mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for producing and discharging spherically shaped products from a pasty material like sausage meat, dough or the like, comprising a feed device for moving the pasty material along a conveyor path, a portioning device connected downstream of the feed device for shaping the pasty material into balls (24, 24'), and a transport device for discharging the balls produced by means of the portioning device, characterised in that the portioning device has an outlet opening having a plurality of outlets (34, 34', 34") for the balls to be shaped (24, 24'), arranged in mutually juxtaposed relationship so that the delivered products touch each other or are arranged in so closely mutually juxtaposed relationship that the spacing between the mutually juxtaposed balls produced is less than the diameter of the balls produced, and the portioning device and the transport device are so arranged relative to each other that regions of the transport device in the transport direction provide an abutment function for the balls (24, 24') which are to be oriented in mutually juxtaposed relationship in a row substantially transversely relative to the transport direction.
Filling device for a tabletting machine comprising a covering device and a cone, wherein a gap is formed between the covering device and the cone, said gap being designed to guide tabletting material from a filling tube of the filling device into a region of die openings of a die table, wherein the covering device is rotatably formed and the filling device comprises a drive unit for generating the rotational movement of the covering device and the filling device has no impeller and/or agitator blade.
Plug-in contact for an electrical charging plug-in connector, having: a contact element (3, 3', 3") which has a contact region (5, 5', 5"), with at least one spring-mounted contact means (9a - 9n, 9a' - 9n', 9a" - 9n"), and a connection region (7, 7', 7") for connection of an electrical conductor; a cooling element (11, 11', 11") which is arranged at least regionally around the contact region (5, 5', 5"); and a heat-conducting element (15, 15', 15") which is arranged between the cooling element (11, 11', 11") and the contact element (3, 3', 3"), characterized in that the heat-conducting element (15, 15', 15") is of elastic form and thermally and mechanically contacts the cooling element (11, 11', 11") and the contact element (3, 3', 3"). a contact element (3, 3', 3") which has a contact region (5, 5', 5"), with at least one spring-mounted contact means (9a - 9n, 9a' - 9n', 9a" - 9n"), and a connection region (7, 7', 7") for connection of an electrical conductor; a cooling element (11, 11', 11") which is arranged at least regionally around the contact region (5, 5', 5"); and a heat-conducting element (15, 15', 15") which is arranged between the cooling element (11, 11', 11") and the contact element (3, 3', 3"), characterized in that the heat-conducting element (15, 15', 15") is of elastic form and thermally and mechanically contacts the cooling element (11, 11', 11") and the contact element (3, 3', 3").
An array of aqueous objects configured to pass an electrical current between a first aqueous object and a second aqueous object, wherein: (a) the array comprises a scaffold, two or more of the first aqueous objects and at least one of the second aqueous objects wherein each of the first and second aqueous objects comprises an aqueous droplet or a hydrogel; (b) said first aqueous objects of (a) each comprise amphipathic molecules on at least part of the surface of the first aqueous objects; (c) said second aqueous objects of (a) each comprise amphipathic molecules on at least part of the surface of the second aqueous objects; (d) said first aqueous objects of (b) each form an interface with the second aqueous object of (c), wherein the second aqueous object is: (i) a single common second aqueous object, or (ii) a different individual second aqueous object; (e) said interface of (d) comprises a bilayer of said amphipathic molecules of (b) and (c), and a light-sensitive protein is dispersed in the bilayer; and (f) the scaffold isolates said first aqueous objects of (b) from each other. (a) the array comprises a scaffold, two or more of the first aqueous objects and at least one of the second aqueous objects wherein each of the first and second aqueous objects comprises an aqueous droplet or a hydrogel; (b) said first aqueous objects of (a) each comprise amphipathic molecules on at least part of the surface of the first aqueous objects; (c) said second aqueous objects of (a) each comprise amphipathic molecules on at least part of the surface of the second aqueous objects; (d) said first aqueous objects of (b) each form an interface with the second aqueous object of (c), wherein the second aqueous object is: (i) a single common second aqueous object, or (ii) a different individual second aqueous object; (i) a single common second aqueous object, or (ii) a different individual second aqueous object; (e) said interface of (d) comprises a bilayer of said amphipathic molecules of (b) and (c), and a light-sensitive protein is dispersed in the bilayer; and (f) the scaffold isolates said first aqueous objects of (b) from each other.
An electroluminescent display device comprising: a substrate (110, 210) on which first and second pixel regions (P1, P2) are defined; a passivation layer (150, 250) over the substrate (110, 210); a first electrode (162, 262) in each of the first and second pixel regions (P1, P2) on the passivation layer (150, 250); a bank layer (170, 270) exposing the first electrode (162, 262); a light emitting layer (180, 280) on the first electrode (162, 262) exposed by the bank layer (170, 270); and a second electrode (192, 292) on the light emitting layer (180, 280), wherein the bank layer (170, 270) includes first and second openings (172a, 272a; 174a, 274a) exposing the first electrodes (162, 262) corresponding to the first and second pixel regions (P1, P2), respectively, wherein the depth of the second opening (174a, 274a) is larger than the depth of the first opening (172a, 272a), characterized in that the thickness of the light emitting layer (180, 280) at a central portion of the first pixel region is larger than the thickness of the light emitting layer (180, 280) at a central portion of the second pixel region, and wherein the light emitting layer (180, 280) in the first pixel region emits light with a longer wavelength than the light emitting layer (180, 280) in the second pixel region. a substrate (110, 210) on which first and second pixel regions (P1, P2) are defined; a passivation layer (150, 250) over the substrate (110, 210); a first electrode (162, 262) in each of the first and second pixel regions (P1, P2) on the passivation layer (150, 250); a bank layer (170, 270) exposing the first electrode (162, 262); a light emitting layer (180, 280) on the first electrode (162, 262) exposed by the bank layer (170, 270); and a second electrode (192, 292) on the light emitting layer (180, 280), wherein the bank layer (170, 270) includes first and second openings (172a, 272a; 174a, 274a) exposing the first electrodes (162, 262) corresponding to the first and second pixel regions (P1, P2), respectively, wherein the depth of the second opening (174a, 274a) is larger than the depth of the first opening (172a, 272a), characterized in that the thickness of the light emitting layer (180, 280) at a central portion of the first pixel region is larger than the thickness of the light emitting layer (180, 280) at a central portion of the second pixel region, and wherein the light emitting layer (180, 280) in the first pixel region emits light with a longer wavelength than the light emitting layer (180, 280) in the second pixel region.
A balloon catheter comprising a balloon having an exterior surface, an intermediate layer overlying the exterior surface, and a coating layer overlying the intermediate layer, wherein: the intermediate layer comprises a poly(p-xylylene); and the coating layer comprises a hydrophobic therapeutic agent and at least one additive, wherein the at least one additive comprises a polysorbate and a sugar alcohol. the intermediate layer comprises a poly(p-xylylene); and the coating layer comprises a hydrophobic therapeutic agent and at least one additive, wherein the at least one additive comprises a polysorbate and a sugar alcohol.
An electric cooker having a composite heat source comprising: - an external case having an air inlet and an air outlet; - a cooking plate mounted on an upper surface of the external case to be a top plate thereof; - at least one heat generating unit mounted between the external case and a lower surface of the cooking plate; the heat generating unit including a work coil for inductively heating a cooking vessel disposed on the cooking plate, an electric heater arranged about the work coil, and a reflector having a groove for accommodating the electric heater and forming an outer cover of the electric heater and - a blowing unit for cooling; characterized in that - said heat generating unit is arranged coaxially with the air inlet; - said blowing unit is coaxially arranged between the air inlet and the heat generating unit for cooling the heat generated by the heat generating unit and discharging heated air to the outside via the air outlet; - said reflector has an opening that functions as a passage for discharging the heated air passing through the work coil and the electric heater. - an external case having an air inlet and an air outlet; - a cooking plate mounted on an upper surface of the external case to be a top plate thereof; - at least one heat generating unit mounted between the external case and a lower surface of the cooking plate; the heat generating unit including a work coil for inductively heating a cooking vessel disposed on the cooking plate, an electric heater arranged about the work coil, and a reflector having a groove for accommodating the electric heater and forming an outer cover of the electric heater and - a blowing unit for cooling; - said heat generating unit is arranged coaxially with the air inlet; - said blowing unit is coaxially arranged between the air inlet and the heat generating unit for cooling the heat generated by the heat generating unit and discharging heated air to the outside via the air outlet; - said reflector has an opening that functions as a passage for discharging the heated air passing through the work coil and the electric heater.
Device for making aerating holes in a stabilizing covering made of plastic film, for a palletized load, said load developing substantially along a vertical direction ("Z"), a transversal direction ("Y") and a longitudinal direction ("X"), said directions being perpendicular to each other, said device comprising a support structure provided with a fixed basement, and with a vertical structure (7, 9) extending substantially along the vertical direction ("Z"), a perforating head arranged on said vertical structure (7, 9) and provided with perforating means for making aerating holes in said covering, characterised in that said perforating means extend along a line and substantially along the transversal direction ("Y") and in that said vertical structure (7, 9) comprises vertical actuating means adapted to move said perforating head along said vertical direction ("Z") along the vertical structure (7, 9).
A water turbine in which a rotor provided in a water conduit pipe is rotated by a water flow in the water conduit pipe and the rotation of the rotor is utilized as a motive power, comprising a water turbine unit in which an end plate having a bearing and a water passing part is fixed to each of both ends of a unit pipe constituting a part of the water conduit pipe, and both end portions of a rotating shaft integrated with the rotor provided in the unit pipe are rotatably supported by respective both bearings, wherein the water turbine unit is possible to be connected to a part of the water conduit pipe in series, characterized in that pluralities of the unit pipes constituting a part of the water conduit pipe are connected in series by interposing the end plate having the bearing and the water passing part between respective them, in that pluralities of the rotating shafts respectively integrated with the rotor are connected in series by providing a connecting means (10, 30) between respective them, in that each of the rotating shafts is rotatably supported by respective pair of bearings arranged to neighbor each other such that at least one of the rotors is arranged between the respective pair of bearings, and in that the water turbine unit is formed such that a continuous connection of its unit pipe and another continuous connection of its rotating shaft provided with the rotor are respectively possible.
A method of installing a pipeline and an in-line tee on a sea bed by deploying pipeline from a vessel having pipelaying equipment (10, 12, 14, 16), the method comprising: - installing an accessory support structure at a bedding location on the sea bed; - on the vessel, attaching the in-line tee at a position along the pipeline and between a first end of the pipeline and a second end of the pipeline such that, when the pipeline is deployed from the vessel, the position of the in-line tee along the pipeline corresponds with the bedding location at which the accessory support structure is installed; - deploying the pipeline and the attached in-line tee into water through the pipelaying equipment (10, 12, 14, 16); and - guiding the attached in-line.tee into engagement with the accessory support structure installed at the bedding location on the seabed such that the pipeline is deployed substantially horizontally through the accessory support structure and the in-line tee is supported along the pipeline between the first end of the pipeline P and the second end of the pipeline by the accessory support structure installed at the bedding location. - installing an accessory support structure at a bedding location on the sea bed; - on the vessel, attaching the in-line tee at a position along the pipeline and between a first end of the pipeline and a second end of the pipeline such that, when the pipeline is deployed from the vessel, the position of the in-line tee along the pipeline corresponds with the bedding location at which the accessory support structure is installed; - deploying the pipeline and the attached in-line tee into water through the pipelaying equipment (10, 12, 14, 16); and - guiding the attached in-line.tee into engagement with the accessory support structure installed at the bedding location on the seabed such that the pipeline is deployed substantially horizontally through the accessory support structure and the in-line tee is supported along the pipeline between the first end of the pipeline P and the second end of the pipeline by the accessory support structure installed at the bedding location.
A cooler for cooling a semiconductor module, the cooler being, securable to a base, wherein the cooler comprises a cooler body that comprises a refrigerant flow path surrounded by a first wall part having a first through-hole, a second wall part that is arranged facing the first wall part and that comprises a connection region for connection to the base at a position opposing the first through-hole, and a side wall part for connecting the periphery of the first wall part and the periphery of the second wall part; characterized by a lid for closing off the first through-hole wherein the lid is installed so as not to protrude into the refrigerant flow path.
An exoskeleton comprising: a first link configured to pivot in a transverse plane about a first vertical axis; a second link coupled to the first link; an arm support assembly coupled to the second link and configured to pivot about a horizontal axis, wherein: the arm support assembly includes a spring configured to generate an assistive torque that counteracts gravity; and the arm support assembly is configured to provide the assistive torque to an arm of a wearer to support the arm of the wearer; and a cuff coupled to the arm support assembly and configured to provide support for the arm of the wearer, characterized in that: the second link is configured to pivot in a transverse plane about a second vertical axis; the arm support assembly further includes a cam profile and a cam follower; and the arm support assembly is configured such that contact between the spring, cam follower and cam profile determines an amount of the assistive force provided by the arm support assembly. the second link is configured to pivot in a transverse plane about a second vertical axis; the arm support assembly further includes a cam profile and a cam follower; and the arm support assembly is configured such that contact between the spring, cam follower and cam profile determines an amount of the assistive force provided by the arm support assembly.
A medical Pt alloy wire, comprising a Pt-W alloy containing 10% by mass or more and 15% by mass or less of W, a balance of Pt, and inevitable impurities, wherein the inevitable impurities are Zr, Ca, Al, Si, Ir, Pd, and Rh, and a total content of the inevitable impurities is 0.5% by mass or less, a Vickers hardness as measured by a method according to JIS Z 2244 "Vickers hardness test - Test method" is 400 Hv or more and 600 Hv or less, and a tensile strength as measured by a tensile test according to JIS Z 2241 "Metallic materials - Tensile testing - Method of test at room temperature" is 2500 MPa or more and 3500 MPa or less. wherein the inevitable impurities are Zr, Ca, Al, Si, Ir, Pd, and Rh, and a total content of the inevitable impurities is 0.5% by mass or less, a Vickers hardness as measured by a method according to JIS Z 2244 "Vickers hardness test - Test method" is 400 Hv or more and 600 Hv or less, and a tensile strength as measured by a tensile test according to JIS Z 2241 "Metallic materials - Tensile testing - Method of test at room temperature" is 2500 MPa or more and 3500 MPa or less.
A battery apparatus comprising: at least one battery pack comprising a plurality of battery cells (111, 112); a battery management system BMS configured to manage the plurality of battery cells (111, 112); a board to which the BMS is mounted and on which at least one insulation layer and a conductive layer are laminated; a plurality of wires extending from the plurality of battery cells (111, 112) onto the board; a plurality of through-holes which are formed in the board and to which the plurality of wires are respectively inserted; a non-conductive area formed on at least one area around the through-hole, wherein the non-conductive area comprises a non-conductive layer formed on an inside surface of the through-hole; a soldering part formed on the through-hole to which the wire is inserted, and further comprising a conductive pattern formed on the board, connected with the BMS, and connected with the wire by the soldering part. at least one battery pack comprising a plurality of battery cells (111, 112); a battery management system BMS configured to manage the plurality of battery cells (111, 112); a board to which the BMS is mounted and on which at least one insulation layer and a conductive layer are laminated; a plurality of wires extending from the plurality of battery cells (111, 112) onto the board; a plurality of through-holes which are formed in the board and to which the plurality of wires are respectively inserted; a non-conductive area formed on at least one area around the through-hole, wherein the non-conductive area comprises a non-conductive layer formed on an inside surface of the through-hole; a soldering part formed on the through-hole to which the wire is inserted, and further comprising a conductive pattern formed on the board, connected with the BMS, and connected with the wire by the soldering part.
A gas compression system for power generation equipment for use with a gas stream, comprising: a plurality of compressors for compressing the gas stream; one or more ejectors for further compressing the gas stream; a condenser positioned downstream of the one or more ejectors and a waste heat source; wherein a return portion of the gas stream is in communication with the one or more ejectors via the waste heat source, the return portion is used as the motive flow in the one or more ejectors; and wherein the one or more ejectors each comprise a motive inlet in communication with the return portion of the gas stream and a suction inlet in communication with the gas stream or wherein the one or more ejectors each comprise a primary nozzle in communication with the return portion of the gas stream and a secondary nozzle in communication with the gas stream. a plurality of compressors for compressing the gas stream; one or more ejectors for further compressing the gas stream; a condenser positioned downstream of the one or more ejectors and a waste heat source; wherein a return portion of the gas stream is in communication with the one or more ejectors via the waste heat source, the return portion is used as the motive flow in the one or more ejectors; and wherein the one or more ejectors each comprise a motive inlet in communication with the return portion of the gas stream and a suction inlet in communication with the gas stream or wherein the one or more ejectors each comprise a primary nozzle in communication with the return portion of the gas stream and a secondary nozzle in communication with the gas stream.
Method for producing a security feature, by virtue of a first information item being provided as an open, machine-readable, first graphical code, the first graphical code being provided as a first image, at least one further information item being provided in at least one machine-readable further graphical code (2, 3), the at least one further graphical code (2, 3) being embedded in a two-dimensional, discrete, complex function G(fx,fy) with an fx-frequency coordinate and an fy-frequency coordinate, the two-dimensional, discrete, complex function G(fx,fy) being Fourier transformed into a two-dimensional, discrete, complex function g(x,y), and the function g(x,y) being binarized into a second image and the first image and the second image being linked to one another, characterized in that a maximum used frequency fx_max, fy_max and a maximum achievable frequency fx_limit, fy_limit are respectively determined along both frequency coordinates fx, fy, a ratio Pfx = fx _ max fx _ limit, Pfy = fy _ max fy _ limit of maximum used frequency and maximum achievable frequency is determined along each coordinate and the linked image is printed with a pixel resolution of at least the smaller value of the two values 300 DPI Pfx, 300 DPI Pfy.