mhurhangee/ep-ind-claims huggingface dataset:
A turbocharger comprising: a center housing; a compressor assembly operatively coupled to the center housing; and a turbine assembly operatively coupled to the center housing, wherein the center housing comprises a bearing boss that comprises a bore wall with opposing axial ends (434, 436) that define an axial through bore having opposing axial openings, an oil inlet, an oil outlet, an oil drainage passage in fluid communication with the opposing axial openings of the bore and in fluid communication with the oil outlet, characterized by, an arcuate oil passage in fluid communication with the oil inlet, wherein the arcuate oil passage extends from a first region proximate to the oil inlet to a second region, the arcuate oil passage having an arc angle being greater than approximately 45 degrees about an axis of the axial through bore, and an oil passage in fluid communication with the second region of the arcuate oil passage and an opening in the bore wall. a center housing; a compressor assembly operatively coupled to the center housing; and a turbine assembly operatively coupled to the center housing, wherein the center housing comprises a bearing boss that comprises a bore wall with opposing axial ends (434, 436) that define an axial through bore having opposing axial openings, an oil inlet, an oil outlet, an oil drainage passage in fluid communication with the opposing axial openings of the bore and in fluid communication with the oil outlet, characterized by, an arcuate oil passage in fluid communication with the oil inlet, wherein the arcuate oil passage extends from a first region proximate to the oil inlet to a second region, the arcuate oil passage having an arc angle being greater than approximately 45 degrees about an axis of the axial through bore, and an oil passage in fluid communication with the second region of the arcuate oil passage and an opening in the bore wall. a bearing boss that comprises a bore wall with opposing axial ends (434, 436) that define an axial through bore having opposing axial openings, an oil inlet, an oil outlet, an oil drainage passage in fluid communication with the opposing axial openings of the bore and in fluid communication with the oil outlet, characterized by, an arcuate oil passage in fluid communication with the oil inlet, wherein the arcuate oil passage extends from a first region proximate to the oil inlet to a second region, the arcuate oil passage having an arc angle being greater than approximately 45 degrees about an axis of the axial through bore, and an oil passage in fluid communication with the second region of the arcuate oil passage and an opening in the bore wall.
An aircraft comprising: a housing coupled to a structure in an exhaust system of the aircraft, wherein the structure is positioned relative to a surface within the exhaust system such that a gap is present between the surface and the structure; a seal having an end positioned in contact with the surface to reduce a flow of an exhaust through the gap and coupled to the housing such that at least a portion of the seal extends within the housing; and an energy storing device coupled to the housing and engaged with the seal such that the energy storing device allows the seal to translate in a first direction relative to the housing when the gap increases and in a second direction opposite the first direction relative to the housing when the gap decreases such that the seal continues to reduce the flow of the exhaust through the gap as the gap changes in size, wherein the seal has a cylindrical shape and wherein the end of the seal that contacts the surface is substantially flat. a housing coupled to a structure in an exhaust system of the aircraft, wherein the structure is positioned relative to a surface within the exhaust system such that a gap is present between the surface and the structure; a seal having an end positioned in contact with the surface to reduce a flow of an exhaust through the gap and coupled to the housing such that at least a portion of the seal extends within the housing; and an energy storing device coupled to the housing and engaged with the seal such that the energy storing device allows the seal to translate in a first direction relative to the housing when the gap increases and in a second direction opposite the first direction relative to the housing when the gap decreases such that the seal continues to reduce the flow of the exhaust through the gap as the gap changes in size, wherein the seal has a cylindrical shape and wherein the end of the seal that contacts the surface is substantially flat.
Method for measuring the energy consumption of the branches (11, 12, 13, N) of an electrical network, method in which one measures the voltages of said network in a centralized manner by means of a single voltages measuring device connected upstream of the branches of the network, one measures the current on at least one of the branches of the network by means of a dedicated current measuring device, one communicates through a communication link said voltage measurements to said current measuring device, and one calculates in said current measuring device at least said energy consumption of said analyzed branch of the network, characterized in that one performs the measurements of the voltages of said network by means of said single voltages measuring device by sampling the voltages at a moment (T v,n) at a first sampling frequency, one transmits the voltage samples to said current measuring device through the communication link at the moment the voltages are sampled (T v,n), one performs the measurements of the current of the branch of the network by means of said dedicated current measuring device by sampling the currents at a moment (T i,n) at a second sampling frequency, one compares the time difference existing between the sampling moment of the voltages (T v,n) and the sampling moment of the currents (T i,n) since said voltage and current measuring devices operate asynchronously, and one adjusts at least one sampling frequency with respect to the other to bring the time difference existing between the sampling moment of the voltages (T v,n) and the sampling moment of the currents (T i,n) close to zero.
A method for stray light compensation, the method comprising: acquiring a first image with a first imaging device covering a first field-of-view; acquiring a second image with a second imaging device covering a second field-of-view, wherein the second field-of-view is larger than the first field-of-view and wherein the first field-of-view is included in the second field-of-view; and estimating stray light components in pixels of the first image from pixel data of pixels in the second image; characterized in that estimating stray light components in pixels of the first image comprises: filtering the second image by a series of gaussian filters forming a series of filtered second images; and linearly combining the filtered second images forming a stray light image comprising stray light components from pixels in the first image, and in that the method further comprises compensating for stray light in the first image by subtracting the estimated stray light components in pixels of the first image. acquiring a first image with a first imaging device covering a first field-of-view; acquiring a second image with a second imaging device covering a second field-of-view, wherein the second field-of-view is larger than the first field-of-view and wherein the first field-of-view is included in the second field-of-view; and estimating stray light components in pixels of the first image from pixel data of pixels in the second image; characterized in that estimating stray light components in pixels of the first image comprises: filtering the second image by a series of gaussian filters forming a series of filtered second images; and linearly combining the filtered second images forming a stray light image comprising stray light components from pixels in the first image, and filtering the second image by a series of gaussian filters forming a series of filtered second images; and linearly combining the filtered second images forming a stray light image comprising stray light components from pixels in the first image, and in that the method further comprises compensating for stray light in the first image by subtracting the estimated stray light components in pixels of the first image.
Digital decorator machine for the decoration of products, comprising a support frame, at least one conveyor comprising a conveyor belt, for transporting the products to be decorated along an advancement direction, and a plurality of decoration elements, associated with said support frame by means of connection means of removable type, positioned above said conveyor and arranged side-by-side each other along said advancement direction, each of said decoration elements comprising respective print heads provided with ejector nozzles for a fluid to be dispensed on the surface of the products to be decorated, and a support to which said print heads are associated, each of said decoration elements comprising a respective casing within which said support is housed, said support being movable, with respect to said casing, between an upper inactive position and a lower operating position, in which said heads are correctly spaced with respect to the surface of the products to be decorated, characterized in that said support frame defines two abutment portions (5,6) parallel to said advancement direction arranged at the sides of said conveyor belt, each of said decoration elements being connectable to said abutment portions (5,6) in a removable manner.
Method for joining a first joining partner to a second joining partner by means of electric resistance welding, comprising: - joining of a welding insert to the first joining partner by means of friction welding, - generating of an electric current flow via the second joining partner into the welding insert, and, as a result, - joining of the welding insert to the second joining partner by means of the electric resistance welding. - joining of a welding insert to the first joining partner by means of friction welding, - generating of an electric current flow via the second joining partner into the welding insert, and, as a result, - joining of the welding insert to the second joining partner by means of the electric resistance welding.
A copolymer of vinylidene chloride with at least one monounsaturated comonomer and at least one branching monomer having more than one carbon to carbon double bond that is copolymerizable with vinylidene chloride, wherein the amount of branching monomer is sufficient to increase molecular weight over that of a polymer prepared using the same process and same monomers in the same relative amounts except without the branching monomer but not sufficient to result in measurable crosslinking as determined by solubility in tetrahydrofuran at up to 83 °C, the said amount being at least 3 and at most 30 mole percent based on the base polymer, wherein the term "base polymer" means a polymer that would be produced by a similar polymerization without the branching monomer.
An incinerator having a feed grate or a fuel input and a device for continuously supplying cooling fluid of a grate element which is mounted so that it can move linearly and is subject to a continuous reciprocating movement, and is connected to a cooling fluid feed and discharge, characterized in that the cooling fluid is in each case fed to the moving grate element via a straight-line pipe section which is mounted in a stationary manner outside said grate element and on the circumference of which is arranged a collecting/distribution cylinder which is rigidly connected to the moving carrier of the reciprocating grate element and is movably mounted at its two ends, preferably by means of sliding seals (13a, 13b), on said straight-line section of the pipe, wherein the inside wall of the collecting/distribution cylinder together with the outside wall of the straight-line pipe section borders a collecting/distribution chamber which encompasses the latter in the form of a ring and which, on the one hand, is connected by means of at least one discharge opening of the straight-line pipe section to the cooling fluid system and, on the other, by means of at least one line to the cooling pipe system of the moving grate element, and the length of the collecting/distribution cylinder is calculated and matched to the position of the discharge opening such that the latter still lies within the collecting/distribution chamber in the end positions of the reciprocating movement of the moving grate element in such a way that the collecting/distribution cylinder, which is movably mounted on the stationary and straight-line section of the pipe, redirects the cooling liquid flowing out of the pipe into the grate element, independently of the respective position of the latter, while avoiding flexible liquid ducts.
A rechargeable battery (100, 200, 300), comprising: an electrode assembly; and a terminal unit (30, 40) connected to the electrode assembly via a current collector (50, 70, 250, 350), wherein the current collector (50, 70, 250, 350) comprises: a first portion (51, 71, 251, 351) coupled with the electrode assembly; a second portion (52, 72, 252, 352) coupled with the terminal unit (30, 40); and a connection portion (54, 254, 354) between the first portion (51, 71, 251, 351) and the second portion (52, 72, 252, 352) connecting the first portion (51, 71, 251, 351) and the second portion (52, 72, 252, 352), wherein a thickness of the connection portion (54, 254, 354) is greater than a thickness of the first portion (51, 71, 251, 351); wherein the connection portion (54, 254, 354) comprises a body (541, 254a, 354a) and a reinforcement member (542, 254b, 354b); characterised in that the reinforcement member comprises a reinforcement portion that extends from a side of the body and is folded to be coupled with a first surface of the body. an electrode assembly; and a terminal unit (30, 40) connected to the electrode assembly via a current collector (50, 70, 250, 350), wherein the current collector (50, 70, 250, 350) comprises: a first portion (51, 71, 251, 351) coupled with the electrode assembly; a second portion (52, 72, 252, 352) coupled with the terminal unit (30, 40); and a connection portion (54, 254, 354) between the first portion (51, 71, 251, 351) and the second portion (52, 72, 252, 352) connecting the first portion (51, 71, 251, 351) and the second portion (52, 72, 252, 352), wherein a thickness of the connection portion (54, 254, 354) is greater than a thickness of the first portion (51, 71, 251, 351); a first portion (51, 71, 251, 351) coupled with the electrode assembly; a second portion (52, 72, 252, 352) coupled with the terminal unit (30, 40); and a connection portion (54, 254, 354) between the first portion (51, 71, 251, 351) and the second portion (52, 72, 252, 352) connecting the first portion (51, 71, 251, 351) and the second portion (52, 72, 252, 352), wherein a thickness of the connection portion (54, 254, 354) is greater than a thickness of the first portion (51, 71, 251, 351); wherein the connection portion (54, 254, 354) comprises a body (541, 254a, 354a) and a reinforcement member (542, 254b, 354b); characterised in that the reinforcement member comprises a reinforcement portion that extends from a side of the body and is folded to be coupled with a first surface of the body.
Paliperidone controlled release tablet in the form of a multi-layered tablet comprising: a) a matrix core comprising Paliperidone, a hydrophilic swelling polymer and a hydrophobic methacrylic acid copolymer containing low level of quaternary ammonium groups; b) an insoluble coating layer comprising a methacrylic acid copolymer containing high level of quaternary ammonium groups and Paliperidone; c) an enteric coating layer comprising an anionic pH dependent polymer. a) a matrix core comprising Paliperidone, a hydrophilic swelling polymer and a hydrophobic methacrylic acid copolymer containing low level of quaternary ammonium groups; b) an insoluble coating layer comprising a methacrylic acid copolymer containing high level of quaternary ammonium groups and Paliperidone; c) an enteric coating layer comprising an anionic pH dependent polymer.
A hot melt adhesive composition, comprising: 20-95 wt% of a polymer component including an ethylene-based polymer and a propylene-based polymer, the ethylene-based polymer being present in an amount greater than 30 wt%, based on a total weight of the polymer component; and 1-60 wt% of a crystalline block composite comprising: a crystalline ethylene based polymer; a crystalline alpha-olefin based polymer derived from at least one of a C 3-10 α-olefin; and a block copolymer comprising 10-90 wt% of a crystalline ethylene block comprising 90 or more wt% units derived from ethylene and comprising 10-90 wt% of a crystalline alpha-olefin block comprising 90 or more wt% units derived from at least one of a C 3-10 α-olefin; Optionally, from greater than zero to 70 wt% tackifier; and Optionally, from greater than zero to 40 wt% of at least one selected from the group of a wax and an oil; wherein the ethylene-based polymer has a melt index from 200 g/10 min to 3,000 g/10 min, wherein the melt index is measured by ASTM D1238 (Condition E) (190°C/2.16 kg). 20-95 wt% of a polymer component including an ethylene-based polymer and a propylene-based polymer, the ethylene-based polymer being present in an amount greater than 30 wt%, based on a total weight of the polymer component; and 1-60 wt% of a crystalline block composite comprising: a crystalline ethylene based polymer; a crystalline alpha-olefin based polymer derived from at least one of a C 3-10 α-olefin; and a block copolymer comprising 10-90 wt% of a crystalline ethylene block comprising 90 or more wt% units derived from ethylene and comprising 10-90 wt% of a crystalline alpha-olefin block comprising 90 or more wt% units derived from at least one of a C 3-10 α-olefin; a crystalline ethylene based polymer; a crystalline alpha-olefin based polymer derived from at least one of a C 3-10 α-olefin; and a block copolymer comprising 10-90 wt% of a crystalline ethylene block comprising 90 or more wt% units derived from ethylene and comprising 10-90 wt% of a crystalline alpha-olefin block comprising 90 or more wt% units derived from at least one of a C 3-10 α-olefin; Optionally, from greater than zero to 70 wt% tackifier; and Optionally, from greater than zero to 40 wt% of at least one selected from the group of a wax and an oil;
A method of treating a tubular surface defining an axis extending from a first surface end to a second surface end, the method comprising: partially surrounding the tubular surface at a first position with a first set of treating units arranged in a first arcuate array, wherein the treating units are movably attached to first and second frames (60, 62) of a treating module, each treating unit including a plurality of first applicator heads, wherein the first and second frames (60, 62), the treating units and the applicator heads are independently controllable and adjustable to maintain a specified gap between the applicator heads and the tubular surface, and wherein the treating units and applicator heads are continuously adjusted to maintain a normal or orthogonal relationship between the tubular surface and the applicator heads; determining a position of each of the plurality of first applicator heads relative to the tubular surface; moving the first set of treating units from the first position towards a second position; and independently controlling each of the plurality of first applicator heads to selectively apply a first treatment layer as the first set of treating units moves from the first position towards the second position. partially surrounding the tubular surface at a first position with a first set of treating units arranged in a first arcuate array, wherein the treating units are movably attached to first and second frames (60, 62) of a treating module, each treating unit including a plurality of first applicator heads, wherein the first and second frames (60, 62), the treating units and the applicator heads are independently controllable and adjustable to maintain a specified gap between the applicator heads and the tubular surface, and wherein the treating units and applicator heads are continuously adjusted to maintain a normal or orthogonal relationship between the tubular surface and the applicator heads; determining a position of each of the plurality of first applicator heads relative to the tubular surface; moving the first set of treating units from the first position towards a second position; and independently controlling each of the plurality of first applicator heads to selectively apply a first treatment layer as the first set of treating units moves from the first position towards the second position.
Membrane for fluid circulation chamber, comprising a circular base with a fixation flap, wherein it projects upwards the body characterized by the membrane continuously narrowing forming vertical indentations and edges alternated up to its superior end, wherein it has a flap for fixing its opposite end.
A fan containment system (300, 700, 800, 1000) for fitment around an array of radially extending fan blades mounted on a hub in an axial gas turbine engine, the fan containment system comprising: a fan case (350, 1050) having an annular casing element (352, 752, 1052) for encircling an array of fan blades and a hook (354, 554, 754, 854, 954, 1054) projecting in a generally radially inward direction from the annular casing element and positioned axially forward of an array of fan blades when the fan containment system is fitted around said fan blades; and an annular fan track liner (356, 456, 756, 1056) positioned substantially coaxial to the annular casing element; characterised in that the fan containment system further comprises a clamping arrangement (370, 770, 870, 970, 1070) connecting the fan track liner to the hook, wherein the clamping arrangement comprises a first clamping member (374, 474, 774, 874, 974, 1074) positioned radially outward of the hook and a second clamping member (372, 472, 572, 672, 772, 872, 972, 1072) positioned radially inward of the hook, the hook being clamped between the first clamping member and the second clamping member, wherein the clamping arrangement is configured such that under the condition that a fan blade impacts the fan track liner, the clamping arrangement substantially releases the connection between the hook and a portion of the fan track liner so that at least a portion of the fan track liner can move towards the annular casing element so as to encourage the released fan blade to impact the hook. a fan case (350, 1050) having an annular casing element (352, 752, 1052) for encircling an array of fan blades and a hook (354, 554, 754, 854, 954, 1054) projecting in a generally radially inward direction from the annular casing element and positioned axially forward of an array of fan blades when the fan containment system is fitted around said fan blades; and an annular fan track liner (356, 456, 756, 1056) positioned substantially coaxial to the annular casing element; characterised in that the fan containment system further comprises a clamping arrangement (370, 770, 870, 970, 1070) connecting the fan track liner to the hook, wherein the clamping arrangement comprises a first clamping member (374, 474, 774, 874, 974, 1074) positioned radially outward of the hook and a second clamping member (372, 472, 572, 672, 772, 872, 972, 1072) positioned radially inward of the hook, the hook being clamped between the first clamping member and the second clamping member, wherein the clamping arrangement is configured such that under the condition that a fan blade impacts the fan track liner, the clamping arrangement substantially releases the connection between the hook and a portion of the fan track liner so that at least a portion of the fan track liner can move towards the annular casing element so as to encourage the released fan blade to impact the hook.