mhurhangee/ep-ind-claims huggingface dataset:
A honeycomb structure (100, 200, 300, 400) comprising: a tubular honeycomb structure part having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid, and an outer peripheral wall positioned on an outermost periphery; and a pair of electrode parts arranged on a side surface of the honeycomb structure part, wherein an electrical resistivity of the honeycomb structure part is from 1 to 200 Ωcm, each of the pair of electrode parts is formed into a band-like shape extending in a direction in which the cells of the honeycomb structure part extend, in a cross section perpendicular to the cell extending direction, the one electrode part in the pair of electrode parts is disposed opposite to the other electrode part in the pair of electrode parts via the center of the honeycomb structure part, and a distance (D1, D2) from one end portion (4a, 4b) of the honeycomb structure part in the cell extending direction to an end portion (21a, 21b) of the electrode part which faces the one end portion (4a, 4b) of the honeycomb structure part in the cell extending direction is from 1 to 10% of a length of the honeycomb structure part in the cell extending direction; characterized in that an outer peripheral shape of the band-like electrode part is a rectangular shape including at least one curved corner portion, or a rectangular shape including at least one linearly chamfered corner portion. a tubular honeycomb structure part having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid, and an outer peripheral wall positioned on an outermost periphery; and a pair of electrode parts arranged on a side surface of the honeycomb structure part, wherein an electrical resistivity of the honeycomb structure part is from 1 to 200 Ωcm, each of the pair of electrode parts is formed into a band-like shape extending in a direction in which the cells of the honeycomb structure part extend, in a cross section perpendicular to the cell extending direction, the one electrode part in the pair of electrode parts is disposed opposite to the other electrode part in the pair of electrode parts via the center of the honeycomb structure part, and a distance (D1, D2) from one end portion (4a, 4b) of the honeycomb structure part in the cell extending direction to an end portion (21a, 21b) of the electrode part which faces the one end portion (4a, 4b) of the honeycomb structure part in the cell extending direction is from 1 to 10% of a length of the honeycomb structure part in the cell extending direction; characterized in that an outer peripheral shape of the band-like electrode part is a rectangular shape including at least one curved corner portion, or a rectangular shape including at least one linearly chamfered corner portion.
Magnetically coupled pump with - a pump housing, - a housing cover which closes the pump housing, and - a split can which has a metallic inner can and a ceramic outer can on which a flange is formed, characterised in that the inner can is welded to the housing cover and the outer can is braced against the housing cover via a clamping ring on the flange. - a pump housing, - a housing cover which closes the pump housing, and - a split can which has a metallic inner can and a ceramic outer can on which a flange is formed,
A device configured as a woven, self-expanding stent having one or more strands and being configured for insertion into an anatomical structure, the device comprising: a coupling structure secured to two different strand end portions (12, 14) that are either substantially aligned with each other or which are alternatively placed in a side-by-side relationship with each other; where the two different strand end portions (12, 14) include nickel and titanium, and the coupling structure is not a strand of the device and is positioned beneath a strand of the device that crosses over the coupling structure. a coupling structure secured to two different strand end portions (12, 14) that are either substantially aligned with each other or which are alternatively placed in a side-by-side relationship with each other; where the two different strand end portions (12, 14) include nickel and titanium, and the coupling structure is not a strand of the device and is positioned beneath a strand of the device that crosses over the coupling structure.
A turbomachine fuel injector system, comprising: an air distributor configured to be mounted to and contained within a casing and to provide air to mix with a fuel from one or more fuel distribution systems; an adapter plate; and a fuel manifold configured to be mounted indirectly to the casing such that the fuel manifold is contained within the casing but is independent such that the fuel manifold does not touch or directly mount to either an interior of the casing or the air distributor within the casing to prevent or reduce thermal transfer from the air distributor to the fuel manifold, wherein the fuel manifold is mounted to the adapter plate that is external to the casing, wherein the adapter plate is to be mounted to the casing, wherein the fuel manifold includes one or more fuel distribution systems, configured to effuse fuel in a wide area, and wherein each fuel distribution system is connected to at least one branch of the fuel manifold, wherein the at least one branch extends from a base portion of the fuel manifold, characterised in that the at least one branch extends from the base portion of the fuel manifold through a first opening in the air distributor, traverses an axial distance, and then extends back through a second opening of the air distributor to connect to the fuel distribution and in that the fuel manifold does not touch or directly mount to the air distributor within the casing to prevent or reduce thermal transfer from the air distributor to the fuel manifold. an air distributor configured to be mounted to and contained within a casing and to provide air to mix with a fuel from one or more fuel distribution systems; an adapter plate; and a fuel manifold configured to be mounted indirectly to the casing such that the fuel manifold is contained within the casing but is independent such that the fuel manifold does not touch or directly mount to either an interior of the casing or the air distributor within the casing to prevent or reduce thermal transfer from the air distributor to the fuel manifold, wherein the fuel manifold is mounted to the adapter plate that is external to the casing, wherein the adapter plate is to be mounted to the casing, wherein the fuel manifold includes one or more fuel distribution systems, configured to effuse fuel in a wide area, and wherein each fuel distribution system is connected to at least one branch of the fuel manifold, wherein the at least one branch extends from a base portion of the fuel manifold, characterised in that the at least one branch extends from the base portion of the fuel manifold through a first opening in the air distributor, traverses an axial distance, and then extends back through a second opening of the air distributor to connect to the fuel distribution and in that the fuel manifold does not touch or directly mount to the air distributor within the casing to prevent or reduce thermal transfer from the air distributor to the fuel manifold.
A jelly roll-type electrode assembly manufactured by winding a negative electrode, a separator, and a positive electrode together from ends thereof, the electrode assembly comprising: the negative electrode which is manufactured by applying a negative electrode active material to a surface of a negative electrode collector and which has, formed in each of both ends thereof, a negative electrode collector-exposed portion (31a, 31b) that is not coated with the negative electrode active material to expose the surface of the negative electrode collector, and the positive electrode is manufactured by applying a positive electrode active material to a surface of a positive electrode collector and has, formed therein, a positive electrode collector-exposed portion that is not coated with the positive electrode active material to expose the surface of the positive electrode collector, characterized in that the negative electrode collector-exposed portion (31a, 31b) having a larger area among the negative electrode collector-exposed portions (31a, 31b) is disposed in a central region where the winding starts, a negative electrode tab is coupled to the negative electrode collector-exposed portion (31a, 31b) disposed in the central region where the winding starts, and the positive electrode collector-exposed portion is disposed between two regions of the positive electrode collector coated with the positive electrode active material. the negative electrode which is manufactured by applying a negative electrode active material to a surface of a negative electrode collector and which has, formed in each of both ends thereof, a negative electrode collector-exposed portion (31a, 31b) that is not coated with the negative electrode active material to expose the surface of the negative electrode collector, and the positive electrode is manufactured by applying a positive electrode active material to a surface of a positive electrode collector and has, formed therein, a positive electrode collector-exposed portion that is not coated with the positive electrode active material to expose the surface of the positive electrode collector, characterized in that the negative electrode collector-exposed portion (31a, 31b) having a larger area among the negative electrode collector-exposed portions (31a, 31b) is disposed in a central region where the winding starts, a negative electrode tab is coupled to the negative electrode collector-exposed portion (31a, 31b) disposed in the central region where the winding starts, and the positive electrode collector-exposed portion is disposed between two regions of the positive electrode collector coated with the positive electrode active material.
A method of producing a high-strength aluminum alloy fin material for heat exchangers having a tensile strength before brazing of 240 MPa or less and a tensile strength after brazing of 150 MPa or more, characterized by pouring a melt consisting of 0.8-1.4 wt% of Si, 0.15-0.7 wt% of Fe, 1.5-3.0 wt% of Mn and 0.5-2.5 wt% of Zn, further having Mg as an impurity limited to 0.05 wt% or less and the remainder consisting of the inevitable impurities and Al; continuously casting thin slabs that are 5-10 mm thick by means of a twin belt casting machine and winding them into rolls; carrying out a first cold rolling to a sheet thickness of 0.05-0.4 mm; performing an inter anneal at a temperature of 350-500 deg. C; and carrying out a second cold rolling at a cold reduction rate of 10-50% to a final sheet thickness of 40-200 micro-meter.
A catheter (1, 2, 3, 4) comprising: an inner layer, a coil body (30, 30a, 30b) configured such that an element wire (20, 20a, 20b) is wound around on an outer periphery of the inner layer, and an outer layer (40, 40a, 40b) covering an outer periphery of the coil body (30, 30a, 30b), wherein the catheter (1, 2, 3, 4) has a rear end portion (50, 50a, 50b, 50c) having gaps (25, 25a) between axially adjacent portions of the element wire (20, 20a, 20b) where the inner layer is joined to the outer layer (40, 40a, 40b) through the gaps (25, 25a) between the axially adjacent portions of the element wire (20, 20a, 20b); and a distal end portion (60, 60a, 60b, 60c) where the axially adjacent portions of the element wire (20, 20a, 20b) come into contact with each other, the distal end portion (60, 60a, 60b, 60c) being located at a distal end side relative to the rear end portion (50, 50a, 50b, 50c), characterised in that a cavity (35, 35a, 35b) is formed between the inner layer and the coil body (30, 30a, 30b) in the distal end portion (60, 60a, 60b, 60c). an inner layer, a coil body (30, 30a, 30b) configured such that an element wire (20, 20a, 20b) is wound around on an outer periphery of the inner layer, and an outer layer (40, 40a, 40b) covering an outer periphery of the coil body (30, 30a, 30b), wherein the catheter (1, 2, 3, 4) has a rear end portion (50, 50a, 50b, 50c) having gaps (25, 25a) between axially adjacent portions of the element wire (20, 20a, 20b) where the inner layer is joined to the outer layer (40, 40a, 40b) through the gaps (25, 25a) between the axially adjacent portions of the element wire (20, 20a, 20b); and a distal end portion (60, 60a, 60b, 60c) where the axially adjacent portions of the element wire (20, 20a, 20b) come into contact with each other, the distal end portion (60, 60a, 60b, 60c) being located at a distal end side relative to the rear end portion (50, 50a, 50b, 50c), characterised in that a cavity (35, 35a, 35b) is formed between the inner layer and the coil body (30, 30a, 30b) in the distal end portion (60, 60a, 60b, 60c).
A system for applying decorations to substrates, comprising: a continuous web including a plurality of decorations (18, 1604) provided on a first side of the web, each decoration having an adhesive exposed on a surface of the decoration facing outwardly from the first side of the web; an application station at which the decorations are applied to substrates; a web path along which the web travels to transport the decorations to the application station; a web control system including at least one web controller, wherein the web control system is configured to stop movement of the web when a decoration is positioned at the application station; and a substrate transport configured to move a substrate through the application station while the web is stopped to move the substrate relative to the decoration positioned at the application station and apply the decoration to the substrate. an application station at which the decorations are applied to substrates; a web path along which the web travels to transport the decorations to the application station; a web control system including at least one web controller, wherein the web control system is configured to stop movement of the web when a decoration is positioned at the application station; and a substrate transport configured to move a substrate through the application station while the web is stopped to move the substrate relative to the decoration positioned at the application station and apply the decoration to the substrate.
A method for plasma dicing a substrate, the method comprising: providing a process chamber having a wall; providing a plasma source adjacent to the wall of the process chamber; providing a work piece support within the process chamber; placing a work piece onto the work piece support, said work piece having a support film, a frame and the substrate, the support film of the work piece having some tension; clamping the work piece to the work piece support; placing the support film under additional tension by applying a force to the frame, said additional tension to the support film being applied before the clamping step; generating a plasma using the plasma source; and etching the work piece using the generated plasma. providing a process chamber having a wall; providing a plasma source adjacent to the wall of the process chamber; providing a work piece support within the process chamber; placing a work piece onto the work piece support, said work piece having a support film, a frame and the substrate, the support film of the work piece having some tension; clamping the work piece to the work piece support; placing the support film under additional tension by applying a force to the frame, said additional tension to the support film being applied before the clamping step; generating a plasma using the plasma source; and etching the work piece using the generated plasma.
Motor-vehicle disc-brake lining which is mountable in a holder in a rotationally fixed and axially displaceable manner in relation to an imaginary wheel axis of rotation, comprising friction material which is fixed on the front side of a back plate, comprising a friction-lining restoring spring which is fixed on the rear side of the back plate, wherein the friction-lining restoring spring has a base and a connected restoring-spring bow, which is bent into a spatial curve and incorporates elasticity, such that the restoring spring bow is suitable and intended for being seated elastically prestressed on a counter-bearing of the holder during braking operation such that the motor-vehicle disc-brake lining, as a result of restoring-spring force or spring prestress, in principle springs back in an axial direction from a brake actuation position, the friction-lining restoring spring has a spring characteristic curve additively made up of multiple portions (A, B, C, D) that comprises multiple quasi-linear straight portions A, C, D and, incorporated in-between, at least one curved transition portion B, in each case comprising mutually differently defined gradient angles α,β,γ,δ, and wherein, among the portions, there is at least one part or portion B, C, D which is configured for at least partial plastic deformability and which, due to its predetermined and defined plastic deformation behaviour, serves to automatically allow demand-oriented spring-back on the basis of wear compensation (friction lining + brake disc), characterized in that the restoring-spring bow of the friction-lining restoring spring, directed radially inwards with respect to a radial direction R with tangentially extending bending axis H1, is bent in a bow-shaped manner in such a way that the counter-bearing is assigned to the restoring-spring bow so as to be radially lower than the base.
A spatial power combiner (10; 10'; 10") comprising: - several inputs (11a, 11b, 11c,...; 11a', 11b', 11c',...; 11a", 11b", 11c",...) to which are respectively linked a set of transmission lines (a, b, c,...; a', b', c',... a", b",c",...), - an output (12; 12'; 12"), - a body (13; 13'; 13") forming a cavity having a longitudinal axis, the set of transmission lines (a, b, c,...; a', b', c',... a", b", c",...) passing longitudinally through said cavity and being disposed around an absorbent member (15; 15'; 15") extending longitudinally in said cavity, and - an impedance preadaptation module (102; 102') disposed at the input of the spatial power combiner (10; 10'; 10"), said impedance preadaptation module (102; 102') comprising first parts of said transmission lines (aa, ba, ca...; aa', ba', ca'...) of the set of transmission lines, the spatial power combiner (10; 10'; 10") being characterized in that: - the first parts of the transmission lines (aa, ba, ca...; aa', ba', ca'...) extend in radial direction relative with the longitudinal axis of the cavity, - the impedance preadaptation module comprises a support on which are disposed the first parts of the transmission lines (aa, ba, ca...; aa', ba', ca'...), said support comprising a set of hollows, each first part of the transmission lines of the set of transmission lines being respectively disposed on a hollow of the set of hollows. - several inputs (11a, 11b, 11c,...; 11a', 11b', 11c',...; 11a", 11b", 11c",...) to which are respectively linked a set of transmission lines (a, b, c,...; a', b', c',... a", b",c",...), - an output (12; 12'; 12"), - a body (13; 13'; 13") forming a cavity having a longitudinal axis, the set of transmission lines (a, b, c,...; a', b', c',... a", b", c",...) passing longitudinally through said cavity and being disposed around an absorbent member (15; 15'; 15") extending longitudinally in said cavity, and - an impedance preadaptation module (102; 102') disposed at the input of the spatial power combiner (10; 10'; 10"), said impedance preadaptation module (102; 102') comprising first parts of said transmission lines (aa, ba, ca...; aa', ba', ca'...) of the set of transmission lines, - the first parts of the transmission lines (aa, ba, ca...; aa', ba', ca'...) extend in radial direction relative with the longitudinal axis of the cavity, - the impedance preadaptation module comprises a support on which are disposed the first parts of the transmission lines (aa, ba, ca...; aa', ba', ca'...), said support comprising a set of hollows, each first part of the transmission lines of the set of transmission lines being respectively disposed on a hollow of the set of hollows.
A method for determining a tissue having renal cell carcinoma having poor prognosis, comprising: subjecting sample DNA to ion exchange chromatography, wherein the sample DNA is obtained by treating target genomic DNA prepared from a renal tissue of a subject with bisulfite, followed by PCR amplification, wherein the subject is a renal cell carcinoma patient or a patient whose renal cell carcinoma has been treated by surgical operation, and who is in need of determination of the prognosis of the renal cell carcinoma; calculating a derivative value of a detection signal of the chromatography; and determining the renal tissue as being a tissue having renal cell carcinoma having poor prognosis when the derivative value calculated in the step has two or more maximums, wherein the target genomic DNA comprises a CpG island in at least one gene selected from the group consisting of FAM150A, GRM6, ZNF540, ZFP42, ZNF154, RIMS4, PCDHAC1, KHDRBS2, ASCL2, KCNQ1, PRAC, WNT3A, TRH, FAM78A, ZNF671, SLC13A5, and NKX6-2. subjecting sample DNA to ion exchange chromatography, wherein the sample DNA is obtained by treating target genomic DNA prepared from a renal tissue of a subject with bisulfite, followed by PCR amplification, wherein the subject is a renal cell carcinoma patient or a patient whose renal cell carcinoma has been treated by surgical operation, and who is in need of determination of the prognosis of the renal cell carcinoma; calculating a derivative value of a detection signal of the chromatography; and determining the renal tissue as being a tissue having renal cell carcinoma having poor prognosis when the derivative value calculated in the step has two or more maximums,