mhurhangee/ep-ind-claims huggingface dataset:
Lignin-containing composition comprising: 10 to 50 percent by weight of lignin; 10 to 50 percent by weight of a liquid C2-C4 polyol; and 10 to 50 percent by weight of an acrylic resin; wherein the percentages by weight are expressed relative to the total dry weight of the composition, wherein at least 90 percent of the total dry weight of the composition consists of lignin, liquid C2-C4 polyol, acrylic resin and optionally a filler, and wherein the total dry weight of the composition amounts to 100 percent. 10 to 50 percent by weight of lignin; 10 to 50 percent by weight of a liquid C2-C4 polyol; and 10 to 50 percent by weight of an acrylic resin; wherein the percentages by weight are expressed relative to the total dry weight of the composition, wherein at least 90 percent of the total dry weight of the composition consists of lignin, liquid C2-C4 polyol, acrylic resin and optionally a filler, and wherein the total dry weight of the composition amounts to 100 percent.
A lancing device that can be used at least once, comprising: a housing, said housing comprises a front end and a rear end, wherein, when in use, said front end points toward the puncture site and said rear end points away from said puncture site; a lancet support assembly, said lancet support assembly is at least partially covered by said housing, and said lancet support assembly comprises at least two engaging parts; a recovery assembly, said recovery assembly is at least partially covered by said housing, and said recovery assembly comprises a sleeve and a first flexible element, and said sleeve is at said front end of said housing, and said sleeve can be engaged by said at least two engaging parts of said lancet support assembly, and said first flexible element is located on the outer side of said sleeve; a loading assembly, said loading assembly is at least partially covered by said housing, and said loading assembly comprises a rear assembly and an impact assembly, and said impact assembly comprises a first end and a second end, and said rear assembly is coupled to said first end of said impact assembly, and said impact assembly and said rear assembly are positioned on the longitudinal axis of said lancing device, and said impact assembly further comprises a rod and a second flexible element, and said rod and said second flexible element are positioned on the longitudinal axis of said lancing device; a trigger member, said trigger member is located on the outer side of said housing. a housing, said housing comprises a front end and a rear end, wherein, when in use, said front end points toward the puncture site and said rear end points away from said puncture site; a lancet support assembly, said lancet support assembly is at least partially covered by said housing, and said lancet support assembly comprises at least two engaging parts; a recovery assembly, said recovery assembly is at least partially covered by said housing, and said recovery assembly comprises a sleeve and a first flexible element, and said sleeve is at said front end of said housing, and said sleeve can be engaged by said at least two engaging parts of said lancet support assembly, and said first flexible element is located on the outer side of said sleeve; a loading assembly, said loading assembly is at least partially covered by said housing, and said loading assembly comprises a rear assembly and an impact assembly, and said impact assembly comprises a first end and a second end, and said rear assembly is coupled to said first end of said impact assembly, and said impact assembly and said rear assembly are positioned on the longitudinal axis of said lancing device, and said impact assembly further comprises a rod and a second flexible element, and said rod and said second flexible element are positioned on the longitudinal axis of said lancing device; a trigger member, said trigger member is located on the outer side of said housing.
A tape for use in an automated tape laying machine wherein uncured composite material is applied to a mold, said tape comprising: A. a multi-layer substrate for supporting said uncured composite material during use of said tape in said automated tape laying machine, said multi-layer substrate comprising: a. a first plastic film having an outer film surface and an inner film surface wherein said outer film surface is smoother than said inner film surface; b. a second plastic film having an outer film surface and an inner film surface wherein said outer film surface is smoother than said inner film surface; and c. a fibrous layer having an outer fiber surface and an inner fiber surface wherein said inner fiber surface is adhered to said inner film surface of said first plastic film and said outer fiber surface is adhered to said inner film surface of said second plastic film; and B. an uncured composite material layer comprising a fibrous reinforcement and an uncured resin matrix, said uncured composite material layer having a first composite surface that is located towards the mold when said uncured composite material is applied to said mold and a second composite surface that is releasably adhered to the outer film surface of said first plastic film. A. a multi-layer substrate for supporting said uncured composite material during use of said tape in said automated tape laying machine, said multi-layer substrate comprising: a. a first plastic film having an outer film surface and an inner film surface wherein said outer film surface is smoother than said inner film surface; b. a second plastic film having an outer film surface and an inner film surface wherein said outer film surface is smoother than said inner film surface; and c. a fibrous layer having an outer fiber surface and an inner fiber surface wherein said inner fiber surface is adhered to said inner film surface of said first plastic film and said outer fiber surface is adhered to said inner film surface of said second plastic film; and a. a first plastic film having an outer film surface and an inner film surface wherein said outer film surface is smoother than said inner film surface; b. a second plastic film having an outer film surface and an inner film surface wherein said outer film surface is smoother than said inner film surface; and c. a fibrous layer having an outer fiber surface and an inner fiber surface wherein said inner fiber surface is adhered to said inner film surface of said first plastic film and said outer fiber surface is adhered to said inner film surface of said second plastic film; and B. an uncured composite material layer comprising a fibrous reinforcement and an uncured resin matrix, said uncured composite material layer having a first composite surface that is located towards the mold when said uncured composite material is applied to said mold and a second composite surface that is releasably adhered to the outer film surface of said first plastic film.
A semiconductor module comprising: a wiring substrate having a wiring trace (14, 15) arranged on an insulating substrate; a semiconductor device (21, 31) connected to the wiring trace (14, 15); a plate-shaped bus bar having at least one end portion (59, 60) joined to the wiring trace (14, 15) or the semiconductor device (21, 31); and a plastic housing having a frame body surrounding the wiring trace (14, 15) and the semiconductor device (21, 31), the frame body including two side walls that are opposed to each other and a beam that bridges the two side walls, the bus bar being integrated with the housing, wherein the bus bar includes an upright portion (57, 58) that extends upright from the end portion (59, 60) in a thickness direction of the insulating substrate, a bent portion (55, 56) that extends continuously with the upright portion (57, 58) and bends the bus bar in a direction crossing the thickness direction, and an extension that extends continuously with the bent portion (55, 56) and has a section embedded in the beam, and the housing includes an opening (46, 47) for visual checking at a position corresponding to a joint portion between the end portion (59, 60) of the bus bar and the wiring trace (14, 15) or the semiconductor device (21, 31). a wiring substrate having a wiring trace (14, 15) arranged on an insulating substrate; a semiconductor device (21, 31) connected to the wiring trace (14, 15); a plate-shaped bus bar having at least one end portion (59, 60) joined to the wiring trace (14, 15) or the semiconductor device (21, 31); and a plastic housing having a frame body surrounding the wiring trace (14, 15) and the semiconductor device (21, 31), the frame body including two side walls that are opposed to each other and a beam that bridges the two side walls, the bus bar being integrated with the housing, wherein the bus bar includes an upright portion (57, 58) that extends upright from the end portion (59, 60) in a thickness direction of the insulating substrate, a bent portion (55, 56) that extends continuously with the upright portion (57, 58) and bends the bus bar in a direction crossing the thickness direction, and an extension that extends continuously with the bent portion (55, 56) and has a section embedded in the beam, and an upright portion (57, 58) that extends upright from the end portion (59, 60) in a thickness direction of the insulating substrate, a bent portion (55, 56) that extends continuously with the upright portion (57, 58) and bends the bus bar in a direction crossing the thickness direction, and an extension that extends continuously with the bent portion (55, 56) and has a section embedded in the beam, and the housing includes an opening (46, 47) for visual checking at a position corresponding to a joint portion between the end portion (59, 60) of the bus bar and the wiring trace (14, 15) or the semiconductor device (21, 31).
A method for manufacturing a spark plug, the spark plug comprising: a metal shell; a rod-shaped ground electrode having a base end portion joined to the metal shell and a distal end portion located opposite the base end portion, the distal end portion including a tip weld surface and a distal end face; and a tip welded to the tip weld surface of the distal end portion of the ground electrode, the method comprising: a welding step of welding the tip to the tip weld surface of the ground electrode; and after the welding step, an image processing step of taking an image of the distal end face of the ground electrode and the tip with the use of reflected light and performing image processing on the taken image; characterised by a treatment step, after the welding step and before the image processing step, of performing polishing treatment or grinding treatment on at least a part of an edge region of the distal end face of the ground electrode. a welding step of welding the tip to the tip weld surface of the ground electrode; and after the welding step, an image processing step of taking an image of the distal end face of the ground electrode and the tip with the use of reflected light and performing image processing on the taken image; characterised by a treatment step, after the welding step and before the image processing step, of performing polishing treatment or grinding treatment on at least a part of an edge region of the distal end face of the ground electrode.
A ballistic resistant composite comprising at least one fibrous substrate having a multilayer coating thereon, wherein said fibrous substrate comprises one or more fibers having a tenacity of 7.93 cN/dtex (7 g/denier) or more and a tensile modulus of 169.95 cN/dtex (150 g/denier) or more; said multilayer coating comprising a layer of a polymeric binder material on a surface of said one or more fibers, and a layer of a wax on the polymeric binder material coating, characterised in that said wax is fused to the polymeric binder material-coated fibrous substrate.
A method of forming an RFID article, the method comprising a roll-to-roll manufacturing, including the steps of providing an RFID webstock of polymeric material having a plurality of recesses, each of the recesses containing an RFID chip (454; 464; 474); providing a second web having antennas (452; 462; 472) spaced thereon; dividing the RFID webstock into a plurality of sections, each of the sections including one or more of the RFID chips (454; 464; 474); indexing the pitch of the RFID sections from high density on said RFID webstock, to a relatively low density on an RFID inlay stock; wherein the dividing and indexing steps are effected using a cutter member and a transport member, the RFID webstock being passed through a cutting location between the cutter member and transport member, wherein sections are cut from the RFID webstock and engaged by the transport member; wherein the transport member is a roller and conveys sections from the cutting location to a transfer location at which each of the sections are joined to an antenna (452; 462; 472); and attaching the RFID sections to a plurality of antennas (452; 462; 472) in an automatic continuous process, so that each of the RFID chips (454; 464; 474) is adjacent to one of the antennas (452; 462; 472) to form the RFID inlay stock.
A thermal cycler assembly, comprising: a heating chamber; a heating element (153, 155) contained in the heating chamber; a closing mechanism configured to enclose the heating chamber and to press on a multi-well reaction vessel when the multi-well reaction vessel is received in the heating chamber; and a compliant thermally conductive insert positioned in the heating chamber in contact with the heating element, the compliant thermally conductive insert comprising an elastically deformable creped graphite sheet. a heating chamber; a heating element (153, 155) contained in the heating chamber; a closing mechanism configured to enclose the heating chamber and to press on a multi-well reaction vessel when the multi-well reaction vessel is received in the heating chamber; and a compliant thermally conductive insert positioned in the heating chamber in contact with the heating element, the compliant thermally conductive insert comprising an elastically deformable creped graphite sheet.
A method of installing and maintaining a submerged water current power generation system (101, 201, 401, 801), said method comprising: a. disposing one or more submerged induction type power generation units (104, 204, 205, 405, 406) equipped with propellers (105, 206,407, 501) capable of rotating around drive shafts in response to water currents in communication with one or more submerged flotation chambers; and b. floating said water current power generation system (101, 201, 401, 801) to the surface by opening the flotation chambers pressurized with gas and evacuating fluid from ballast tube(s), characterized in that the method further comprises: c. rotating said power generation units so that the propellers (105, 206, 407, 501) are disposed approximately parallel to the water surface; and d. manipulating ballasts within flotation skids so that the generation units and said propellers (105, 206,407, 501) turn upward. a. disposing one or more submerged induction type power generation units (104, 204, 205, 405, 406) equipped with propellers (105, 206,407, 501) capable of rotating around drive shafts in response to water currents in communication with one or more submerged flotation chambers; and b. floating said water current power generation system (101, 201, 401, 801) to the surface by opening the flotation chambers pressurized with gas and evacuating fluid from ballast tube(s), c. rotating said power generation units so that the propellers (105, 206, 407, 501) are disposed approximately parallel to the water surface; and d. manipulating ballasts within flotation skids so that the generation units and said propellers (105, 206,407, 501) turn upward.
Method of producing a composite film arrangement, in particular a pack, comprising at least one composite film, use being made of a composite film with at least one sealing layer, which consists of sealable material and is connected, at least indirectly, to a first layer, which acts as an outer layer, wherein the sealing layer has a lower melting point than the first layer, wherein that side of the sealing layer which is directed away from the first layer has arranged on it, in operative connection with the sealing layer, a second layer, which acts as an inner layer, wherein the second layer has a higher melting point than the sealing layer, and wherein the second layer has at least one through-opening (17; 17a to 17c), which is overlapped by the sealing layer, wherein two portions of the at least one composite film are positioned against one another and at least one sealing layer is activated by the introduction of heat and pressure, and therefore the sealing layers of the two portions come into operative connection and connect together the two portions which are positioned against one another, characterized in that the introduction of the heat and/or of the pressure into the at least one composite film brings about at least one displacement of the material of the sealing layer into the region of overlapping through-openings (17; 17a to 17c) of second layers, which act as inner layers, such that the material of the sealing layers ends up in operative connection.
An electronic device (120, 140), comprising: a medium access controller, MAC, to generate frames (300, 320, 340); and transmitter circuitry to convert the frames to radio-frequency, RF, analog signals for transmission; wherein: the MAC is to initiate frame generation at a time that precedes initiation of RF analog signal transmission by a specified time period; in a first mode, the MAC is to generate a dummy frame during a first portion of the specified time period and to initiate generation of a transmit frame during a subsequent second portion of the specified time period; and in the first mode, the transmitter circuitry is to convert the dummy frame into a first analog signal, discard the first analog signal, convert the transmit frame into a second analog signal, and transmit the second analog signal. a medium access controller, MAC, to generate frames (300, 320, 340); and transmitter circuitry to convert the frames to radio-frequency, RF, analog signals for transmission; wherein: the MAC is to initiate frame generation at a time that precedes initiation of RF analog signal transmission by a specified time period; in a first mode, the MAC is to generate a dummy frame during a first portion of the specified time period and to initiate generation of a transmit frame during a subsequent second portion of the specified time period; and in the first mode, the transmitter circuitry is to convert the dummy frame into a first analog signal, discard the first analog signal, convert the transmit frame into a second analog signal, and transmit the second analog signal. the MAC is to initiate frame generation at a time that precedes initiation of RF analog signal transmission by a specified time period; in a first mode, the MAC is to generate a dummy frame during a first portion of the specified time period and to initiate generation of a transmit frame during a subsequent second portion of the specified time period; and in the first mode, the transmitter circuitry is to convert the dummy frame into a first analog signal, discard the first analog signal, convert the transmit frame into a second analog signal, and transmit the second analog signal.
A surgical test device (100, 200) configured to permit a surgical tool to supply at least one actuation motion while preventing the surgical tool from performing an intended surgical function, the surgical test device comprising: a body (101, 201) sized and configured to engage an end effector of the surgical tool, wherein the intended surgical function comprises ejecting at least one sealing member from the end effector, wherein the body does not have sealing member openings; and a release member (107, 307, 407) coupled to the body (101, 201), wherein the release member (107, 307, 407) is configured to engage a lockout mechanism on the surgical tool to permit the surgical tool to supply the at least one actuation motion to the end effector. a body (101, 201) sized and configured to engage an end effector of the surgical tool, wherein the intended surgical function comprises ejecting at least one sealing member from the end effector, wherein the body does not have sealing member openings; and a release member (107, 307, 407) coupled to the body (101, 201), wherein the release member (107, 307, 407) is configured to engage a lockout mechanism on the surgical tool to permit the surgical tool to supply the at least one actuation motion to the end effector.
Transmission apparatus with a power split means, with a first power branch and with a second power branch, with a transmission device which is configured as a planetary gear mechanism for summing the parts of the prevailing torque which can be conducted via the power branches (3, 5), with a hydrostatic device with a first hydraulic unit and a second hydraulic unit, the first hydraulic unit being connected to a second hydrostatic shaft and the second hydraulic unit being connected to a first hydrostatic shaft, in each case three driving ranges for forward and reverse driving being provided which can be switched over in each case via at least one shifting element (K1 to K3) to be switched out and at least one shifting element (K1 to K3) to be switched in, each of the shifting elements (K1 to K3) being arranged on a separate countershaft (14, 15, 16), the planetary gear mechanism having a first and a second sun gear (21, 22), which are in engagement with common double planetary gears, an internal gear and a planetary carrier, the second sun gear being connected to the second hydrostatic shaft, and the internal gear being connected to the first hydrostatic shaft via a fixed gear and a further fixed gear, and the power of the two power branches (3, 5) being summed in the first and third driving range via the first hydrostatic shaft which is connected to the second hydraulic unit, characterized in that two fixed gears (27, 36) are arranged on the first hydrostatic shaft, one shifting element half of a first shifting element, via which the first driving range can be produced in the switched-in operating state of the shifting element, being in operative connection via a gearwheel (33; 43) of the countershaft with the transmission output shaft, and a further shifting element half of the first shifting element being in operative connection via a further gearwheel of the countershaft with the shaft which is connected to the hydrostatic device, and an inner disc carrier or an outer disc carrier of the first shifting element being connected to the countershaft, and the outer disc carrier or the inner disc carrier being connected to a gearwheel (35 or 33) which can be coupled via the first shifting element to the associated countershaft, and the gearwheel which can be connected fixedly via the first shifting element to the associated countershaft so as to rotate with it being operatively connected to the transmission output shaft, and the fixed gear of the countershaft meshing with a fixed gear of the shaft which is assigned to the hydrostatic device.