mhurhangee/ep-ind-claims huggingface dataset:
A wave power generation system comprising a power generation component and a hydraulic component with: a cylinder communicating with the power generation component, wherein the cylinder has an accommodation space and a vent, the vent is located on the middle section of the accommodation space and connects to the accommodation space, and the accommodation space connects to the power generation component; and a piston disposed in the accommodation space, the piston being configured for driving the power generation component to convert the mechanical energy into the electrical energy; and an exhaust valve assembly connecting to the vent comprising a check valve and an off valve connected in series, wherein the check valve is configured for controlling a fluid and air to flow along a direction out of the accommodation space towards an oil storage tank. a cylinder communicating with the power generation component, wherein the cylinder has an accommodation space and a vent, the vent is located on the middle section of the accommodation space and connects to the accommodation space, and the accommodation space connects to the power generation component; and a piston disposed in the accommodation space, the piston being configured for driving the power generation component to convert the mechanical energy into the electrical energy; and an exhaust valve assembly connecting to the vent comprising a check valve and an off valve connected in series, wherein the check valve is configured for controlling a fluid and air to flow along a direction out of the accommodation space towards an oil storage tank.
A peptide consisting of from 14 to 16 amino acid residues, wherein said peptide is an α-MSH or γ-MSH analogue having the amino acid sequence: X - (aa 1) n - Y - (aa 2) m - Z wherein X is a branched amino acid probe consisting of 3 Lys residues having the formula Ac-(Ac-Lys-Lys)Lys 1 -; wherein (aa 1) n is an amino acid sequence consisting of 4 or 5 contiguous amino acid residues selected from the group consisting of Ser-Tyr-Ser-Met-Glu (SEQ ID NO:17), Ser-Tyr-Ser-Nle-Glu (SEQ ID NO:18), Ser-Ser-Ile-Ile-Ser (SEQ ID NO:19), Tyr-Val-Met-Gly (SEQ ID NO:20) and Tyr-Val-Nle-Gly (SEQ ID NO:21); and wherein Y is an amino acid sequence consisting of 4 contiguous amino acid residues selected from the group consisting of His-Phe-Arg-Trp (SEQ ID NO:16); His-(D-Phe)-Arg-Trp; His-Phe-(D-Arg)-Trp; His-Phe-Arg-(D-Trp); His-(D-Phe)-Arg-(D-Trp); His-Nal-Arg-Trp and His-(D-Nal)-Arg-Trp; and wherein (aa 2) m is selected from the group consisting of Gly and Asp; and wherein Z is an amino acid sequence consisting of 2 or 3 contiguous amino acid residues selected from the group consisting of Lys-Pro-Val; Lys-Pro-(D-Val); Arg-Phe-Gly; Arg-(D-Phe)-Gly; Arg-Phe and Arg-(D-Phe).
An alignment system for establishing and/or maintaining alignment of an automated robotic transfer mechanism in an automated detection system relative to a holding structure for holding one or more specimen containers, comprising: (a) an automated detection system for processing specimen containers, said automated detection system having a housing enclosing an interior chamber; (b) a holding structure within said interior chamber, said holding structure having one or more holding wells for holding individual specimen containers, wherein said holding structure further comprises one or more fiducials; (c) an agitation assembly configured to agitate the holding structure to enhance microorganism growth within said specimen containers; (d) an automated robotic transfer mechanism for the automated transfer of said specimen container within said interior chamber, said automated robotic transfer mechanism comprising a robotic head and further comprising a gripping mechanism and a laser alignment device, said laser alignment device operable to detect said one or more fiducials and thereby determine a home position of said automated robotic transfer mechanism relative to said holding structure; and (e) a controller for determining the x and y positions of said one or more holding wells relative to the home position of said automated robotic transfer mechanism. (a) an automated detection system for processing specimen containers, said automated detection system having a housing enclosing an interior chamber; (b) a holding structure within said interior chamber, said holding structure having one or more holding wells for holding individual specimen containers, wherein said holding structure further comprises one or more fiducials; (c) an agitation assembly configured to agitate the holding structure to enhance microorganism growth within said specimen containers; (d) an automated robotic transfer mechanism for the automated transfer of said specimen container within said interior chamber, said automated robotic transfer mechanism comprising a robotic head and further comprising a gripping mechanism and a laser alignment device, said laser alignment device operable to detect said one or more fiducials and thereby determine a home position of said automated robotic transfer mechanism relative to said holding structure; and (e) a controller for determining the x and y positions of said one or more holding wells relative to the home position of said automated robotic transfer mechanism.
A method for displaying a representation of a driving pattern of a vehicle, said method comprising: - determining said driving pattern in the form of a condition involving excess fuel consumption of said vehicle; - displaying a representation of said excess fuel consumption on a display unit in said vehicle; - providing first input data related to an actual speed of said vehicle travelling along a route (1 a, 1 b, 1 c); and - providing second input data related to a reference speed for said route (1 a, 1 b, 1 c); characterised in that said method further comprises: - calculating, based on said first and second input data, a measure of said excess fuel consumption as a result of said actual speed exceeding said reference speed; and - presenting, on said display unit, said representation of the excess fuel consumption. - determining said driving pattern in the form of a condition involving excess fuel consumption of said vehicle; - displaying a representation of said excess fuel consumption on a display unit in said vehicle; - providing first input data related to an actual speed of said vehicle travelling along a route (1 a, 1 b, 1 c); and - providing second input data related to a reference speed for said route (1 a, 1 b, 1 c); characterised in that said method further comprises: - calculating, based on said first and second input data, a measure of said excess fuel consumption as a result of said actual speed exceeding said reference speed; and - presenting, on said display unit, said representation of the excess fuel consumption. - providing second input data related to a reference speed for said route (1 a, 1 b, 1 c); characterised in that said method further comprises: - calculating, based on said first and second input data, a measure of said excess fuel consumption as a result of said actual speed exceeding said reference speed; and - presenting, on said display unit, said representation of the excess fuel consumption.
A nanoparticle comprising a nanosheet coated partially or totally with at least one layer of inorganic material, wherein the nanoparticle comprises at least one semiconductor selected from group IV, group III-V, group II-VI, group I-III-VI, group II-V, group III-VI; and wherein the nanoparticle has a core/shell structure wherein the nanosheet and the at least one layer do not have the same composition, characterized in that said nanosheet has a lateral dimension which is at least 3 times larger than its thickness.
A device containing a product, which device comprises a front layer and a utility layer being welded over a part of their outer periphery to form an outer protective surface of the device, a contact layer also being welded between the front layer and utility layer, a valve layer, a top layer and a bottom layer are arranged between the contact layer and utility layer, the top layer and bottom layer being welded together by a weld to form a closed storage chamber in the device, each of the valve layer and top layer being provided with a plurality of incisions or indentations (9a, 9b), the incisions or indentations of the valve layer being connected to the incisions or indentations of the top layer by a weld to form an opening mechanism in the device and the bottom layer being connected to contact layer and/or to the utility layer, where the movement of the valve layer relative to the top layer will provide an opening of the incisions or indentations (9a, 9b) in the valve layer and top layer.
A process to modify the fiber surface of a polymer nonwoven substrate to obtain a high density conformal coating, comprising: 1) increasing the roughness of the fiber surface and increasing the hydroxyl, carbonyl and any other oxygen containing compounds through exposure to UV at a wavelength between 150-300nm in air, wherein said exposure to UV generates ozone; 2) soaking the substrate with a solution containing both a monomer and an initiator; 3) sandwiching the substrate between two glasses or inserting the substrate into any confined geometry, 4) exposing the substrate to UV or heat for grafting; and 5) washing and drying the substrate. 1) increasing the roughness of the fiber surface and increasing the hydroxyl, carbonyl and any other oxygen containing compounds through exposure to UV at a wavelength between 150-300nm in air, wherein said exposure to UV generates ozone; 2) soaking the substrate with a solution containing both a monomer and an initiator; 3) sandwiching the substrate between two glasses or inserting the substrate into any confined geometry, 4) exposing the substrate to UV or heat for grafting; and 5) washing and drying the substrate.
A tire comprising a tread part, the tread part having two or more circumferential grooves extending continuously in a tire circumferential direction, a pair of shoulder land parts partitioned by the circumferential grooves and grounding ends, a center land part located between the pair of shoulder land parts, and a width direction groove (5, 6, 7, 8), wherein a land ratio R on a grounding surface of the tread part is 0.50 to 0.80, the land ratio R being a ratio of a total area of a grounding surface to a total surface area of a tread surface under the assumption that all the grooves are filled when a standardized load is applied to a tire in a standardized state and the tire is grounded on a flat surface at a camber angle of 0 degree, wherein the tread part has at least one rubber layer consisting of a rubber composition comprising a rubber component, characterized in that an average value tan δA of a loss tangent tan δ of the rubber composition at -15°C to 20°C, obtained by measuring a tan δ at each temperature from -15°C to 20°C in 5°C increments under a condition of a frequency of 10 Hz, an initial strain of 0.1%, and a dynamic strain amplitude of ± 0.25%, and calculating an average value of eight numerical values obtained, is 0.40 to 0.60. the tread part having two or more circumferential grooves extending continuously in a tire circumferential direction, a pair of shoulder land parts partitioned by the circumferential grooves and grounding ends, a center land part located between the pair of shoulder land parts, and a width direction groove (5, 6, 7, 8), wherein a land ratio R on a grounding surface of the tread part is 0.50 to 0.80, the land ratio R being a ratio of a total area of a grounding surface to a total surface area of a tread surface under the assumption that all the grooves are filled when a standardized load is applied to a tire in a standardized state and the tire is grounded on a flat surface at a camber angle of 0 degree, wherein the tread part has at least one rubber layer consisting of a rubber composition comprising a rubber component, characterized in that an average value tan δA of a loss tangent tan δ of the rubber composition at -15°C to 20°C, obtained by measuring a tan δ at each temperature from -15°C to 20°C in 5°C increments under a condition of a frequency of 10 Hz, an initial strain of 0.1%, and a dynamic strain amplitude of ± 0.25%, and calculating an average value of eight numerical values obtained, is 0.40 to 0.60.
An image verification method, comprising: displaying a first image portion and a second image portion, the first image portion being rotatable with respect to the second image portion, the first image portion and the second image portion being obtained by cropping an original image and rotating the cropped first image portion with respect to the second image portion; wherein, each of the first image portion and the second image portion is arranged integrally; the first image portion is located at a center of the second image portion, and the second image portion completely surrounds the first image portion; the displaying the first image portion and the second image portion comprises: forming a gap between the first image portion and the second image portion; wherein the width of the gap formed between the first image portion and the second image portion is based on a desired difficulty level of image verification; wherein the wider the gap is, the larger the difficulty of computer recognition is; receiving an operation for rotating the first image portion; rotating the first image portion based on the operation; and determining whether the angle of the first image portion relative to the second image portion matches with the original image, in response to determining that the operation is ended. displaying a first image portion and a second image portion, the first image portion being rotatable with respect to the second image portion, the first image portion and the second image portion being obtained by cropping an original image and rotating the cropped first image portion with respect to the second image portion; wherein, each of the first image portion and the second image portion is arranged integrally; the first image portion is located at a center of the second image portion, and the second image portion completely surrounds the first image portion; the displaying the first image portion and the second image portion comprises: forming a gap between the first image portion and the second image portion; wherein the width of the gap formed between the first image portion and the second image portion is based on a desired difficulty level of image verification; wherein the wider the gap is, the larger the difficulty of computer recognition is; receiving an operation for rotating the first image portion; rotating the first image portion based on the operation; and determining whether the angle of the first image portion relative to the second image portion matches with the original image, in response to determining that the operation is ended.
A method for diagnosing, predicting, prognosticating and/or monitoring renal dysfunction in a subject, wherein the method comprises measuring the quantity of latent transforming growth factor beta binding protein 2 (LTBP2) in a sample from the subject, and wherein the sample is blood, serum, plasma or urine and wherein the quantity of LTBP2 as measured in said subject is converted to a glomerular filtration rate value.
A method for reducing mercury in the flue gases resulting from combustion of coal in a coal burning system, comprising applying sorbent components into the coal burning system, wherein the components comprise a halogen compound and at least one aluminosilicate mineral; combusting the coal to produce ash and combustion gases; measuring a mercury level in the combustion gases; and adjusting the amount of halogen compound applied based on the value of the mercury level, wherein the halogen compound is a bromine compound or an iodine compound, wherein applying the sorbent components into the coal burning system comprises adding the sorbent components pre-combustion onto the coal before combustion. applying sorbent components into the coal burning system, wherein the components comprise a halogen compound and at least one aluminosilicate mineral; combusting the coal to produce ash and combustion gases; measuring a mercury level in the combustion gases; and adjusting the amount of halogen compound applied based on the value of the mercury level, wherein the halogen compound is a bromine compound or an iodine compound, wherein applying the sorbent components into the coal burning system comprises adding the sorbent components pre-combustion onto the coal before combustion.
A cutting element, comprising: a cutting element substrate; and a polycrystalline compact bonded to the cutting element substrate, the polycrystalline compact comprising: a polycrystalline material comprising a plurality of inter bonded grains (30,32) of hard material; and characterised by comprising a metallic material disposed in interstitial spaces between the inter bonded grains of hard material, at least a portion of the metallic material comprising a metal alloy having a melting temperature of about seven hundred fifty degrees Celsius (750°C) or less, the metal alloy comprising two or more elements, a first element of the two or more elements comprising at least one of cobalt, iron, and nickel, a second element of the two or more elements comprising at least one of dysprosium, yttrium, terbium, gadolinium, germanium, samarium, neodymium, and praseodymium. a cutting element substrate; and a polycrystalline compact bonded to the cutting element substrate, the polycrystalline compact comprising: a polycrystalline material comprising a plurality of inter bonded grains (30,32) of hard material; and characterised by comprising a metallic material disposed in interstitial spaces between the inter bonded grains of hard material, at least a portion of the metallic material comprising a metal alloy having a melting temperature of about seven hundred fifty degrees Celsius (750°C) or less, the metal alloy comprising two or more elements, a first element of the two or more elements comprising at least one of cobalt, iron, and nickel, a second element of the two or more elements comprising at least one of dysprosium, yttrium, terbium, gadolinium, germanium, samarium, neodymium, and praseodymium. a polycrystalline material comprising a plurality of inter bonded grains (30,32) of hard material; and characterised by comprising a metallic material disposed in interstitial spaces between the inter bonded grains of hard material, at least a portion of the metallic material comprising a metal alloy having a melting temperature of about seven hundred fifty degrees Celsius (750°C) or less, the metal alloy comprising two or more elements, a first element of the two or more elements comprising at least one of cobalt, iron, and nickel, a second element of the two or more elements comprising at least one of dysprosium, yttrium, terbium, gadolinium, germanium, samarium, neodymium, and praseodymium.
Method of preventing, inhibiting or mitigating bloom in a filled chocolate product, said filled chocolate product comprising a chocolate shell comprising a chocolate composition and a center filling comprising fat, said center filling being partly or fully enclosed by said chocolate shell to obtain a center-filled chocolate shell, said method comprising a) an inline heating step comprising at least one of heating the chocolate shell at a heating temperature of at least 25 °C, heating the center-filled chocolate shell at a heating temperature of at least 25 °C and heating the filled chocolate product at a heating temperature of at least 25 °C and said method comprising at least one of b) a shell cooling step comprising cooling said chocolate shell at a cooling temperature below 20°C, c) a filling cooling step comprising cooling said center-filled chocolate shell at a cooling temperature below 20°C, d) a final cooling step comprising cooling said filled chocolate product at a cooling temperature below 20 °C, said inline heating step being comprised in at least one of steps b) - d) or being arranged between steps b) and c) or between steps c) and d). a) an inline heating step comprising at least one of heating the chocolate shell at a heating temperature of at least 25 °C, heating the center-filled chocolate shell at a heating temperature of at least 25 °C and heating the filled chocolate product at a heating temperature of at least 25 °C and said method comprising at least one of b) a shell cooling step comprising cooling said chocolate shell at a cooling temperature below 20°C, c) a filling cooling step comprising cooling said center-filled chocolate shell at a cooling temperature below 20°C, d) a final cooling step comprising cooling said filled chocolate product at a cooling temperature below 20 °C,
A two-wheeled balancing electric vehicle, comprising a middle support assembly in the middle, a left support assembly and a right support assembly respectively arranged at two sides of the middle support assembly, wherein one end of the left support assembly and one end of the right support assembly, opposite to each other, are respectively provided with a left wheel and a right wheel that are subject to the control of their respective motor; the middle support assembly comprises a connecting body; on the connecting body, a first connecting section is arranged that is connected to the left support assembly through rotation of bearings, and a second connecting section is arranged that is connected to the right support assembly through rotation of bearings (8, 9), wherein the connecting body partially overlaps with the left support assembly and the right support assembly respectively, characterized by a plurality of elastic devices arranged in the overlap region in the vertical direction, wherein at least one elastic device is disposed at the front end position between the connecting body and the right support assembly, at least one elastic device is disposed at the rear end position between the connecting body and the right support assembly, at least one elastic device is disposed at the front end position between the connecting body and the left support assembly, and at least one elastic device is disposed at the rear end position between the connecting body and the left support assembly, at least two elastic devices between the connecting body and the right support assembly are an integrated reed, with at least two curved bumps facing upwards arranged on the reed; and at least two elastic devices between the connecting body and the left support assembly are an integrated reed, with at least two curved bumps facing upwards arranged on the reed.