-alkene copolymer, and any derivative thereof; and (c) a solvent,
An in vitro method of making a differential diagnosis between cardiovascular disease and pulmonary disease in a subject having chest pain or dyspnea, the method comprising: determining a level of soluble ST2 (Interleukin 1 Receptor Like 1 (IL1RL1)) in a sample from a subject; determining a level of brain natriuretic peptide in the sample; and comparing the level of soluble ST2 to a reference level of soluble ST2 in a subject who has neither CVD nor PD, has a high likelihood of having PD or CVD, or has CVD and/or PD; comparing the level of BNP in the sample to a low threshold level of BNP of 100 pg/mL and a high threshold level of BNP of 500 pg/mL; and diagnosing a subject having chest pain or dyspnea, a soluble ST2 level less than the reference level of soluble ST2, and a BNP level equal to or greater than 100 pg/mL as having CVD; diagnosing a subject having chest pain or dyspnea, a soluble ST2 level equal to or greater than the reference level of soluble ST2, and a BNP level that is equal to or less than 500 pg/mL as having PD; or diagnosing a subject having chest pain or dyspnea, a soluble ST2 level equal to or greater than the reference level of soluble ST2, and a BNP level greater than 500 pg/mL as having CVD; wherein the sample comprises blood, serum, or plasma. determining a level of soluble ST2 (Interleukin 1 Receptor Like 1 (IL1RL1)) in a sample from a subject; determining a level of brain natriuretic peptide in the sample; and comparing the level of soluble ST2 to a reference level of soluble ST2 in a subject who has neither CVD nor PD, has a high likelihood of having PD or CVD, or has CVD and/or PD; comparing the level of BNP in the sample to a low threshold level of BNP of 100 pg/mL and a high threshold level of BNP of 500 pg/mL; and diagnosing a subject having chest pain or dyspnea, a soluble ST2 level less than the reference level of soluble ST2, and a BNP level equal to or greater than 100 pg/mL as having CVD; diagnosing a subject having chest pain or dyspnea, a soluble ST2 level equal to or greater than the reference level of soluble ST2, and a BNP level that is equal to or less than 500 pg/mL as having PD; or diagnosing a subject having chest pain or dyspnea, a soluble ST2 level equal to or greater than the reference level of soluble ST2, and a BNP level greater than 500 pg/mL as having CVD; wherein the sample comprises blood, serum, or plasma.
A computer-implemented method of estimating a charge state for a battery cell comprised with a vehicle (100, 102), the vehicle (100, 102) further comprising a battery management arrangement further comprising a control unit, the method comprising: - forming a first, a second and a third battery cell equivalent model for the battery cell, where the plurality of battery equivalent models relates to a first, a second and a third (406, 408) operational states for the battery cell, respectively; - measuring an intermediate electrical current value of the battery cell; - determining, by the control unit and based on the intermediate electrical current value, if the battery cell is in the first, the second or the third (406, 408) operational state for the battery cell, and - estimating, by the control unit, the charge state for the battery cell based on the battery cell equivalent model corresponding to the determined operational state, and - identifying, by the control unit, a transition between operational states (402, 404, 406, 408), wherein an output parameter from a previously applied battery cell equivalent model for estimating the charge state is provided as an input parameter for a subsequently applied battery cell equivalent model for estimating the charge state, characterized in that the first, the second and the third battery cell equivalent model corresponds to a charge battery equivalent model, a discharge battery cell equivalent model and a relaxation battery cell equivalent model, respectively. - forming a first, a second and a third battery cell equivalent model for the battery cell, where the plurality of battery equivalent models relates to a first, a second and a third (406, 408) operational states for the battery cell, respectively; - measuring an intermediate electrical current value of the battery cell; - determining, by the control unit and based on the intermediate electrical current value, if the battery cell is in the first, the second or the third (406, 408) operational state for the battery cell, and - estimating, by the control unit, the charge state for the battery cell based on the battery cell equivalent model corresponding to the determined operational state, and - identifying, by the control unit, a transition between operational states (402, 404, 406, 408), wherein an output parameter from a previously applied battery cell equivalent model for estimating the charge state is provided as an input parameter for a subsequently applied battery cell equivalent model for estimating the charge state, characterized in that the first, the second and the third battery cell equivalent model corresponds to a charge battery equivalent model, a discharge battery cell equivalent model and a relaxation battery cell equivalent model, respectively.
A method for improving the stability of an antibody lambda light chain by modifying the constant region of a parental antibody lambda light chain having a constant domain Clambda7 according to sequence CL7 of Figure 3, comprising: (a) deleting the C-terminal amino acid residue Serine 215 in said constant domain; and (b) making the following amino acid residue exchange in said constant domain: V136I, and optionally one or more of the following amino acid residue exchanges: T145K, K156N, V157T, and K163T. (a) deleting the C-terminal amino acid residue Serine 215 in said constant domain; and (b) making the following amino acid residue exchange in said constant domain: V136I, and optionally one or more of the following amino acid residue exchanges: T145K, K156N, V157T, and K163T.
Method for the manufacture of an optical article comprising the following steps: - providing a substrate having two main faces and bearing -OH functions on at least one of its faces, - successively exposing one face of the substrate bearing -OH functions to at least two distinct materials named M1 and M2, in the order M1 followed by M2, M1 having a weight average molecular weight higher than M2, in a vacuum chamber under conditions resulting in the deposit of those materials on the surface of the substrate, and wherein: - M1 is a substituted silane, comprising: ∘ at least one function X1 bonded to a silicon atom, wherein the Si-X1 group is capable of forming a covalent bond with a -OH group of the substrate, and/or a covalent bond with M2, and ∘ at least one fluorine containing group, - M2 is a substituted silane having a number average molecular weight inferior or equal to 900 g/mol, comprising: ∘ at least one function X2 bonded to a silicon atom, wherein the Si-X2 group is capable of forming a covalent bond with a -OH group of the substrate and/or a covalent bond with M1, and ∘ at least one hydrophobic and/or oleophobic group, or at least one hydrophilic group, wherein the difference between the weight average molecular weight of M1 and the weight average molecular weight of M2 is higher than or equal to 600 g/mol, preferably higher than or equal to 900 g/mol, and M1 and/or M2 molecules are covalently grafted on the substrate's surface. - providing a substrate having two main faces and bearing -OH functions on at least one of its faces, - successively exposing one face of the substrate bearing -OH functions to at least two distinct materials named M1 and M2, in the order M1 followed by M2, M1 having a weight average molecular weight higher than M2, in a vacuum chamber under conditions resulting in the deposit of those materials on the surface of the substrate, and wherein: - M1 is a substituted silane, comprising: ∘ at least one function X1 bonded to a silicon atom, wherein the Si-X1 group is capable of forming a covalent bond with a -OH group of the substrate, and/or a covalent bond with M2, and ∘ at least one fluorine containing group, ∘ at least one function X1 bonded to a silicon atom, wherein the Si-X1 group is capable of forming a covalent bond with a -OH group of the substrate, and/or a covalent bond with M2, and ∘ at least one fluorine containing group, - M2 is a substituted silane having a number average molecular weight inferior or equal to 900 g/mol, comprising: ∘ at least one function X2 bonded to a silicon atom, wherein the Si-X2 group is capable of forming a covalent bond with a -OH group of the substrate and/or a covalent bond with M1, and ∘ at least one hydrophobic and/or oleophobic group, or at least one hydrophilic group, ∘ at least one function X2 bonded to a silicon atom, wherein the Si-X2 group is capable of forming a covalent bond with a -OH group of the substrate and/or a covalent bond with M1, and ∘ at least one hydrophobic and/or oleophobic group, or at least one hydrophilic group,
A light-based communication method comprising: detecting, via a first light-sensing device (250, 265) of a mobile computing device, a pulsing light signal encoded with data, the detecting being done at a first sampling rate; decoding first data therefrom; determining a location of a source of the pulsing light signal using the first data; providing instructions to point a second light-sensing device (250, 265) of the mobile computing device towards the source of the pulsing light signal; detecting, via the second light-sensing device (250, 265), the pulsing light signal encoded with data, the detecting being done at a second sampling rate different from the first sampling rate; and decoding second data therefrom. detecting, via a first light-sensing device (250, 265) of a mobile computing device, a pulsing light signal encoded with data, the detecting being done at a first sampling rate; decoding first data therefrom; determining a location of a source of the pulsing light signal using the first data; providing instructions to point a second light-sensing device (250, 265) of the mobile computing device towards the source of the pulsing light signal; detecting, via the second light-sensing device (250, 265), the pulsing light signal encoded with data, the detecting being done at a second sampling rate different from the first sampling rate; and decoding second data therefrom.
Final drive unit for an electric motor-driven motor vehicle drive train of a passenger car with a shiftable two-speed transmission for transmitting propulsion power within a motor vehicle drivetrain, comprising a rotationally driven input member, via which, when propulsion power is being transmitted, the propulsion power is introduced into the transmission, and an output member, via which the propulsion power can be transmitted out of the transmission, wherein, subject to the shift position of a shiftable clutch, a direct drive (i=1) or a transmission stage having a transmission ratio (i≠1) which differs from the direct drive can be implemented between the input member and the output member, and wherein an outer gear unit and a planet gear unit are provided when propulsion power is being transmitted, the propulsion power is introduced into the transmission via the outer gear unit, characterized in that the planet gear unit has at least one planet gear pair having at least one first planet gear having a first effective planet gear diameter and at least one second planet gear (7") connected for conjoint rotation to the first planet gear and having a second effective planet gear diameter, wherein, in addition to a supporting sun unit having a supporting sun gear having an effective supporting sun gear diameter, an output sun unit having an output sun gear (9") having an output sun gear diameter is provided, and wherein the first planet gear meshes with the supporting sun gear, and the second planet gear (7") meshes with the output sun gear (9"), wherein the supporting sun gear is blocked in at least one direction of rotation by a blocking device, and the propulsion power is transmitted out of the transmission via the output sun gear (9").
A monitoring system for liquid level detection in a tank, comprising a support body supporting at least one pressure sensor configured for measuring a liquid level in the tank, and a control unit connected to the pressure sensor; the system being characterized by comprising a pair of optical sensors (55, 56) positioned spaced apart from each other on the support body and connected to the control unit; and in that the control unit is configured so as to calibrate the pressure sensor according to data provided by the optical sensors (55, 56).
A damped anti-rotational system (200; 500) for a gas turbine engine comprising: a pawl carrier having an axis of rotation; a pawl (202; 502) pivotably mounted to the pawl carrier on a pivot joint (302; 504), the pawl (202; 502) having a contact portion and a counterweight portion; and a stop pin (204; 508) axially disposed in the pawl carrier, wherein the stop pin (204; 508) is mounted to the pawl carrier at a forward portion of the stop pin (204; 508) and an aft portion of the stop pin (204; 508), and characterised in that the stop pin is configured to contact the contact portion of the pawl (202; 502) in response to radially inward movement of the pawl (202; 502) towards the pawl carrier, and a forward O ring is disposed on the forward portion of the stop pin (204; 508) between the stop pin (204; 508) and the pawl carrier and an aft O ring is disposed on the aft portion of the stop pin (204; 508) between the stop pin (204; 508) and the pawl carrier, such that the pawl carrier is not in contact with the stop pin. a pawl carrier having an axis of rotation; a pawl (202; 502) pivotably mounted to the pawl carrier on a pivot joint (302; 504), the pawl (202; 502) having a contact portion and a counterweight portion; and a stop pin (204; 508) axially disposed in the pawl carrier, wherein the stop pin (204; 508) is mounted to the pawl carrier at a forward portion of the stop pin (204; 508) and an aft portion of the stop pin (204; 508), and characterised in that the stop pin is configured to contact the contact portion of the pawl (202; 502) in response to radially inward movement of the pawl (202; 502) towards the pawl carrier, and a forward O ring is disposed on the forward portion of the stop pin (204; 508) between the stop pin (204; 508) and the pawl carrier and an aft O ring is disposed on the aft portion of the stop pin (204; 508) between the stop pin (204; 508) and the pawl carrier, such that the pawl carrier is not in contact with the stop pin.
Membrane material comprising a front layer, and a back layer, wherein said front layer mainly consists of polyisobutylene, and said back layer mainly consists of butyl based rubber and a content of polyisobutylene characterized in that the membrane material further comprises an embedded knitted reinforcement layer wherein the embedded reinforcement layer is knitted from a thread, the material of the thread selected among stainless steel or aluminum, such that such that when the membrane material is stretched the front layer and back layer move independently of the knitted reinforcement layer, while the embedded thread of the knitted reinforcement layer more or less cuts through the material of the front layer and the back layer, until having obtained the membrane material's new stretched configuration where the front layer and back layer will again lock the knitted reinforcement layer in its new position as the membrane material is urged into contact with a surface, such as a corrugated roof surface.
A vessel closure comprising a body, one or more apertures extending axially through the body, one or more inserts extending axially through one or more apertures, and a cast seal disposed within the body and surrounding each insert, characterized in that at least one or more inserts comprise silicone tubing to which an anchor (140, 150, 160) is adhesively attached, the cast seal is bonded to the anchor (140, 150, 160), and the anchor secures the one or more inserts and cast seal to the body. characterized in that at least one or more inserts comprise silicone tubing to which an anchor (140, 150, 160) is adhesively attached, the cast seal is bonded to the anchor (140, 150, 160), and the anchor secures the one or more inserts and cast seal to the body.
A method of auto-correcting temperature measurement using a fiber optic distributed sensor comprising the steps of: a. injecting primary light energy into a sensor fiber using a primary light source; b. collecting back-scattered light energy at the Raman anti-Stokes wavelength of the primary light energy and measuring its intensity; c. injecting secondary light energy into the fiber at the Raman anti-Stokes wavelength of the primary light energy using a secondary light source; d. collecting back-scattered light energy at the Raman Stokes wavelength of the secondary light energy and measuring its intensity; and e. calculating a temperature using the back-scattered anti-Stokes signal of the primary light energy and the back-scattered Stokes signal of the secondary light energy. a. injecting primary light energy into a sensor fiber using a primary light source; b. collecting back-scattered light energy at the Raman anti-Stokes wavelength of the primary light energy and measuring its intensity; c. injecting secondary light energy into the fiber at the Raman anti-Stokes wavelength of the primary light energy using a secondary light source; d. collecting back-scattered light energy at the Raman Stokes wavelength of the secondary light energy and measuring its intensity; and e. calculating a temperature using the back-scattered anti-Stokes signal of the primary light energy and the back-scattered Stokes signal of the secondary light energy.
A turbomachine extending longitudinally along an axis X and comprising a main stream in which an air flow circulates from upstream to downstream, the turbomachine comprising a compressor comprising at least one upstream compressor disk, at least one downstream compressor disk and an air bleed circuit of a bleed air flow (Fp) in the main stream, the downstream compressor disk comprising a central bore and a cylindrical shell comprising a plurality of inlet openings of the air bleed circuit, the turbomachine comprising a cylindrical body extending in the central bore of the downstream compressor disk and integrally connected to the upstream compressor disk, the air bleed circuit comprising a radial portion (CP 1), extending between the upstream compressor disk and the downstream compressor disk, wherein at least one air bleed tube and a longitudinal portion (CP 2) extending between the cylindrical body and the central bore are mounted, the turbomachine being characterised in that it comprises a plurality of fins extending in the longitudinal portion (CP 2) of the air bleed circuit, configured to be rotatably driven about the axis X, to rotatably drive the bleed air flow (F P).
The random copolymer GAS914 having the following structure: wherein n represents the average degree of polymerization, x represents the fraction of glycosylated monomer; and 1 - x represents the fraction of thioglycerol-capped monomer, for use in the prevention of an infection in a subject, wherein said infection is caused by bacteria of the gastrointestinal tract, and the infection occurs in blood, heart, cardiovascular system, liver, lung, respiratory tract, kidney, urinary tract, nervous central system, skin, subcutaneous tissues or surgical wounds.
A method for producing ingots from metal, in particular from steel, having cross-sectional areas of at least 0.10 m 2, of a preferably round but also square or rectangular shape, by casting metal or steel melt in a manner known per se, either directly from a casting ladle or via a tundish lined with a fireproof material, into a short water-cooled ingot mold open at the bottom and withdrawing the solidifying ingot from the same using a downwardly movable withdrawing tool, the casting process being continued with a set casting rate corresponding to the casting cross-section until the desired or maximum ingot length determined by the height of lift of the withdrawing tool is reached, and liquid metal continuing to be fed after the end of the regular casting process in such an amount that at least the diminution of the metal or steel melt occurring during solidification is made up for, characterized in that after completion of the regular casting process and completion of the ingot withdrawal, the casting process is continued from the heatable casting ladle or from the heatable tundish or from a distributing vessel with a casting rate reduced by at least the factor 10 and is reduced progressively or continuously until the end of the solidification to 10 % the rate at the start of the makeup casting.
A method for decoding a picture comprising: receiving an audio-visual bitstream; obtaining a step-wise temporal sublayer access (STSA) sample grouping; decoding the STSA sample grouping; and determining when to switch to a new temporal layer (219a-219n) based on the STSA sample grouping, characterized in that: the STSA sample grouping is sent in a sample group description box (SGDP), wherein the SGDP includes a next STSA upswitching distance parameter and a next STSA sample distance parameter. receiving an audio-visual bitstream; obtaining a step-wise temporal sublayer access (STSA) sample grouping; decoding the STSA sample grouping; and determining when to switch to a new temporal layer (219a-219n) based on the STSA sample grouping, characterized in that: the STSA sample grouping is sent in a sample group description box (SGDP), wherein the SGDP includes a next STSA upswitching distance parameter and a next STSA sample distance parameter. the STSA sample grouping is sent in a sample group description box (SGDP), wherein the SGDP includes a next STSA upswitching distance parameter and a next STSA sample distance parameter.
An anti-glare film, comprising a light-transmitting substrate; and a hard coating layer formed from a cured composition comprising a binder resin and particles dispersed in the binder resin, characterized in that the particles comprise a first inorganic particle aggregate having an average particle diameter of 1 to 2 μ m; a second inorganic particle aggregate having an average particle diameter of 3 to 5 μ m; and organic particles in the form of primary particles having an average particle diameter of 1 to 10 μ m.