mhurhangee/ep-ind-claims huggingface dataset:
A component of a vehicular trim panel (10, 100, 200, 300), comprising: a substrate layer (14, 104, 204, 304) having a first portion, a second portion, and a pre-weakened segment (16, 106, 206, 306) between the first portion and the second portion; and a bridge (18, 108a-108d, 208, 308) covering at least a portion of the pre-weakened segment (16, 106, 206, 306) to frangibly connect the first portion and second portion; wherein the bridge (18, 108a-108d, 208, 308) comprises a polyamide fusible web material that masks the pre-weakened segment (16, 106, 206, 306) from visibility, and wherein the bridge (18, 108a-108d, 208, 308) is fusibly attached to the first portion and the second portion. a substrate layer (14, 104, 204, 304) having a first portion, a second portion, and a pre-weakened segment (16, 106, 206, 306) between the first portion and the second portion; and a bridge (18, 108a-108d, 208, 308) covering at least a portion of the pre-weakened segment (16, 106, 206, 306) to frangibly connect the first portion and second portion; wherein the bridge (18, 108a-108d, 208, 308) comprises a polyamide fusible web material that masks the pre-weakened segment (16, 106, 206, 306) from visibility, and wherein the bridge (18, 108a-108d, 208, 308) is fusibly attached to the first portion and the second portion.
A method of cloud gaming, comprising; generating a video frame when executing a video game at a server, wherein the video frame is stored in a frame buffer; determining a maximum pixel clock for a chip-set including the frame buffer; determining a frame rate setting based on the maximum pixel clock and an image size of a target display of a client; determining a speed setting value for the chip-set based on the determined frame rate setting; scanning-out the video frame to an encoder at the speed setting value. generating a video frame when executing a video game at a server, wherein the video frame is stored in a frame buffer; determining a maximum pixel clock for a chip-set including the frame buffer; determining a frame rate setting based on the maximum pixel clock and an image size of a target display of a client; determining a speed setting value for the chip-set based on the determined frame rate setting; scanning-out the video frame to an encoder at the speed setting value.
A Stevia extract comprising rebaudioside B at a concentration that is in the range of 10% to 60% by weight of the total amount of sweet steviol glycoside compounds in the Stevia extract, wherein the following provisos (a) and (b) separately recite compositions that are not encompassed: (a) compositions that comprise on a glycosides wt%: Rebaudioside A/ wt% Rebaudioside B/ wt% Rebaudioside D/ wt% Stevios-ide/ wt% Rebaudioside C/ wt% Rebaudioside F/ wt% Dulcoside A/ wt% Steviolbioside/ wt% Rubusoside/ wt% Other wt% 49 19 0.36 31.64 74 11 2.6 12.4 73 17 7.7 2.3 22.3 13.7 2.4 19.2 4.9 0.9 0.6 5.7 2.3 28 63.8 18.8 6.4 1.7 0.8 0.1 8.4 67.4 15.7 7.2 1.3 0.2 0.9 0.1 7.2 and (b) solutions that comprise, on a glycoside basis, 25 to 90 wt% rebaudioside A, 10 to 50 wt% rebaudioside D and up to 20 wt% rebaudioside B or 25 to 60 wt% rebaudioside A, 10 to 50 wt% rebaudioside D and up to 20 wt% rebaudioside B. (a) compositions that comprise on a glycosides wt%: Rebaudioside A/ wt% Rebaudioside B/ wt% Rebaudioside D/ wt% Stevios-ide/ wt% Rebaudioside C/ wt% Rebaudioside F/ wt% Dulcoside A/ wt% Steviolbioside/ wt% Rubusoside/ wt% Other wt% 49 19 0.36 31.64 74 11 2.6 12.4 73 17 7.7 2.3 22.3 13.7 2.4 19.2 4.9 0.9 0.6 5.7 2.3 28 63.8 18.8 6.4 1.7 0.8 0.1 8.4 67.4 15.7 7.2 1.3 0.2 0.9 0.1 7.2 and (b) solutions that comprise, on a glycoside basis, 25 to 90 wt% rebaudioside A, 10 to 50 wt% rebaudioside D and up to 20 wt% rebaudioside B or 25 to 60 wt% rebaudioside A, 10 to 50 wt% rebaudioside D and up to 20 wt% rebaudioside B.
An apparatus (200, 500) for producing short nanofibres through the introduction of a body-forming fluid into a dispersion medium, the apparatus including: a fluid housing (205A, 206, 502) configured to house a dispersion medium; at least two separated flow paths (225A, 225B, 225C, 225D) along which the dispersion medium flows in a laminar flow, each separated flow path comprising a separate flow path (225A, 225B, 225C, 225D), at least two of the separated flow paths (225A, 225B, 225C, 225D) converging at a flow-merge location (244, 245, 518); a fluid flow arrangement which, in use, causes the dispersion medium to flow along each flow path (225A, 225B, 225C, 225D) to the flow-merge location; at least one fluid introduction arrangement (249, 251, 520) located at or proximate the flow-merge location configured, in use, to feed the body-forming fluid into the dispersion medium; and a flow constriction arrangement (230A, 227, 229A, 240, 514) proximate to or following the flow-merge location (244, 245, 518), which in use, constricts and accelerates the dispersion medium flow proximate to and/or following the flow-merge location (244, 245, 518) thereby forming the short nanofibres. a fluid housing (205A, 206, 502) configured to house a dispersion medium; at least two separated flow paths (225A, 225B, 225C, 225D) along which the dispersion medium flows in a laminar flow, each separated flow path comprising a separate flow path (225A, 225B, 225C, 225D), at least two of the separated flow paths (225A, 225B, 225C, 225D) converging at a flow-merge location (244, 245, 518); a fluid flow arrangement which, in use, causes the dispersion medium to flow along each flow path (225A, 225B, 225C, 225D) to the flow-merge location; at least one fluid introduction arrangement (249, 251, 520) located at or proximate the flow-merge location configured, in use, to feed the body-forming fluid into the dispersion medium; and a flow constriction arrangement (230A, 227, 229A, 240, 514) proximate to or following the flow-merge location (244, 245, 518), which in use, constricts and accelerates the dispersion medium flow proximate to and/or following the flow-merge location (244, 245, 518) thereby forming the short nanofibres.
Damper assembly for insertion into a hinge cup of a concealed hinge, having a support member and a cylinder-piston unit, which comprises a cylinder, which is axially displaceable relative to the support member and can be reset by means of spring elements of the damper assembly, and a piston rod guided in the cylinder and protruding from the same, wherein the support member has an integrated mounting bar with a piston rod mount, in which the piston rod is fixed by means of a ring groove extending circumferentially around the piston rod head, wherein the piston rod head protrudes from the mounting bar, wherein the support member on its side opposite to the mounting bar has two elastically deformable fixing elements, which are spaced apart from one another, and wherein the support member comprises a supporting edge in its apex region, which supporting edge is moulded onto a supporting disc of the support member axially symmetrical to the vertical centre longitudinal plane of the damper assembly, characterized in that - the supporting edge comprises a bottom bar connected to the supporting disc, - the mounting bar outwardly protrudes beyond the bottom bar, wherein the mounting bar protrudes beyond the contour of the supporting plate in a top view of the unloaded damper assembly, - the mounting bar is oriented at least approximately parallel to the bottom bar, and - the mounting bar is designed to be elastically deformable, such that the mounting bar is deformable when the damper assembly is inserted into a hinge cup. - the supporting edge comprises a bottom bar connected to the supporting disc, - the mounting bar outwardly protrudes beyond the bottom bar, wherein the mounting bar protrudes beyond the contour of the supporting plate in a top view of the unloaded damper assembly, - the mounting bar is oriented at least approximately parallel to the bottom bar, and - the mounting bar is designed to be elastically deformable, such that the mounting bar is deformable when the damper assembly is inserted into a hinge cup.
Device for a vehicle, which is configured to be reversibly coupled to a data bus of a vehicle in order to transmit and receive data via the data bus, wherein the device is configured to apply a current to the data bus; wherein the device is configured to measure a voltage drop at the data bus as a result of the applied current; wherein the device is configured to determine whether or not it is connected to the data bus based on the measured voltage drop; characterized by the device comprising a switching unit, two switches (125A, 125B), a voltage measurement unit, and a current source; wherein the switching unit is connected to the two switches (125A, 125B) and configured to carry out the switching operation of the two switches (125A, 125B); wherein the switching unit is configured to selectively connect the current source to the data bus; wherein the measurement unit is connected to the switches; wherein the current source is configured to apply the current to the data bus via a first connection element; wherein the voltage measurement unit is configured to determine a voltage drop at the data bus as a result of the applied current.
A tire comprising a tread which comprises a plurality of tread pattern elements delimited by cut-outs (3, 4); the tread pattern elements respectively comprising at least one lateral face (13, 14, 15, 16) and a contact surface intended to come into contact with the ground during rolling; the tread pattern elements respectively comprising a first rubber composition at least partially covered on at least one of the lateral face (13, 14, 15, 16) with a layer of a second rubber composition which is different from the first rubber composition, the tire, being characterized in that the second rubber composition is based on: - an elastomer matrix comprising 100 phr of a first diene elastomer having a glass transition temperature of less than -40°C and no second diene elastomer; - a reinforcing filler comprising between 100 and 140 phr of a reinforcing inorganic filler; and - more than 45 phr of a plasticizing agent predominately comprising at least one hydrocarbon resin having a glass transition temperature as measured by Differential Scanning Calorimetry according to Standard ASTM D3418-08 of more than 40°C. the tread pattern elements respectively comprising at least one lateral face (13, 14, 15, 16) and a contact surface intended to come into contact with the ground during rolling; the tread pattern elements respectively comprising a first rubber composition at least partially covered on at least one of the lateral face (13, 14, 15, 16) with a layer of a second rubber composition which is different from the first rubber composition, the tire, being characterized in that the second rubber composition is based on: - an elastomer matrix comprising 100 phr of a first diene elastomer having a glass transition temperature of less than -40°C and no second diene elastomer; - a reinforcing filler comprising between 100 and 140 phr of a reinforcing inorganic filler; and - more than 45 phr of a plasticizing agent predominately comprising at least one hydrocarbon resin having a glass transition temperature as measured by Differential Scanning Calorimetry according to Standard ASTM D3418-08 of more than 40°C. - an elastomer matrix comprising 100 phr of a first diene elastomer having a glass transition temperature of less than -40°C and no second diene elastomer; - a reinforcing filler comprising between 100 and 140 phr of a reinforcing inorganic filler; and - more than 45 phr of a plasticizing agent predominately comprising at least one hydrocarbon resin having a glass transition temperature as measured by Differential Scanning Calorimetry according to Standard ASTM D3418-08 of more than 40°C.
Internal combustion engine power unit having an internal combustion engine which comprises a cylinder housing and a cylinder head and having a cooling system which comprises - a coolant pump (36, 38), - a coolant radiator, - a heater core, - a radiator bypass bypassing the coolant radiator, - coolant channels (22, 24) in the cylinder housing and in the cylinder head, and - a distribution device having an actuator for distributing a coolant, wherein the distribution device is designed such that - in a first position, it sends a coolant stream coming from the cylinder head exclusively through the heater core and then through the radiator bypass; - in a second position, it sends a portion of the coolant stream coming from the cylinder head through the radiator bypass while bypassing the heater core; - in a third position, in addition to the second position, it allows a coolant stream to flow through the cylinder housing, and - in a fourth position differing from the third position, it sends all of the coolant arriving at the distribution device through the coolant radiator. - a coolant pump (36, 38), - a coolant radiator, - a heater core, - a radiator bypass bypassing the coolant radiator, - coolant channels (22, 24) in the cylinder housing and in the cylinder head, and - a distribution device having an actuator for distributing a coolant, wherein the distribution device is designed such that - in a first position, it sends a coolant stream coming from the cylinder head exclusively through the heater core and then through the radiator bypass; - in a second position, it sends a portion of the coolant stream coming from the cylinder head through the radiator bypass while bypassing the heater core; - in a third position, in addition to the second position, it allows a coolant stream to flow through the cylinder housing, and - in a fourth position differing from the third position, it sends all of the coolant arriving at the distribution device through the coolant radiator.
A device for coating a cylinder comprising: a coating head capable of being inserted into the cylinder, a plurality of coating guns which are provided on the coating head and are configured to discharge a coating material in a direction intersecting a longitudinal direction of the coating head, coating material supply devices (20A, 20B) which supply coating material to the coating head, and a rotating cover which, when the coating material is discharged from one of a first coating gun and a second coating gun among the plurality of coating guns, is configured to cover the other of the first coating gun and the second coating gun, wherein the plurality of coating guns are connected to coating material supply devices (20A, 20B) of different systems, respectively, wherein the first coating gun and the second coating gun are provided at different positions from each other in the longitudinal direction of the coating head, characterized in that: the rotating cover includes a first opening and a second opening formed at different positions from each other in the longitudinal direction of the coating head, the first opening being provided at a position, in the longitudinal direction of the coating head, at which the first opening is capable of facing the first coating gun, and the second opening being provided at a position, in the longitudinal direction of the coating head, at which the second opening is capable of facing the second coating gun. a coating head capable of being inserted into the cylinder, a plurality of coating guns which are provided on the coating head and are configured to discharge a coating material in a direction intersecting a longitudinal direction of the coating head, coating material supply devices (20A, 20B) which supply coating material to the coating head, and a rotating cover which, when the coating material is discharged from one of a first coating gun and a second coating gun among the plurality of coating guns, is configured to cover the other of the first coating gun and the second coating gun, wherein the plurality of coating guns are connected to coating material supply devices (20A, 20B) of different systems, respectively, wherein the first coating gun and the second coating gun are provided at different positions from each other in the longitudinal direction of the coating head, characterized in that: the rotating cover includes a first opening and a second opening formed at different positions from each other in the longitudinal direction of the coating head, the first opening being provided at a position, in the longitudinal direction of the coating head, at which the first opening is capable of facing the first coating gun, and the second opening being provided at a position, in the longitudinal direction of the coating head, at which the second opening is capable of facing the second coating gun.
A display device for a shovel, the shovel including an attachment, the attachment including a boom, an arm, and an end attachment, characterised by the display device comprising: an operation analysis start input part for starting an operation analysis of the shovel and storing a history of the operation analysis; and an operation analysis check input part for displaying a result of the operation analysis and an operation history of the shovel on a same screen. an operation analysis start input part for starting an operation analysis of the shovel and storing a history of the operation analysis; and an operation analysis check input part for displaying a result of the operation analysis and an operation history of the shovel on a same screen.
A rubber composition comprising: a rubber component containing 10% by mass or more of at least one kind of rubber selected from diene rubber synthesized by emulsion polymerization and natural rubber and 90% by mass or less of another kind of diene rubber; a silica having a n-hexadecyltrimethylammonium bromide (CTAB) adsorption specific surface area of less than 140 m 2 /g measured according to a method described in ASTM D3765-92; at least one silane coupling agent selected from a polysulfide compound and a thioester compound; and a vulcanization accelerator, the rubber composition after vulcanization having an average aggregated aggregate area (nm 2) of the silica of 3, 300 or less, measurement method of average aggregated aggregate area: an upper surface of a specimen of the rubber composition after vulcanization is cut in a direction making an angle of 38° with respect to the upper surface of the specimen with a focused ion beam; then a smooth surface of the specimen formed by cutting is imaged with a scanning electron microscope at an acceleration voltage of 5 kV in a direction perpendicular to the smooth surface; the resulting image is converted to a binarized image of a rubber portion and a silica portion as a filler of the specimen by the Otsu's method; an aggregated aggregate area of the silica portion is obtained based on the resulting binarized image; and the average aggregated aggregate area of the silica portion is calculated in terms of number average (arithmetic average) per unit area (3 μm × 3 μm) from a total surface area of the silica portion and the number of aggregated aggregates, provided that in the calculation, a particle that is in contact with an edge of the image is not counted, and a particle of 20 pixels or less is assumed to be noise and is not counted. an upper surface of a specimen of the rubber composition after vulcanization is cut in a direction making an angle of 38° with respect to the upper surface of the specimen with a focused ion beam; then a smooth surface of the specimen formed by cutting is imaged with a scanning electron microscope at an acceleration voltage of 5 kV in a direction perpendicular to the smooth surface; the resulting image is converted to a binarized image of a rubber portion and a silica portion as a filler of the specimen by the Otsu's method; an aggregated aggregate area of the silica portion is obtained based on the resulting binarized image; and the average aggregated aggregate area of the silica portion is calculated in terms of number average (arithmetic average) per unit area (3 μm × 3 μm) from a total surface area of the silica portion and the number of aggregated aggregates, provided that in the calculation, a particle that is in contact with an edge of the image is not counted, and a particle of 20 pixels or less is assumed to be noise and is not counted.
A growth device (K, K', K", K"') for crop, comprising a panel-shaped structure, a substrate included in the panel-shaped structure for receiving crop, and at least one water reservoir included in the panel-shaped structure, wherein the water reservoir extends substantially above a bottom side of the substrate in a vertical position of use of the growth device, the growth device (K, K', K", K"') further comprising connecting means to bring the water reservoir in communication with the substrate for moistening the substrate, characterised in that the connecting means comprise a bottom reservoir extending substantially under the substrate, and wherein the connecting means are further provided with a water flow regulator, such as for instance valve means, to regulate water flow from the main water reservoir to the bottom reservoir substantially extending beneath the substrate, wherein an underside of the substrate facing the bottom of the device (K, K', K", K"') is in direct contact with water present during use in the bottom reservoir, such that this water can be sucked up into the substrate, and/or wherein the substrate is provided with water suction means, for instance one or more water suction cords or capillary means, which reach from the substrate into the bottom reservoir to draw water therefrom.
Intracorneal lens, comprising a circular main body having a convex front surface and a concave rear surface, in which the convex front surface has a single uniform radius of curvature (Rcv), wherein the concave rear surface has an inner optical region having a radius of curvature (Rcci), and an outer optical region having a radius of curvature (Rcco) which is different from the radius of curvature (Rcci) of the inner region, and wherein the radius of curvature (Rcci) of the inner optical region is 0.1 mm to 2 mm, preferably 0.2 to 1.5 mm, particularly preferably 0.5 to 1 mm, greater than the average radius of the cornea, which, depending on the individual, is in a range of from 7.4 mm to 8.1 mm.