mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (10;200), comprising: transmission line sections (14,16,18,20,22) arranged in series and configured to create time delay signals of an input waveform signal; impedance components (24,26,28,30,32), positioned in lines tapped off certain ends of the transmission line sections whereby the time delay signals of each transmission line section are combined via the impedance components to form an output waveform signal of a predefined form; characterised in that at least one of the transmission line sections has a length different from at least one other of the transmission line sections (14,16,18,20,22). transmission line sections (14,16,18,20,22) arranged in series and configured to create time delay signals of an input waveform signal;
A rotating sprinkler comprising a housing and a movable core having retracted and extended states relative to the housing along a vertical axis X of the sprinkler, the core comprising a cover, an impact member and a stream deflector; wherein in the extended state both the cover and the impact member can pivot between pivoted and non-pivoted states about a hinge defining an axis H generally orthogonal to axis X and the stream deflector is fixed against rotation about the hinge, and characterized in that the impact member comprises a general S-shaped liquid path. the core comprising a cover, an impact member and a stream deflector; wherein in the extended state both the cover and the impact member can pivot between pivoted and non-pivoted states about a hinge defining an axis H generally orthogonal to axis X and the stream deflector is fixed against rotation about the hinge, and characterized in that the impact member comprises a general S-shaped liquid path.
A thermally reversible admixture comprising (a) an ionically crosslinked polymer matrix comprising at least one (meth)acrylic polymer, a first mole fraction of an acid functional polymer, a second mole fraction of a moiety capable of forming an ionic crosslink with the acid functional polymer, wherein the first mole fraction and the second mole fraction are based on the total number of moles of repeat units in the polymer matrix; and (b) 2 to 50 weight percent microspheres. (a) an ionically crosslinked polymer matrix comprising at least one (meth)acrylic polymer, a first mole fraction of an acid functional polymer, a second mole fraction of a moiety capable of forming an ionic crosslink with the acid functional polymer, wherein the first mole fraction and the second mole fraction are based on the total number of moles of repeat units in the polymer matrix; and at least one (meth)acrylic polymer, a first mole fraction of an acid functional polymer, a second mole fraction of a moiety capable of forming an ionic crosslink with the acid functional polymer, wherein the first mole fraction and the second mole fraction are based on the total number of moles of repeat units in the polymer matrix; and (b) 2 to 50 weight percent microspheres.
A method of manufacturing a silicon monocrystal by FZ method, comprising: using a P-type or N-type silicon crystal having been pulled up by CZ method as a raw material; supplying impurities whose conductivity type is the same as that of the raw material by a gas doping method; recrystallizing the raw material by the FZ method for obtaining a product monocrystal, acquiring in advance resistivity distribution along a longitudinal direction of the raw material and target resistivity for the product-monocrystal; and calculating a doping-gas flow rate used in the gas doping method based on the acquired resistivity distribution of the raw material and the acquired target resistivity of the product-monocrystal, wherein a difference Cs-Cp(x) between impurity concentration Cs of the product-monocrystal and impurity concentration Cp(x) corresponding to a material length position (x) is obtained, the impurity concentration Cs being calculated based on the acquired target resistivity of the product monocrystal, the impurity concentration Cp(x) being calculated based on the acquired resistivity distribution of the raw material, the difference Cs-Cp(x) is set as impurity concentration Cg(x) at which the impurities are supplied by the gas doping method in accordance with the material length position (x), and the doping-gas flow rate f(x) is calculated through a formula as follows, where: "Ds" represents diameter of the product-monocrystal; "V c" represents crystal growth speed; "n" represents doping-gas concentration; "a" represents gas absorptivity coefficient at which gas is absorbed into the product-monocrystal; and "A" is a constant. f x = Cg x × π Ds / 2 2 × Vc A × nα using a P-type or N-type silicon crystal having been pulled up by CZ method as a raw material; supplying impurities whose conductivity type is the same as that of the raw material by a gas doping method; recrystallizing the raw material by the FZ method for obtaining a product monocrystal, acquiring in advance resistivity distribution along a longitudinal direction of the raw material and target resistivity for the product-monocrystal; and calculating a doping-gas flow rate used in the gas doping method based on the acquired resistivity distribution of the raw material and the acquired target resistivity of the product-monocrystal, wherein a difference Cs-Cp(x) between impurity concentration Cs of the product-monocrystal and impurity concentration Cp(x) corresponding to a material length position (x) is obtained, the impurity concentration Cs being calculated based on the acquired target resistivity of the product monocrystal, the impurity concentration Cp(x) being calculated based on the acquired resistivity distribution of the raw material,
A food package (70, 100) comprising: a heat sealable, biaxially oriented food packaging film comprising: a humidity-dependent permeable film comprising a nylon film, a polylactic acid film, or a reconstituted cellulose film; and an outer coating comprising a coating material on at least one surface of the humidity-dependent permeable film, the coating material being selected from a nanoclay dispersed in a poly-vinylidene chloride (PVdC) polymer, a stretchable urethane polymer, a stretchable acrylic polymer, or a combination of stretchable urethane polymer and stretchable acrylic polymer; and wherein the heat sealable food packaging film is heat sealed to form the food package (70, 100). a heat sealable, biaxially oriented food packaging film comprising: a humidity-dependent permeable film comprising a nylon film, a polylactic acid film, or a reconstituted cellulose film; and an outer coating comprising a coating material on at least one surface of the humidity-dependent permeable film, the coating material being selected from a nanoclay dispersed in a poly-vinylidene chloride (PVdC) polymer, a stretchable urethane polymer, a stretchable acrylic polymer, or a combination of stretchable urethane polymer and stretchable acrylic polymer; and a humidity-dependent permeable film comprising a nylon film, a polylactic acid film, or a reconstituted cellulose film; and an outer coating comprising a coating material on at least one surface of the humidity-dependent permeable film, the coating material being selected from a nanoclay dispersed in a poly-vinylidene chloride (PVdC) polymer, a stretchable urethane polymer, a stretchable acrylic polymer, or a combination of stretchable urethane polymer and stretchable acrylic polymer; and wherein the heat sealable food packaging film is heat sealed to form the food package (70, 100).
A turbocharger, comprising: a turbine housing having an outer surface and an inner surface defining an exhaust passage; an exhaust inlet port in fluid communication with the exhaust passage; and a tucked exhaust inlet flange surrounding the exhaust inlet port, the exhaust inlet flange including a plurality of bolt holes arranged in a trapezoid-shaped bolt pattern, wherein the tucked exhaust inlet flange has a planar end face defining a first plane and the turbine housing circumscribes a central axis, and wherein a shortest distance between the first plane and the central axis along a first line is less than, or equal to, a radius of the turbine housing along the first line wherein the tucked exhaust inlet flange comprises an outer side having a first bolt hole centered on a first axis and a second bolt hole centered on a second axis and an inner side having third bolt hole centered on a third axis and a fourth bolt hole centered on a fourth axis, wherein the third axis is a first distance from the fourth axis and the first axis is a second distance from the second axis, and wherein the first distance is greater than the second distance, and wherein the exhaust inlet port includes a first linear portion adjacent the inner side and a second linear portion, parallel to the first linear portion, and adjacent the outer side, wherein the first linear portion has a first length and the second linear portion has a second length that is less than the first length an exhaust inlet port in fluid communication with the exhaust passage; and a tucked exhaust inlet flange surrounding the exhaust inlet port, the exhaust inlet flange including a plurality of bolt holes arranged in a trapezoid-shaped bolt pattern, wherein the tucked exhaust inlet flange has a planar end face defining a first plane and the turbine housing circumscribes a central axis, and wherein a shortest distance between the first plane and the central axis along a first line is less than, or equal to, a radius of the turbine housing along the first line wherein the tucked exhaust inlet flange comprises an outer side having a first bolt hole centered on a first axis and a second bolt hole centered on a second axis and an inner side having third bolt hole centered on a third axis and a fourth bolt hole centered on a fourth axis, wherein the third axis is a first distance from the fourth axis and the first axis is a second distance from the second axis, and wherein the first distance is greater than the second distance, and wherein the exhaust inlet port includes a first linear portion adjacent the inner side and a second linear portion, parallel to the first linear portion, and adjacent the outer side, wherein the first linear portion has a first length and the second linear portion has a second length that is less than the first length
Air input system, intended for a front face of a motor vehicle, including a grid of air input forming a front part of the system by which a flow of air from the outside enters perpendicular to the grid and a wall of at least a partial obstruction of the air flow extending downstream of at least one portion of the grid 2), the system having upper and lower portions in reference to the vertical-positioned obturation wall, the wall having a series of sloping portions of wall relative to the vertical of an angle of inclination sufficient for light rays from the front of the grid and reflecting on the wall to be redirected to an area located in front of and below the lower portion of the system, a system in which, on the one hand, the grid has parallel bars spaced from each other in the same interval (d), those bars extending perpendicular to the flow of air entering the system, and characterized on the other hand at the level of each bar taken in the direction of the air flow, the obturation wall has an elbow followed by a start end of a sloped portion of the wall having the sloping angle, the sloping portion extends by a end end to the next elbow.
A compound for use in treating or reducing pain associated with a gastrointestinal tract disorder; treating or reducing visceral hypersensitivity associated with a gastrointestinal tract disorder; treating or reducing inflammation of the gastrointestinal tract; reducing gastrointestinal transit time of a patient in need thereof having the formula: Core-(-L-NHE) n wherein: n is 2; NHE has the structure: wherein: R 1 is H or -SO 2 -NR 7 R 8; R 2 is selected from H, -NR 7 R 8, -SO 2 -NR 7 R 8 and -NR 7 F 8, provided at least one of R 1 or R 2 provides a bond linking the NHE moiety to L; R 3 is hydrogen; R 7 is hydrogen; R 8 is a bond linking to L; L is a polyalkylene glycol linker; and Core has the following structure: wherein: X is selected from the group consisting of a bond, -O-, -NH-, NHC(=O)-, -NHC(=O)NH- and -NHSO 2 -; and Y is selected from the group consisting of a bond, optionally substituted C 1-6 alkylene, optionally substituted phenyl, pyridinyl, a polyethylene glycol linker and -(CH 2) 1-6 O(CH 2) 1-6, and wherein the compound inhibits NHE-mediated antiport of sodium ions and hydrogen ions. n is 2; NHE has the structure: wherein: R 1 is H or -SO 2 -NR 7 R 8; R 2 is selected from H, -NR 7 R 8, -SO 2 -NR 7 R 8 and -NR 7 F 8, provided at least one of R 1 or R 2 provides a bond linking the NHE moiety to L; R 3 is hydrogen; R 7 is hydrogen; R 8 is a bond linking to L; L is a polyalkylene glycol linker; and Core has the following structure: wherein: X is selected from the group consisting of a bond, -O-, -NH-, NHC(=O)-, -NHC(=O)NH- and -NHSO 2 -; and Y is selected from the group consisting of a bond, optionally substituted C 1-6 alkylene, optionally substituted phenyl, pyridinyl, a polyethylene glycol linker and -(CH 2) 1-6 O(CH 2) 1-6, and wherein the compound inhibits NHE-mediated antiport of sodium ions and hydrogen ions. R 1 is H or -SO 2 -NR 7 R 8; R 2 is selected from H, -NR 7 R 8, -SO 2 -NR 7 R 8 and -NR 7 F 8, provided at least one of R 1 or R 2 provides a bond linking the NHE moiety to L; R 3 is hydrogen; R 7 is hydrogen; R 8 is a bond linking to L; L is a polyalkylene glycol linker; and Core has the following structure: wherein: X is selected from the group consisting of a bond, -O-, -NH-, NHC(=O)-, -NHC(=O)NH- and -NHSO 2 -; and Y is selected from the group consisting of a bond, optionally substituted C 1-6 alkylene, optionally substituted phenyl, pyridinyl, a polyethylene glycol linker and -(CH 2) 1-6 O(CH 2) 1-6, and wherein the compound inhibits NHE-mediated antiport of sodium ions and hydrogen ions. X is selected from the group consisting of a bond, -O-, -NH-, NHC(=O)-, -NHC(=O)NH- and -NHSO 2 -; and Y is selected from the group consisting of a bond, optionally substituted C 1-6 alkylene, optionally substituted phenyl, pyridinyl, a polyethylene glycol linker and -(CH 2) 1-6 O(CH 2) 1-6, and wherein the compound inhibits NHE-mediated antiport of sodium ions and hydrogen ions.
A mold comprising a movable side mold, a fixed side mold and a sprue bush, the sprue bush comprising a flow path for a cooling fluid of the fixed side mold, wherein inlet and outlet ports (11; 12) of the flow path for the cooling fluid are in a direct connection with a cooling tube, respectively, the cooling tube being located along a space portion provided in the fixed side mold, wherein the space portion is in a form of an opening provided in at least one of opposed surfaces of the fixed side mold, characterized in that the space portion includes a region which is in a form of a non-linear extension, and wherein at least one of the cooling tube directly connected with the inlet port and the cooling tube directly connected with the outlet port has a flexibility, and the cooling tube having the flexibility is disposed along the region in the form of a non-linear extension.
A method for digitizing a two-dimensional ECG chart, comprising: scanning the ECG chart, said ECG chart including an ECG wave and a background grid, the ECG wave appearing on said background grid, the grid having generally horizontal and generally vertical grid lines; detecting the background grid; determining the number of pixels between grid lines of said background grid; and scaling a vertical axis of the scanned ECG chart in units of volts per pixel and scaling a horizontal axis of the scanned ECG chart in units of time per pixel. scanning the ECG chart, said ECG chart including an ECG wave and a background grid, the ECG wave appearing on said background grid, the grid having generally horizontal and generally vertical grid lines; detecting the background grid; determining the number of pixels between grid lines of said background grid; and scaling a vertical axis of the scanned ECG chart in units of volts per pixel and scaling a horizontal axis of the scanned ECG chart in units of time per pixel.
A pyrotechnic charge comprising an explosion generator (10, 20, 50) and an explosive (12, 22, 42, 52) that has an outer surface divided into n segments (S1, S2,..Si,...Sn), each segment comprising kq multiple ignition points (p11, p12,... pxy,...pkq) for the explosive, k and q being integer numbers greater than 1, characterised in that the kq multiple ignition points for the explosive are linked by ignition lines (Cda, Cdb, Iga1, Igb1, Iga2, Igb2, Iga3, Igb3) forming, for each segment (S1, S2,...Si,...Sn), at least two interleaved partial networks (Ra1, Rb1,..Rai, Rbi...Ran, Rbn) for the synchronous ignition of the kq multiple ignition points, each of the partial synchronous ignition networks being linked to a respective partial network detonator (Dta1, Dtb1,...Dtai, Dtbi...Dtan, Dtbn), the kq multiple ignition points (p11, p12,...pxy,...pkq) of each of the segments being distributed over the surface of the explosive on k rows (LI, L2,..Lx,...Lk) and q columns (C1, C2,...Cy,...Cq), x being the number of row Lx and y being the number of column Cy, and according to a distribution pitch Pp, a partial network (Ra) comprising the ignition point p11, of row L1 and column C1, linked by an elementary ignition line (Cda) to the ignition point p22, of column C2 and row L2, to form an elementary ignition pattern (Ma) of the partial network (Ra), this elementary ignition pattern of the partial network (Ra) being repeated at one ignition point out of two along rows L1 to Lk and along columns C1 to Cq, another partial network (Rb) comprising the ignition point p12, of row L1 and column C2, linked by another elementary ignition line (Cdb) to the ignition point p21, of row L2 and column C1, to form another elementary ignition pattern (Mb) of the other partial network (Rb), this other elementary ignition pattern of the other partial network (Rb) being repeated at one ignition point out of two along the rows (LI to Lk) and along the columns (C1 to Cq), and the centres (Cta, Ctb) of the respective elementary ignition lines (Cda, Cdb) being linked by other ignition lines (lga1, lgb1, Iga2, lgb2, Iga3, lgb3) configured so that the distances covered by the detonation waves of the detonators (Dtai, Dtbi), of the segment in question, applied to each respective central distribution point (Pca, Pcb) of the partial networks, until the multiple ignition points of the sector are identical, producing synchronous activation of all of said multiple ignition points of the two partial networks (Ra, Rb).
Measuring device for measuring mechanical forces and/or material elongation in a component, comprising: - A holding body with at least one sensor element; - a first and a second cone-shaped supporting element (4, 5); - a clamping shell device consisting of at least one radially expandable first clamping shell element and a radially expandable second clamping shell element, whereby the two clamping shell elements (6a; 6b) are located adjacent to one another and spaced apart from one another by a gap and whereby each has cone-shaped surfaces (6d; 6e) on the inside which can be brought into sliding engagement with at least one of the cone-shaped supporting elements (4, 5) and can be expanded radially by changing the axial distance between the two supporting elements (4, 5); - whereby the holding body is located between the first and second clamping shell elements (6a, 6b) and can be connected by means of the supporting elements (4; 5); characterized by at least one blocking element which can be attached to at least one of the two supporting elements (4; 5) and whereby one section of the blocking element can be inserted into the gap between the first clamping shell element and the second clamping shell element of the clamping shell device. - A holding body with at least one sensor element; - a first and a second cone-shaped supporting element (4, 5); - a clamping shell device consisting of at least one radially expandable first clamping shell element and a radially expandable second clamping shell element, whereby the two clamping shell elements (6a; 6b) are located adjacent to one another and spaced apart from one another by a gap and whereby each has cone-shaped surfaces (6d; 6e) on the inside which can be brought into sliding engagement with at least one of the cone-shaped supporting elements (4, 5) and can be expanded radially by changing the axial distance between the two supporting elements (4, 5); - whereby the holding body is located between the first and second clamping shell elements (6a, 6b) and can be connected by means of the supporting elements (4; 5);
A system for hyperpolarizing a substance (82, 84) comprising: a cryostat configured to generate radicals within the substance by exposing the substance to electromagnetic radiation; a polarizer configured to hyperpolarize the substance via the radicals, and to quench the radicals within the substance by adjusting a temperature of the substance to greater than or equal to a melting point of the substance; a container adapted to contain the substance while the container is at least partially submerged in a cryogen disposed within the polarizer, wherein the container comprises at least two ports (242, 240) configured to allow a temperature adjusting fluid to circulate through an interior of the container and thermally communicate with the substance; and an isolation chamber arranged to keep the container at a distance from the cryogen, the isolation chamber configured to receive the container after the substance has been quenched, and to facilitate melting of the substance in preparation of delivery of the substance into a patient, wherein the system is configured to circulate a temperature adjusting fluid through the interior of the container when the container is within the isolation chamber. a cryostat configured to generate radicals within the substance by exposing the substance to electromagnetic radiation; a polarizer configured to hyperpolarize the substance via the radicals, and to quench the radicals within the substance by adjusting a temperature of the substance to greater than or equal to a melting point of the substance; a container adapted to contain the substance while the container is at least partially submerged in a cryogen disposed within the polarizer, wherein the container comprises at least two ports (242, 240) configured to allow a temperature adjusting fluid to circulate through an interior of the container and thermally communicate with the substance; and an isolation chamber arranged to keep the container at a distance from the cryogen, the isolation chamber configured to receive the container after the substance has been quenched, and to facilitate melting of the substance in preparation of delivery of the substance into a patient, wherein the system is configured to circulate a temperature adjusting fluid through the interior of the container when the container is within the isolation chamber.