mhurhangee/ep-ind-claims huggingface dataset:
System for the treatment, in particular for the cataphoretic dip-painting, of objects, in particular of vehicle bodies, having a) at least one dipping tank in which the objects are subjected to a treatment; b) two parallel rails (2, 3); c) at least one transportation carriage which guides the objects through the system and thereby conveys said objects into and out of the dipping tank, said transportation carriage in turn comprising: ca) a running gear (4 to 8) which is displaceable on the two rails (2, 3); cb) a shaft which is connected to the running gear (4 to 8) and which in an operating position extends transversely to the two rails (2, 3) from the one rail to the other rail (2, 3); cc) at least one pivoting arm (13, 14) which is connected to the shaft in a rotationally fixed manner; cd) a mounting frame (17 to 19) for at least one object, said mounting frame (17 to 19) being connected to the pivoting arm (13, 14); characterized in that d) the shaft in an end region that is adjacent to one of the two rails (2, 3) is pivotably articulated to the running gear (4 to 8) such that said shaft conjointly with the pivoting arm (13, 14) and the mounting frame (17 to 19) can be rotated to a space-saving position in which said shaft runs approximately parallel with one of the two rails (2, 3). a) at least one dipping tank in which the objects are subjected to a treatment; b) two parallel rails (2, 3); c) at least one transportation carriage which guides the objects through the system and thereby conveys said objects into and out of the dipping tank, said transportation carriage in turn comprising: ca) a running gear (4 to 8) which is displaceable on the two rails (2, 3); cb) a shaft which is connected to the running gear (4 to 8) and which in an operating position extends transversely to the two rails (2, 3) from the one rail to the other rail (2, 3); cc) at least one pivoting arm (13, 14) which is connected to the shaft in a rotationally fixed manner; cd) a mounting frame (17 to 19) for at least one object, said mounting frame (17 to 19) being connected to the pivoting arm (13, 14); ca) a running gear (4 to 8) which is displaceable on the two rails (2, 3); cb) a shaft which is connected to the running gear (4 to 8) and which in an operating position extends transversely to the two rails (2, 3) from the one rail to the other rail (2, 3); cc) at least one pivoting arm (13, 14) which is connected to the shaft in a rotationally fixed manner; cd) a mounting frame (17 to 19) for at least one object, said mounting frame (17 to 19) being connected to the pivoting arm (13, 14); d) the shaft in an end region that is adjacent to one of the two rails (2, 3) is pivotably articulated to the running gear (4 to 8) such that said shaft conjointly with the pivoting arm (13, 14) and the mounting frame (17 to 19) can be rotated to a space-saving position in which said shaft runs approximately parallel with one of the two rails (2, 3).
A plate type heat exchanger for an oil cooler, comprising: at least two heat exchanger members, stacked in a stacking direction, each enclosing a respective first cavity; at least one inlet port (20, 22), for feeding a medium to the first cavities and at least one output port (21, 23) for extracting the medium from the first cavities; and at least one mounting member (13, 14), which is attached to an outside of an outermost one, as seen in a stacking direction, of the heat exchanger members, wherein a second cavity is formed between the at least two heat exchanger members, wherein a medium present in the second cavity is isolated from a medium present in the first cavities; and a reinforcement plate (30, 31) located on an inside surface of the outermost one of the heat exchanger members, as seen in the stacking direction, and at least partially overlapping the mounting member (13, 14), wherein the mounting member (13, 14) is fixedly connected to the outer surface of the outermost one of the heat exchanger members, along an outside edge portion of the heat exchanger member, wherein the reinforcement plate (30, 31) is fixedly connected to the inside surface of the outermost one of the heat exchanger members substantially along an inside edge portion of the heat exchanger member and, wherein said outermost one of the heat exchanger members comprises turbulating means (12, 12') received in the associated first cavity, characterized by that the turbulating means (12, 12') extends substantially throughout those parts of said associated first cavity that are not occupied by the reinforcement plate (30, 31). at least two heat exchanger members, stacked in a stacking direction, each enclosing a respective first cavity; at least one inlet port (20, 22), for feeding a medium to the first cavities and at least one output port (21, 23) for extracting the medium from the first cavities; and at least one mounting member (13, 14), which is attached to an outside of an outermost one, as seen in a stacking direction, of the heat exchanger members, wherein a second cavity is formed between the at least two heat exchanger members, wherein a medium present in the second cavity is isolated from a medium present in the first cavities; and a reinforcement plate (30, 31) located on an inside surface of the outermost one of the heat exchanger members, as seen in the stacking direction, and at least partially overlapping the mounting member (13, 14), wherein the mounting member (13, 14) is fixedly connected to the outer surface of the outermost one of the heat exchanger members, along an outside edge portion of the heat exchanger member, wherein the reinforcement plate (30, 31) is fixedly connected to the inside surface of the outermost one of the heat exchanger members substantially along an inside edge portion of the heat exchanger member and, wherein said outermost one of the heat exchanger members comprises turbulating means (12, 12') received in the associated first cavity, characterized by that the turbulating means (12, 12') extends substantially throughout those parts of said associated first cavity that are not occupied by the reinforcement plate (30, 31).
A non-aqueous dispersion of photosensitive polymeric microparticles, comprising: a) an organic continuous phase comprising an organic solvent; and b) photosensitive polymeric microparticles dispersed in the organic continuous phase, wherein the microparticles comprise an at least partially polymerized component having integral surface and interior domains, wherein the surface domain comprises a polymeric material that is solubilized by the organic solvent, the interior domain comprises a polymeric material that is insoluble in the organic solvent, and the surface domain and/or interior domain is photosensitive; wherein surface domain means the contiguous region of the outside of the microparticles (shell) and interior domain comprises the contiguous region of the inside of the microparticles (core), all of which domains are integral; and c) optionally a nanopigment and/or non-photosensitive dye, wherein the non-aqueous dispersion comprises an amount of water that is less than 30 percent by weight. a) an organic continuous phase comprising an organic solvent; and b) photosensitive polymeric microparticles dispersed in the organic continuous phase, wherein the microparticles comprise an at least partially polymerized component having integral surface and interior domains, wherein the surface domain comprises a polymeric material that is solubilized by the organic solvent, the interior domain comprises a polymeric material that is insoluble in the organic solvent, and the surface domain and/or interior domain is photosensitive; wherein surface domain means the contiguous region of the outside of the microparticles (shell) and interior domain comprises the contiguous region of the inside of the microparticles (core), all of which domains are integral; and c) optionally a nanopigment and/or non-photosensitive dye, wherein the non-aqueous dispersion comprises an amount of water that is less than 30 percent by weight.
A process to form a composition comprising a functionalized ethylene-based polymer, the process comprising reacting a first composition comprising an ethylene-based polymer with at least the following: at least one carbon-carbon (C-C) free radical initiator of Structure I: wherein R 1, R 2, R 3, R 4, R 5 and R 6 are each, independently, hydrogen or a hydrocarbyl group; and wherein, optionally, two or more R groups (R 1, R 2, R 3, R 4, R 5 and R 6) form a ring structure; and with the provisos that (i) at least one of R 2 and R 5 is a hydrocarbyl group of at least two carbon atoms, and (ii) at least one of R 3 and R 6 is a hydrocarbyl group of at least two carbon atoms; and at least one free radical initiator (a non-C-C free radical initiator) other than the carbon-carbon (C-C) free radical initiator of Structure I; and at least one functionalization agent, wherein the at least one functionalization agent is a radically graftable species; and wherein the C-C free radical initiator and non-C-C free radical initiator are present in the process at a C-C free radical initiator to non-C-C free radical initiator weight ratio from 5.0 to 0.5. at least one carbon-carbon (C-C) free radical initiator of Structure I: wherein R 1, R 2, R 3, R 4, R 5 and R 6 are each, independently, hydrogen or a hydrocarbyl group; and wherein, optionally, two or more R groups (R 1, R 2, R 3, R 4, R 5 and R 6) form a ring structure; and with the provisos that (i) at least one of R 2 and R 5 is a hydrocarbyl group of at least two carbon atoms, and (ii) at least one of R 3 and R 6 is a hydrocarbyl group of at least two carbon atoms; and wherein R 1, R 2, R 3, R 4, R 5 and R 6 are each, independently, hydrogen or a hydrocarbyl group; and wherein, optionally, two or more R groups (R 1, R 2, R 3, R 4, R 5 and R 6) form a ring structure; and with the provisos that (i) at least one of R 2 and R 5 is a hydrocarbyl group of at least two carbon atoms, and (ii) at least one of R 3 and R 6 is a hydrocarbyl group of at least two carbon atoms; and (i) at least one of R 2 and R 5 is a hydrocarbyl group of at least two carbon atoms, and (ii) at least one of R 3 and R 6 is a hydrocarbyl group of at least two carbon atoms; and at least one free radical initiator (a non-C-C free radical initiator) other than the carbon-carbon (C-C) free radical initiator of Structure I; and at least one functionalization agent, wherein the at least one functionalization agent is a radically graftable species;
A transapical implantable mitral valve device, it comprises: an outer valve stent (101, 201, 401, 501, 601, 701) comprising an outer valve stent body that is composed of a plurality of first structure units arranged in a circumferential direction, and an anchoring unit that is disposed on the outer valve stent body for anchoring the mitral valve device within a human body; an inner surface and/or an outer surface of the outer valve stent body being covered with an outer skirt; characterised in that an inner valve stent (103, 203, 403, 503, 603) is disposed inside the outer valve stent (101, 201, 401, 501, 601, 701) and interconnected with the outer valve stent (101, 201, 401, 501, 601, 701), and a cavity being formed between the outer valve stent (103, 203, 403, 503, 603) and the inner valve stent (103, 203, 403, 503, 603); and a valve leaflet structure (102, 402, 641) is disposed inside the inner valve stent (103, 203, 403, 503, 603) to form a prosthetic valve; whereby the anchoring unit comprises a U-shaped structure unit (107, 207) and an S-shaped structure unit (106, 206), wherein the S-shaped structure unit (106, 206) is arranged at a left ventricular end of the outer valve stent body; the S-shaped structure unit (106, 206) is formed by bending upwards and then bending downwards to form a folded structure, and the outer side of the S-shaped structure unit (106, 206) is in contact with an inner side of the mitral valve leaflet for fixing with the mitral valve leaflet. an outer valve stent (101, 201, 401, 501, 601, 701) comprising an outer valve stent body that is composed of a plurality of first structure units arranged in a circumferential direction, and an anchoring unit that is disposed on the outer valve stent body for anchoring the mitral valve device within a human body; an inner surface and/or an outer surface of the outer valve stent body being covered with an outer skirt; characterised in that an inner valve stent (103, 203, 403, 503, 603) is disposed inside the outer valve stent (101, 201, 401, 501, 601, 701) and interconnected with the outer valve stent (101, 201, 401, 501, 601, 701), and a cavity being formed between the outer valve stent (103, 203, 403, 503, 603) and the inner valve stent (103, 203, 403, 503, 603); and a valve leaflet structure (102, 402, 641) is disposed inside the inner valve stent (103, 203, 403, 503, 603) to form a prosthetic valve; whereby the anchoring unit comprises a U-shaped structure unit (107, 207) and an S-shaped structure unit (106, 206), wherein the S-shaped structure unit (106, 206) is arranged at a left ventricular end of the outer valve stent body; the S-shaped structure unit (106, 206) is formed by bending upwards and then bending downwards to form a folded structure, and the outer side of the S-shaped structure unit (106, 206) is in contact with an inner side of the mitral valve leaflet for fixing with the mitral valve leaflet.
A pneumatic tire for resonance noise reduction comprising: a plurality of resonance noise-reducing members disposed along the circumferential direction of the inner liner of the tire and being formed to protrude from the inner liner and reducing the interference of the resonance noises generated inside the tire, wherein the resonance noise-reducing members are formed at an irregular interval of disposition along the circumferential direction of the inner liner and from the same material as the material of the inner liner, the pneumatic tire being characterised in that the resonance noise-reducing members have a plurality of grooves formed along the width direction of the tread of the tire. a plurality of resonance noise-reducing members disposed along the circumferential direction of the inner liner of the tire and being formed to protrude from the inner liner and reducing the interference of the resonance noises generated inside the tire, wherein the resonance noise-reducing members are formed at an irregular interval of disposition along the circumferential direction of the inner liner and from the same material as the material of the inner liner, the pneumatic tire being characterised in that the resonance noise-reducing members have a plurality of grooves formed along the width direction of the tread of the tire.
Arrangement for mounting a tow hitch crossmember to a body of a motor vehicle having a longitudinal main orientation, comprising two connecting ties that are able to be attached between said tow hitch crossmember and a side member of the body of the vehicle, said crossmember comprising at each of its ends an attachment plate comprising an inner flange which is secured to said crossmember, each connecting tie comprising a first connecting part on the side opposite a second connecting part of said connecting tie that is able to be attached to said side member, said first connecting part of said connecting tie forming a first bearing plane parallel to the transverse longitudinal plane XY of the vehicle, and each attachment plate comprising an outer flange extending transversely from said inner flange so as to form a second bearing plane parallel to the transverse longitudinal plane XY of the vehicle, said second bearing plane being intended to be brought against said first bearing plane during mounting of said crossmember so as to provide preliminary holding of said tow hitch crossmember on said connecting ties, characterized in that the arrangement comprises means for pre-positioning said tow hitch crossmember, comprising an indexing pin welded to said first connecting part of each connecting tie and designed to engage in a corresponding indexing orifice arranged on said outer flange of said attachment plate.
A stacking type header comprising: a first plate shaped body having a plurality of first outlet flow paths; and a second plate shaped body attatched to the first plate shaped body and having a first inlet flow path, the second plate shaped body having at least a part of a distribution flow path to allow refrigerant flowing from the first inlet flow path to be distributed and flow out to the plurality of first outlet flow paths, the distribution flow path including at least one branch flow path having an inflow flow path, a branch section communicating with the inflow flow path, and a plurality of outflow flow paths (33, 34) communicating with the branch section, characterised in that the inflow flow path includes a partial flow path unparallel and non-perpendicular to a gravity direction to allow the refrigerant to flow into the branch section via the partial flow path, at least one outflow flow path (33, 34) of the plurality of outflow flow paths (33, 34) allows the refrigerant to flow out in a direction being upwardly or downwardly inclined from a direction extending through the center of the branch section and perpendicular to the partial flow path at an end communicating with the branch section. a first plate shaped body having a plurality of first outlet flow paths; and a second plate shaped body attatched to the first plate shaped body and having a first inlet flow path, the second plate shaped body having at least a part of a distribution flow path to allow refrigerant flowing from the first inlet flow path to be distributed and flow out to the plurality of first outlet flow paths, the distribution flow path including at least one branch flow path having an inflow flow path, a branch section communicating with the inflow flow path, and a plurality of outflow flow paths (33, 34) communicating with the branch section, characterised in that the inflow flow path includes a partial flow path unparallel and non-perpendicular to a gravity direction to allow the refrigerant to flow into the branch section via the partial flow path, at least one outflow flow path (33, 34) of the plurality of outflow flow paths (33, 34) allows the refrigerant to flow out in a direction being upwardly or downwardly inclined from a direction extending through the center of the branch section and perpendicular to the partial flow path at an end communicating with the branch section.
An electronic component which includes: a circuit board in which a primary circuit and a secondary circuit are each formed using a plurality of layers of wiring patterns; and a magnetic core attached to the circuit board to magnetically couple the primary circuit and the secondary circuit, wherein the circuit board comprises: a cutout portion which is formed in a cutout shape from a side edge portion toward an inner side and which fixes the magnetic core at a predetermined attachment position in a state of housing the magnetic core; characterized in that a widened portion which continues from the cutout portion is formed in a cutout shape from the side edge portion toward the inner side of the circuit board, on a side of the magnetic core so as to be larger than a width that the cutout portion has for housing the magnetic core. a cutout portion which is formed in a cutout shape from a side edge portion toward an inner side and which fixes the magnetic core at a predetermined attachment position in a state of housing the magnetic core; characterized in that a widened portion which continues from the cutout portion is formed in a cutout shape from the side edge portion toward the inner side of the circuit board, on a side of the magnetic core so as to be larger than a width that the cutout portion has for housing the magnetic core.
A tire comprising a pattern portion (30, 40, 50) that is formed on a tire surface and in which ridges (32, 42, 52) are arranged in a nest shape having a center point (O1, O2), the ridges (32, 42, 52) including ridgelines having a curved or bent portion in plan view, wherein a height of each of the ridges (32, 42, 52) is from 0.2 mm to 0.5 mm, and adjacent ridges (32, 42, 52) are arranged at a constant pitch of from 0.15 mm to 0.35 mm, characterised in that an angle formed by wall surfaces that configure the ridges (32, 42, 52) and face each other is from 15° to 40°.
Mixer machine for mixing at least one substance in powder with at least one liquid, comprising: - a mixing chamber which extends around a main axis substantially vertical or inclined, said mixing chamber being delimited by a side wall and having an upper aperture for the introduction of the substance in powder into the mixing chamber; - a turbine placed in said mixing chamber with its rotation axis coinciding with said main axis, said turbine being susceptible to be placed in rotation in such a way as to generate a downward flow of the substance in powder along the inner surface of said side wall of said mixing chamber, and - dispenser means of the liquid suitable to generate at least one pressurised jet of liquid nebulised directly against said inner surface, so as to cause an interaction between the particles of the substance in powder and the particles of the nebulised liquid having the effect of an instantaneous mixing of said substance with said liquid; said turbine comprising turbine blades, said mixer machine being characterized in that spray nozzles of said dispenser means provided on the hub of the turbine are positioned between the turbine blades in an intermediate position between upper and 4 lower ends of said blades. - a mixing chamber which extends around a main axis substantially vertical or inclined, said mixing chamber being delimited by a side wall and having an upper aperture for the introduction of the substance in powder into the mixing chamber; - a turbine placed in said mixing chamber with its rotation axis coinciding with said main axis, said turbine being susceptible to be placed in rotation in such a way as to generate a downward flow of the substance in powder along the inner surface of said side wall of said mixing chamber, and - dispenser means of the liquid suitable to generate at least one pressurised jet of liquid nebulised directly against said inner surface, so as to cause an interaction between the particles of the substance in powder and the particles of the nebulised liquid having the effect of an instantaneous mixing of said substance with said liquid; said turbine comprising turbine blades, said mixer machine being characterized in that spray nozzles of said dispenser means provided on the hub of the turbine are positioned between the turbine blades in an intermediate position between upper and 4 lower ends of said blades.
A modified rubber masterbatch, consisting of an uncrosslinked rubber and rubber particles having radiation crosslinked structure dispersed therein, wherein the rubber particles having radiation crosslinked structure are synthetic rubber particles and/or natural rubber particles with an average particle size of 20 to 500 nm, preferably 50 to 200 nm, more preferably 70 to 200 nm, and a gel content of 60% by weight or higher, preferably 75% by weight or higher, and the uncrosslinked rubber is a styrene-butadiene rubber; and wherein the weight ratio of the rubber particles having radiation crosslinked structure to the uncrosslinked rubber is greater than 20:80 and less than or equal to 80:20.