mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a cooling plate from a material with very good thermal conductivity, such as copper, aluminium, or an alloy thereof, with pins (4, 4', 4", 4"') protruding approximately perpendicular over a base area on an effective surface swept by coolant, wherein the pins (4, 4', 4", 4"') are surrounded by a substantially radially extending, flat peripheral edge which is functionally necessary, and the cooling plate is produced in a tool by means of deformation of a workpiece, wherein the workpiece is inserted in the tool in the form of a flat material blank with uniform material thickness, which tool comprises at least one outer punch for producing the substantially flat peripheral edge and an inner punch cooperating with pin forming openings in the tool to produce the pins (4, 4', 4", 4"'), characterised in that, in a first stage, by means of the inner punch, the pins (4, 4', 4", 4"') are deformed in collaboration with the pin forming openings of the tool by pressing, in the workpiece held down by the outer punch, and that, in a second stage, by means of the outer punch, the peripheral edge is moulded with a material thickness which Is reduced vis-à-vis the uniform material thickness of the flat material blank inserted into the tool, by pressing, in the workpiece held down by the inner punch of the tool, with the formed pins (4, 4', 4", 4"'), with the result that a substantially flat, functionally necessary peripheral edge is obtained, which edge transitions, substantially flush, into the material depression region after the pins are formed.
An outboard motor configured to be attached to a watercraft in an upright orientation with a drive shaft extending in an up-and-down direction, comprising: an engine including a crankshaft, wherein the drive shaft is connected to the crankshaft, and the drive shaft extends downwardly from the engine with regard to the up-and-down direction; a propeller shaft connected to the drive shaft, the propeller shaft extending in a direction intersecting with the drive shaft; an oil cooler disposed on a first side of the crankshaft with regard to an extension direction of the drive shaft; an engine cooling water passage disposed inside the engine; an oil cooling water passage connected to the oil cooler, the oil cooling water passage diverging from the engine cooling water passage; and a water discharge passage connected to the oil cooler, the water discharge passage being disposed lower than the oil cooler with regard to the up-and-down direction, the water discharge passage being disposed first side of the crankshaft with regard to an extension direction of the drive shaft, wherein the oil cooling water passage includes a first cooling water passage located upstream of the oil cooler, characterized in that the first cooling water passage is located directly below the oil cooler with regard to the up-and-down direction, wherein the water discharge passage is connected to the oil cooler through the first cooling water passage. an engine including a crankshaft, wherein the drive shaft is connected to the crankshaft, and the drive shaft extends downwardly from the engine with regard to the up-and-down direction; a propeller shaft connected to the drive shaft, the propeller shaft extending in a direction intersecting with the drive shaft; an oil cooler disposed on a first side of the crankshaft with regard to an extension direction of the drive shaft; an engine cooling water passage disposed inside the engine; an oil cooling water passage connected to the oil cooler, the oil cooling water passage diverging from the engine cooling water passage; and a water discharge passage connected to the oil cooler, the water discharge passage being disposed lower than the oil cooler with regard to the up-and-down direction, the water discharge passage being disposed first side of the crankshaft with regard to an extension direction of the drive shaft, wherein the oil cooling water passage includes a first cooling water passage located upstream of the oil cooler, characterized in that the first cooling water passage is located directly below the oil cooler with regard to the up-and-down direction, wherein the water discharge passage is connected to the oil cooler through the first cooling water passage.
A chip collector comprising: a housing having an elongate annular body and a hollow interior; a body removably coupled to the housing, and the body including a coupled base and elongate member having a hollow interior extending from a first end to a second end so as to form a shell; the elongate member being configured to insert into the hollow interior of the housing; a collector element positioned within the hollow interior of the body, the collector element having a magnetic element positioned adjacent the second end and a flange near the first end; wherein the collector element is configured to move between a first position and a second position to demagnetize the body; and a rigid surface; and an axial biasing member positioned between the flange of the collector element and said rigid surface, wherein the axial biasing member is configured to bias the collector element into the first position; and characterized in that the chip collector is configured such that during movement of the collector element the body and the housing remain static. a housing having an elongate annular body and a hollow interior; a body removably coupled to the housing, and the body including a coupled base and elongate member having a hollow interior extending from a first end to a second end so as to form a shell; the elongate member being configured to insert into the hollow interior of the housing; a collector element positioned within the hollow interior of the body, the collector element having a magnetic element positioned adjacent the second end and a flange near the first end; wherein the collector element is configured to move between a first position and a second position to demagnetize the body; and a rigid surface; and an axial biasing member positioned between the flange of the collector element and said rigid surface, wherein the axial biasing member is configured to bias the collector element into the first position; and characterized in that the chip collector is configured such that during movement of the collector element the body and the housing remain static.
Device for heating and emulsifying beverages comprising a pump, a meeting zone of air and water, a device for producing steam and a first conduit for steam mixed with air communicating with a steam wand adapted to be immersed in a beverage to be heated and emulsified, characterized in that said device for producing steam comprises an instant steam generator and said meeting zone is positioned before said instant steam generator, said meeting zone being positioned before said pump, which is in turn positioned before said instant steam generator.
Method of fabricating a component, comprising the steps of: - providing precursor material in a working medium, - creating acoustic forces and positioning the precursor material in the working medium under the effect of the acoustic forces, so that a material distribution is formed, which has a shape of the component to be fabricated, and - subjecting at least one of the material distribution and the working medium to a fixation, so that the precursor material of the material distribution or the working medium surrounding the material distribution is bound, characterized in that - the step of creating the acoustic forces includes generating an acoustic interference image, which is a holographic image, and - the material distribution is formed by moving the precursor material towards energy extrema of the acoustic interference image. - providing precursor material in a working medium, - creating acoustic forces and positioning the precursor material in the working medium under the effect of the acoustic forces, so that a material distribution is formed, which has a shape of the component to be fabricated, and - subjecting at least one of the material distribution and the working medium to a fixation, so that the precursor material of the material distribution or the working medium surrounding the material distribution is bound, characterized in that - the step of creating the acoustic forces includes generating an acoustic interference image, which is a holographic image, and - the material distribution is formed by moving the precursor material towards energy extrema of the acoustic interference image.
A system comprising a probe device for ultrasonic inspection, said device comprising: a body having a first end, a second end, and a longitudinal axis extending therebetween; a probe element disposed proximate to the first end of the body, the probe element comprising a first set of transducers; a probe control component coupled with the first set of transducers, the probe control component having hardware to generate signals to selectively energize one or more of the first set of transducers; a fluid circulating system extending from the first end to the second end of the body, the fluid circulating system having a first port proximate to the probe element; and a rotary component coupled with the second end of the probe device, the rotary component having a first part, a second part that rotates relative to the first part and a coupling structure that couples the first part with the second part, the coupling structure being configured to permit fluid and signal communication between the first part and the second part; and characterized by a tether component coupled with the probe device at a first end, the tether component comprising a first tether link and a second tether link that adjoin one another at a rotating joint; and an actuator coupled with the tether component at a second end, the actuator comprising a spooling mechanism that houses the first tether link and the second tether link in a spooled configuration. a body having a first end, a second end, and a longitudinal axis extending therebetween; a probe element disposed proximate to the first end of the body, the probe element comprising a first set of transducers; a probe control component coupled with the first set of transducers, the probe control component having hardware to generate signals to selectively energize one or more of the first set of transducers; a fluid circulating system extending from the first end to the second end of the body, the fluid circulating system having a first port proximate to the probe element; and a rotary component coupled with the second end of the probe device, the rotary component having a first part, a second part that rotates relative to the first part and a coupling structure that couples the first part with the second part, the coupling structure being configured to permit fluid and signal communication between the first part and the second part; and characterized by a tether component coupled with the probe device at a first end, the tether component comprising a first tether link and a second tether link that adjoin one another at a rotating joint; and an actuator coupled with the tether component at a second end, the actuator comprising a spooling mechanism that houses the first tether link and the second tether link in a spooled configuration.
Heat treatment device (10, 20, 30), such as an oven, comprising a housing wherein are arranged: - a heating resistor made of graphite or silicon carbide, and - an inner ceramic part (11, 21, 31) which delimits a volume forming a chamber, the heating resistor being placed around the inner part (11, 21, 31), characterised in that the device (10, 20, 30) further comprises: - an intermediate element made of a refractory material selected from a refractory metallic material and a refractory ceramic material, the heating resistor, the inner part (11, 21, 31) and the intermediate element being coaxial and cylindrical of revolution, the intermediate element being interposed between the heating resistor and the inner part (11, 21, 31) and at a distance from the latter to form a void on either side of the intermediate element. - a heating resistor made of graphite or silicon carbide, and - an inner ceramic part (11, 21, 31) which delimits a volume forming a chamber, the heating resistor being placed around the inner part (11, 21, 31), characterised in that the device (10, 20, 30) further comprises: - an intermediate element made of a refractory material selected from a refractory metallic material and a refractory ceramic material, - an intermediate element made of a refractory material selected from a refractory metallic material and a refractory ceramic material, the heating resistor, the inner part (11, 21, 31) and the intermediate element being coaxial and cylindrical of revolution, the intermediate element being interposed between the heating resistor and the inner part (11, 21, 31) and at a distance from the latter to form a void on either side of the intermediate element.
A process for preparing a vinylidene chloride polymer composite comprising: i) providing a dispersion of a clay material and a free radical initiator in a liquid phase; ii) adding vinylidene chloride and at least one ethylenically unsaturated monomer copolymerisable therewith to said dispersion; and iii) polymerising vinylidene chloride and said at least one ethylenically unsaturated monomer to form vinylidene chloride polymer composite, wherein the amount of a clay material ranges from 10.0 to 60.0 g per liter ("g L -1 ") with respect to the liquid phase, preferably 25.0 to 40.0 g L -1 with respect to the liquid phase, wherein the copolymer has a % by weight (wt %) of vinylidene chloride/said ethylenically unsaturated monomer from 82/18 to 93/7, preferably from 85/15 to 90/10; and wherein the liquid phase is either formed of an organic solvent or is water. i) providing a dispersion of a clay material and a free radical initiator in a liquid phase; ii) adding vinylidene chloride and at least one ethylenically unsaturated monomer copolymerisable therewith to said dispersion; and iii) polymerising vinylidene chloride and said at least one ethylenically unsaturated monomer to form vinylidene chloride polymer composite, wherein the copolymer has a % by weight (wt %) of vinylidene chloride/said ethylenically unsaturated monomer from 82/18 to 93/7, preferably from 85/15 to 90/10; and wherein the liquid phase is either formed of an organic solvent or is water.
A method for adaptive resolution coding, comprising: resizing an image to be used as a reference picture; Increasing the bit depth of the resized reference image to a greater precision than before resizing only when the resizing is a downsampling, wherein an increase in bit depth is performed on a per picture basis; storing the resized, increased bit depth image, and performing motion compensation on a current image using the stored, resized image as a reference. resizing an image to be used as a reference picture; Increasing the bit depth of the resized reference image to a greater precision than before resizing only when the resizing is a downsampling, wherein an increase in bit depth is performed on a per picture basis; storing the resized, increased bit depth image, and performing motion compensation on a current image using the stored, resized image as a reference.
An organic light-emitting device comprising: an upper electrode; a lower electrode; and a light-emitting layer positioned between the upper electrode and the lower electrode, wherein the light-emitting layer contains a host, a first dopant and a second dopant, the luminescent color of the first dopant and the luminescent color of the second dopant are different, the first dopant is a blue-light-emitting dopant or a green-light-emitting dopant, the first dopant has a first functional group, characterized in that the peak position of the first dopant's concentration is on the upper electrode side in the center of the light-emitting layer in the thickness direction of the light-emitting layer wherein the first dopant's concentration monotonically decreases from the peak position of the first dopant's concentration toward the lower electrode side in the thickness direction of the light-emitting layer, wherein the first functional group is at least one species selected from the group consisting of fluoroalkyl, perfluoroalkyl, alkyl (of 10 carbon atoms or more), perfluoropolyether and siloxy groups, wherein the second dopant has a second functional group, and the second functional group makes the second dopant transfer toward the surface of the light-emitting layer on the lower electrode side, and wherein the second functional group is at least one species selected from the group consisting of -OH, -SH, -COOH, -SO 3 H, I, Br, Cl, F, SCN, CN, NH 2, NO 2 and bipyridyl groups. an upper electrode; a lower electrode; and a light-emitting layer positioned between the upper electrode and the lower electrode, wherein the light-emitting layer contains a host, a first dopant and a second dopant, the luminescent color of the first dopant and the luminescent color of the second dopant are different, the first dopant is a blue-light-emitting dopant or a green-light-emitting dopant, the first dopant has a first functional group, characterized in that the peak position of the first dopant's concentration is on the upper electrode side in the center of the light-emitting layer in the thickness direction of the light-emitting layer wherein the first dopant's concentration monotonically decreases from the peak position of the first dopant's concentration toward the lower electrode side in the thickness direction of the light-emitting layer, wherein the first functional group is at least one species selected from the group consisting of fluoroalkyl, perfluoroalkyl, alkyl (of 10 carbon atoms or more), perfluoropolyether and siloxy groups, wherein the second dopant has a second functional group, and the second functional group makes the second dopant transfer toward the surface of the light-emitting layer on the lower electrode side, and wherein the second functional group is at least one species selected from the group consisting of -OH, -SH, -COOH, -SO 3 H, I, Br, Cl, F, SCN, CN, NH 2, NO 2 and bipyridyl groups.
A method of non-therapeutic hair growth inhibition or non-therapeutic hair removal comprising administering FGF18 and/or Digenea simplex extract and/or an expression vector carrying an FGF18-encoding DNA to hair follicles which are in the anagen phase.
An apparatus comprising: a first memory die comprising a first memory core; a second memory die comprising a second memory core; and a periphery die having core interfaces (348, 350) coupled to bridge interfaces of the first memory die and the second memory die, wherein the periphery die comprises: periphery circuitry corresponding to the first memory core and corresponding to the second memory core; a first error correction coding, ECC, engine; a second ECC engine that is distinct from the first ECC engine; and control circuitry configured to perform a first ECC operation at the first ECC engine substantially concurrently with performing a second ECC operation at the second ECC engine, and wherein the periphery die is configured to: couple the bridge interfaces to a controller die that includes a memory controller configured to operate as a non-volatile memory controller of the first memory core and of the second memory core; and initiate a first memory operation at the first memory core and a second memory operation at the second memory core. a first memory die comprising a first memory core; a second memory die comprising a second memory core; and a periphery die having core interfaces (348, 350) coupled to bridge interfaces of the first memory die and the second memory die, wherein the periphery die comprises: periphery circuitry corresponding to the first memory core and corresponding to the second memory core; a first error correction coding, ECC, engine; a second ECC engine that is distinct from the first ECC engine; and control circuitry configured to perform a first ECC operation at the first ECC engine substantially concurrently with performing a second ECC operation at the second ECC engine, and periphery circuitry corresponding to the first memory core and corresponding to the second memory core; a first error correction coding, ECC, engine; a second ECC engine that is distinct from the first ECC engine; and control circuitry configured to perform a first ECC operation at the first ECC engine substantially concurrently with performing a second ECC operation at the second ECC engine, and wherein the periphery die is configured to: couple the bridge interfaces to a controller die that includes a memory controller configured to operate as a non-volatile memory controller of the first memory core and of the second memory core; and initiate a first memory operation at the first memory core and a second memory operation at the second memory core. couple the bridge interfaces to a controller die that includes a memory controller configured to operate as a non-volatile memory controller of the first memory core and of the second memory core; and initiate a first memory operation at the first memory core and a second memory operation at the second memory core.
A residual current protection circuit, for use in a remote power unit providing direct current power to a remote power receiver, wherein the residual current protection circuit comprises: - a power supply interface, configured to receive direct current power from a power supply, - a direct current interface, configured to connect the remote power unit to the remote power receiver via a positive voltage line and a negative voltage line, characterised in that it comprises further: - a first switch, configured to open a positive voltage rail between the power supply interface and the direct current interface, - a second switch, configured to open a negative voltage rail between the power supply interface and the direct current interface, - a first current sensor, configured to measure a first residual current between the first switch and the direct current interface, while the first switch is closed and the second switch is open, - a second current sensor, configured to measure a second residual current between the second switch and the direct current interface, while the second switch is closed and the first switch is open, and - a controller, configured to detect a residual current event, if the first residual current and/or the second residual current are above a residual current threshold. - a power supply interface, configured to receive direct current power from a power supply, - a direct current interface, configured to connect the remote power unit to the remote power receiver via a positive voltage line and a negative voltage line, - a first switch, configured to open a positive voltage rail between the power supply interface and the direct current interface, - a second switch, configured to open a negative voltage rail between the power supply interface and the direct current interface, - a first current sensor, configured to measure a first residual current between the first switch and the direct current interface, while the first switch is closed and the second switch is open, - a second current sensor, configured to measure a second residual current between the second switch and the direct current interface, while the second switch is closed and the first switch is open, and - a controller, configured to detect a residual current event, if the first residual current and/or the second residual current are above a residual current threshold.