mhurhangee/ep-ind-claims huggingface dataset:
A supporter for use in a backlight unit comprising: a frame; a supporting member disposed on the frame; wherein the frame comprises a frame hole and a frame cavity extending from the frame hole, the width of the frame cavity is greater than the width of the frame hole, the supporting member comprises a supporting member body disposed on a top surface of the frame and a portion extending from a bottom surface of the supporting member body and being disposed in the frame cavity and the frame hole characterized in that the supporting member body comprises a supporting member hole, said portion comprises a supporting member cavity connected to the supporting member hole, wherein the width of the supporting member hole contacting with the supporting member cavity is smaller than width of the supporting member cavity, and a cap damper is disposed on the supporting member, a portion of the cap damper penetrates the supporting member hole and the supporting member cavity. a frame; a supporting member disposed on the frame; the frame comprises a frame hole and a frame cavity extending from the frame hole, the width of the frame cavity is greater than the width of the frame hole, the supporting member comprises a supporting member body disposed on a top surface of the frame and a portion extending from a bottom surface of the supporting member body and being disposed in the frame cavity and the frame hole the supporting member body comprises a supporting member hole, said portion comprises a supporting member cavity connected to the supporting member hole, wherein the width of the supporting member hole contacting with the supporting member cavity is smaller than width of the supporting member cavity, and a cap damper is disposed on the supporting member, a portion of the cap damper penetrates the supporting member hole and the supporting member cavity.
A vertical decoupler assembly for a hydraulic mount including a first fluid chamber and a second fluid chamber and comprising: a diaphragm dividing the first fluid chamber from the second fluid chamber and being elastically deformable for dampening small vibrations across the mount, and said diaphragm being generally tubular and radially deformable in response to a pressure differential between the first fluid chamber and the second fluid chamber; and an inner cage with a first wall disposed inside said diaphragm and extending along substantially the entire length thereof, characterized in that, the inner cage is spaced therefrom by a predetermined distance for limiting the inward radial deflection of said diaphragm, whereby the vertical decoupler assembly further includes a lower insert having an inverted cup shape with a second wall extending between a closed upper end and a second rim defining an open end, wherein said second rim of said lower insert extends radially outward to an outer end, and said diaphragm sealingly engages said outer end of said lower insert. a diaphragm dividing the first fluid chamber from the second fluid chamber and being elastically deformable for dampening small vibrations across the mount, and said diaphragm being generally tubular and radially deformable in response to a pressure differential between the first fluid chamber and the second fluid chamber; and an inner cage with a first wall disposed inside said diaphragm and extending along substantially the entire length thereof, characterized in that, the inner cage is spaced therefrom by a predetermined distance for limiting the inward radial deflection of said diaphragm, whereby the vertical decoupler assembly further includes a lower insert having an inverted cup shape with a second wall extending between a closed upper end and a second rim defining an open end, wherein said second rim of said lower insert extends radially outward to an outer end, and said diaphragm sealingly engages said outer end of said lower insert.
An additive manufacturing machine defining a vertical direction and a horizontal plane, the additive manufacturing machine comprising: a build platform extending within the horizontal plane; a build unit comprising a powder dispenser for discharging a layer of an additive powder and an energy source for selectively directing energy toward the layer of the additive powder to fuse portions of the layer of the additive powder; a gantry positioned above the build platform and movably supporting the build unit, wherein the gantry comprises horizontally extending support beams; and a powder supply system positioned below the gantry and extending between a powder supply source and the powder dispenser, wherein the gantry defines a build area and facilitates movement of the build unit within the build area to repeatedly deposit layers of the additive powder and fuse portions of each of the layers of the additive powder to build one or more components, and the powder supply system comprises a conveyor that transports the additive powder to the powder dispenser. a build platform extending within the horizontal plane; a build unit comprising a powder dispenser for discharging a layer of an additive powder and an energy source for selectively directing energy toward the layer of the additive powder to fuse portions of the layer of the additive powder; a gantry positioned above the build platform and movably supporting the build unit, wherein the gantry comprises horizontally extending support beams; and a powder supply system positioned below the gantry and extending between a powder supply source and the powder dispenser, wherein the gantry defines a build area and facilitates movement of the build unit within the build area to repeatedly deposit layers of the additive powder and fuse portions of each of the layers of the additive powder to build one or more components, and the powder supply system comprises a conveyor that transports the additive powder to the powder dispenser.
A method, performed by a first agent controlling computing resources in a first edge cloud, for enabling a machine learning operation, the method comprising: - detecting that additional computing resources outside the first edge cloud are needed for the machine learning operation, - obtaining said additional computing resources from a second edge cloud, and - performing the machine learning operation by using computing resources in the first edge cloud and the additional computing resources obtained from the second edge cloud, wherein said obtaining comprises sending a request for the additional computing resources to a second agent controlling computing resources in the second edge cloud, and wherein said detecting comprises finding that performance of a learning model used in the machine learning operation is degraded. - detecting that additional computing resources outside the first edge cloud are needed for the machine learning operation, - obtaining said additional computing resources from a second edge cloud, and - performing the machine learning operation by using computing resources in the first edge cloud and the additional computing resources obtained from the second edge cloud, wherein said obtaining comprises sending a request for the additional computing resources to a second agent controlling computing resources in the second edge cloud, and wherein said detecting comprises finding that performance of a learning model used in the machine learning operation is degraded. wherein said obtaining comprises sending a request for the additional computing resources to a second agent controlling computing resources in the second edge cloud, and wherein said detecting comprises finding that performance of a learning model used in the machine learning operation is degraded.
Process for the synthesis of the optically pure compound of formula: by enantioselective enzymatic hydrolysis of the racemic, or not optically pure, nitrile of formula: using the nitrilase of Rhodococcus rhodochrous NCIMB 11216 over-expressed in another organism having a competent biological system, in a mixture of an organic solvent and an aqueous solution having a pH from 5 to 10, at a concentration from 1 to 500 g of nitrile of formula per litre of solvent mixture, at an E/S ratio of from 1/1 to 1/100, at a temperature from 25°C to 40°C.
Water dosing system for irons and other pieces of equipment with a steam chamber fed by a needle water dosing valve, comprising a zero steam position, wherein the needle is supported by the seat of the dosing valve, and a maximum steam position, comprising: a cleaning valve; and a mobile actuator passed through by the needle; so that the needle comprises a cleaning position, above the maximum steam position, in which it pushes the actuator and this pushes the cleaning valve by disengaging it from the seat of the cleaning valve and leaving the cleaning water passage free, characterized in that the actuator and the needle have relative freedom of movement, and the needle comprises a stop arranged between the actuator and the seat of the dosing valve, so that the stop is distanced and below the actuator in the maximum steam position and raises the actuator in the cleaning position. a cleaning valve; and a mobile actuator passed through by the needle; so that the needle comprises a cleaning position, above the maximum steam position, in which it pushes the actuator and this pushes the cleaning valve by disengaging it from the seat of the cleaning valve and leaving the cleaning water passage free, characterized in that the actuator and the needle have relative freedom of movement, and the needle comprises a stop arranged between the actuator and the seat of the dosing valve, so that the stop is distanced and below the actuator in the maximum steam position and raises the actuator in the cleaning position.
A method of generating a brown fat cell, the method comprising: isolating a stem cell from an obtained brown fat tissue; and culturing the stem cell in a differentiation medium not comprising an animal-based product, wherein the differentiation medium comprises insulin, dexamethasone, isobutylmethylxanthine, indomethacin, triiodothyronine, rosiglitazone, fibronectin type III domain-containing protein 5 (FNDC5), and 0.5 to 20% human platelet lysate: thereby generating the brown fat cell, wherein the stem cell is positive for one or more of the following cell surface markers: CD63, CD90, HLA ABC, CD105, CD73, CD166, CD9, CD44, and wherein the stem cell is negative for one or more of the following cell surface markers: CD34, CD19, CD86, HLA DR, Lin, CD106, CD80, CD117. isolating a stem cell from an obtained brown fat tissue; and culturing the stem cell in a differentiation medium not comprising an animal-based product, wherein the differentiation medium comprises insulin, dexamethasone, isobutylmethylxanthine, indomethacin, triiodothyronine, rosiglitazone, fibronectin type III domain-containing protein 5 (FNDC5), and 0.5 to 20% human platelet lysate: thereby generating the brown fat cell, wherein the stem cell is positive for one or more of the following cell surface markers: CD63, CD90, HLA ABC, CD105, CD73, CD166, CD9, CD44, and wherein the stem cell is negative for one or more of the following cell surface markers: CD34, CD19, CD86, HLA DR, Lin, CD106, CD80, CD117. thereby generating the brown fat cell, wherein the stem cell is positive for one or more of the following cell surface markers: CD63, CD90, HLA ABC, CD105, CD73, CD166, CD9, CD44, and wherein the stem cell is negative for one or more of the following cell surface markers: CD34, CD19, CD86, HLA DR, Lin, CD106, CD80, CD117.
Electrical terminal (2, 3) for a female connector, wherein such terminal (2, 3) comprises: a terminal body; at least one contact blade (210. 310) surrounded by and attached to the terminal body, having a first sheet plane, wherein the contact blade (210, 310) is adapted to contact an electrical pin with a contact force, when the terminal (2, 3) is mated with the electrical pin; and at least one separate support blade (220, 320), having a second sheet plane, wherein the support blade (220, 320) engages with a corresponding contact blade (210, 310) to increase the contact force, and wherein the first and second sheet planes (318, 328) are orientated substantially perpendicular to each other, characterized in that the terminal body comprises a longitudinal mating direction, wherein the contact blade (210, 310) extends towards the mating direction, and the support blade (220, 320) extends towards a direction opposite to the mating direction, wherein the terminal body has at least two side walls (336, 338), the contact blade (210, 310) being centered between said two side walls (336, 338), and wherein the support blade (220, 320) is arranged symmetrical with respect to the corresponding contact blade (210, 310). a terminal body; at least one contact blade (210. 310) surrounded by and attached to the terminal body, having a first sheet plane, wherein the contact blade (210, 310) is adapted to contact an electrical pin with a contact force, when the terminal (2, 3) is mated with the electrical pin; and at least one separate support blade (220, 320), having a second sheet plane, wherein the support blade (220, 320) engages with a corresponding contact blade (210, 310) to increase the contact force, and wherein the first and second sheet planes (318, 328) are orientated substantially perpendicular to each other, characterized in that the terminal body comprises a longitudinal mating direction, wherein the contact blade (210, 310) extends towards the mating direction, and the support blade (220, 320) extends towards a direction opposite to the mating direction, wherein the terminal body has at least two side walls (336, 338), the contact blade (210, 310) being centered between said two side walls (336, 338), and wherein the support blade (220, 320) is arranged symmetrical with respect to the corresponding contact blade (210, 310).
A method for determining a selected machining quality of components in a manufacturing process, in particular during machining, having at least the following method steps: - acquisition of time series of process-relevant variables by sensors and/or from the data stream in the machine control, wherein the process-relevant variables are motor currents, rotational speeds and/or cutting forces, - extraction of time segments, in which a tool is in engagement at the component within a machining sequence, from the time series of one of the process-relevant variables, - splitting of the extracted time segments into sections, wherein the number of sections is dependent upon the respective machining sequence, - determination of the following characteristics: o the length of the respective section, o the coefficients of linear regression extending in the respective section, and o the variance of the residuals about the linear regression extending in the respective section, - multivariate linking of the determined characteristics to form a characteristic pattern correlating with the selected machining quality. - acquisition of time series of process-relevant variables by sensors and/or from the data stream in the machine control, wherein the process-relevant variables are motor currents, rotational speeds and/or cutting forces, - extraction of time segments, in which a tool is in engagement at the component within a machining sequence, from the time series of one of the process-relevant variables, - splitting of the extracted time segments into sections, wherein the number of sections is dependent upon the respective machining sequence, - determination of the following characteristics: o the length of the respective section, o the coefficients of linear regression extending in the respective section, and o the variance of the residuals about the linear regression extending in the respective section, o the length of the respective section, o the coefficients of linear regression extending in the respective section, and o the variance of the residuals about the linear regression extending in the respective section, - multivariate linking of the determined characteristics to form a characteristic pattern correlating with the selected machining quality.
A method of forming an electrocrushing drilling fluid comprising: adding a non-polar oil to an electrocrushing drilling base fluid to form a first intermediate electrocrushing drilling fluid, wherein the electrocrushing drilling base fluid comprises an alkylene carbonate and a polar oil; adding water to the first intermediate electrocrushing drilling fluid to form a second intermediate electrocrushing drilling fluid; and adding glycerin to the second intermediate electrocrushing drilling fluid to form an electrocrushing drilling fluid. adding a non-polar oil to an electrocrushing drilling base fluid to form a first intermediate electrocrushing drilling fluid, wherein the electrocrushing drilling base fluid comprises an alkylene carbonate and a polar oil; adding water to the first intermediate electrocrushing drilling fluid to form a second intermediate electrocrushing drilling fluid; and adding glycerin to the second intermediate electrocrushing drilling fluid to form an electrocrushing drilling fluid.
A thin layer capply, comprising: a cord spinning layer which is formed in a thin tape form by spinning a plurality of cord strands; and a rubber coating layer which is coated on the cord spinning layer to cover an outer portion of the cord spinning layer, wherein a fineness of warp yarn of the cord strands forming the cord spinning layer is 667 tex to 1556 tex (6000 D to 14000 D), and the number of warp yarns is 20 to 25. a cord spinning layer which is formed in a thin tape form by spinning a plurality of cord strands; and a rubber coating layer which is coated on the cord spinning layer to cover an outer portion of the cord spinning layer, wherein a fineness of warp yarn of the cord strands forming the cord spinning layer is 667 tex to 1556 tex (6000 D to 14000 D), and the number of warp yarns is 20 to 25.
Transmission of a motor vehicle, having a transmission input shaft, to which a drive assembly of the motor vehicle can be coupled, having a transmission output shaft, to which an axle drive of the motor vehicle can be coupled, having a plurality of planetary sets (PG1, PG2) which are arranged coaxially behind one another, and having a plurality of positively locking shifting elements (SE1, SE2), a first element of a first planetary set being coupled permanently to a first element of a second planetary set via an intermediate shaft which can be connected between the transmission input shaft and the transmission output shaft, an electric machine being coupled permanently to said intermediate shaft, a second element of the second planetary set being coupled permanently to the transmission output shaft, characterized in that, in a first shifting position of a first positively locking shifting element, the transmission input shaft is coupled directly to the transmission output shaft, whereas, in a second shifting position of the first positively locking shifting element, the transmission input shaft is coupled to a second element of the first planetary set, and in that, in a first shifting position of a second positively locking shifting element, a third element of the second planetary set is attached in a manner which is fixed to the housing, whereas, in a second shifting position of the second positively locking shifting element, the third element of the second planetary set is coupled to the second element or to the first element of the second planetary set, and accordingly the second planetary set is bridged in the block rotation.
Device for transporting sheets, comprising - a storage location for accommodating a sheet stack of a plurality of sheets, - a laying location for depositing a sheet from the sheet stack, - a first suction bar with a drive for lifting a sheet from the sheet stack by means of suction cups, and - a second suction bar with a drive for transporting a sheet in the transport direction to the laying location, - suction cup (5, 8) for fixing the sheet to the suction bars (3, 6), and - an intermediate table between storage location and laying location, wherein - the first suction bar is suitable for lifting the sheet from the sheet stack substantially in a predetermined region at the edge facing in the transport direction, characterized in that - the intermediate table with a drive is adapted to move beneath the lifted sheet at least in the region, - the second suction bar is adapted to receive the sheet substantially in this region, to transport it to the laying location and to deposit it there. - a storage location for accommodating a sheet stack of a plurality of sheets, - a laying location for depositing a sheet from the sheet stack, - a first suction bar with a drive for lifting a sheet from the sheet stack by means of suction cups, and - a second suction bar with a drive for transporting a sheet in the transport direction to the laying location, - suction cup (5, 8) for fixing the sheet to the suction bars (3, 6), and - an intermediate table between storage location and laying location, wherein - the first suction bar is suitable for lifting the sheet from the sheet stack substantially in a predetermined region at the edge facing in the transport direction, characterized in that - the intermediate table with a drive is adapted to move beneath the lifted sheet at least in the region, - the second suction bar is adapted to receive the sheet substantially in this region, to transport it to the laying location and to deposit it there.
Rotary indexing device for the manufacture of packaging tubes comprising an indexing turntable mounted to rotate about an axis, mandrels and respective supports which are made of one piece with said turntable and are arranged radially in relation to said axis; radial actuating means (10, 11) to move the mandrels in a direction perpendicular to said axis and linear guide means to ensure that the mandrels move in a direction perpendicular to said axis; characterized in that the mandrels and their respective supports, the radial actuating means (10, 11) and the linear guide means are located along a straight line parallel to said axis.
A method for arranging support structures for an additive manufacturing process on a dental restoration, comprising the steps of: - detecting a flash line in a digital model of the dental restoration; and - adding digital support structures to the digital model for supporting the dental restoration in the additive manufacturing process along the flash line. - detecting a flash line in a digital model of the dental restoration; and - adding digital support structures to the digital model for supporting the dental restoration in the additive manufacturing process along the flash line.