mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method to model a subterranean formation of a field, comprising: obtaining a seismic volume comprising a plurality of seismic traces of the subterranean formation of the field that are measured at receiver locations in the field; computing, based on the seismic volume, a seismically-derived value of a structural attribute representing a structural characteristic of the subterranean formation; computing, based on a structural model, a structurally-derived value of the structural attribute, the structural model comprising a plurality of structural layers (302-1 through 302-6) of the subterranean formation; comparing the seismically-derived value and the structurally-derived value to generate a difference value representing a discrepancy of modeling the structural attribute at a corresponding location in the subterranean formation; and generating a seismic interpretation result based on the difference value and the corresponding location; characterized in that the method further comprises: determining, based on a sequence of the plurality of structural layers (302-1 through 302-6), a plurality of relative geologic ages of the plurality of structural layers (302-1 through 302-6); determining the structurally-derived value of the structural attribute based on the plurality of relative geologic ages; deriving an implicit function from the seismic data; generating a screenshot showing values of the implicit function representing the relative geological ages of the structural layers (302-1 through 302-6); and using the implicit function to compute a gradient of the relative geological ages. obtaining a seismic volume comprising a plurality of seismic traces of the subterranean formation of the field that are measured at receiver locations in the field; computing, based on the seismic volume, a seismically-derived value of a structural attribute representing a structural characteristic of the subterranean formation; computing, based on a structural model, a structurally-derived value of the structural attribute, the structural model comprising a plurality of structural layers (302-1 through 302-6) of the subterranean formation; comparing the seismically-derived value and the structurally-derived value to generate a difference value representing a discrepancy of modeling the structural attribute at a corresponding location in the subterranean formation; and generating a seismic interpretation result based on the difference value and the corresponding location; characterized in that the method further comprises: determining, based on a sequence of the plurality of structural layers (302-1 through 302-6), a plurality of relative geologic ages of the plurality of structural layers (302-1 through 302-6); determining the structurally-derived value of the structural attribute based on the plurality of relative geologic ages; deriving an implicit function from the seismic data; generating a screenshot showing values of the implicit function representing the relative geological ages of the structural layers (302-1 through 302-6); and using the implicit function to compute a gradient of the relative geological ages.
A process for the synthesis of PCTFE- (poly-chlorotrifluoroethylene-) g-poly graft copolymers, the process comprising: a) providing a molecule having the formula: X-[C 2 C (B')] n -Q[CY=C (Z')] or [C 2 =C] n -Q[C (Y')-C (Z')]-X', wherein A is either H or F; B and B' are either H, F, or Cl, and are not necessarily the same; X and X' are Br, Cl or I (and are not necessarily the same); Y and Y' are F, Br, Cl or I (and are not necessarily the same); and wherein Z and Z' are F, Br, Cl or I (and are not necessarily the same); Q is optional and is either oxygen or sulfur; and n is at least 1; and b) reacting the X-[C 2 C (B')] n -Q[CY=C (Z')] or [C 2 =C] n -Q[C (Y')-C (Z')]-X' molecule with a CTFE monomer in the presence of a free radical initiator, thereby forming the CTFE monomer into a poly-CTFE graft copolymer backbone component having one or more X'-[C 2 C (B')] n - or -[C (Y')-C (Z')]-X' pendant monomer components attached thereto. a) providing a molecule having the formula: X-[C 2 C (B')] n -Q[CY=C (Z')] or [C 2 =C] n -Q[C (Y')-C (Z')]-X', wherein A is either H or F; B and B' are either H, F, or Cl, and are not necessarily the same; X and X' are Br, Cl or I (and are not necessarily the same); Y and Y' are F, Br, Cl or I (and are not necessarily the same); and wherein Z and Z' are F, Br, Cl or I (and are not necessarily the same); Q is optional and is either oxygen or sulfur; and n is at least 1; and b) reacting the X-[C 2 C (B')] n -Q[CY=C (Z')] or [C 2 =C] n -Q[C (Y')-C (Z')]-X' molecule with a CTFE monomer in the presence of a free radical initiator, thereby forming the CTFE monomer into a poly-CTFE graft copolymer backbone component having one or more X'-[C 2 C (B')] n - or -[C (Y')-C (Z')]-X' pendant monomer components attached thereto.
A pre-sweetener, reduced sucrose hypocrystalline sugar slurry, comprising: 40 - 70% by weight sucrose (dry weight basis); 10 - 30% by weight non-sucrose soluble solids; 1 - 20% by weight non-hydrated starch having a particle size of 50 microns or less; and, 8 - 25% by weight moisture. 40 - 70% by weight sucrose (dry weight basis); 10 - 30% by weight non-sucrose soluble solids; 1 - 20% by weight non-hydrated starch having a particle size of 50 microns or less; and, 8 - 25% by weight moisture.
A support apparatus (10, 10', 10") for a flexible, cylindrical element, comprising: a main body (14, 14', 14"); and two clamping elements (16a, 16b, 16a', 16b', 16a", 16b") rotatably mounted on the main body (14, 14', 14"), each comprising an at least partial cylinder segment portion (18a, 18b, 18a" rear wall, 18b" rear wall, 18a" front, 18b" front) with a radial clamping groove (20a, 20b, 20a', 20b', 20a", 20b"); and wherein the two clamping elements (16a, 16b, 16a', 16b', 16a", 16b") are arranged relative to each other such that a clamping region (22, 22') is formed between the radial clamping grooves (20a, 20b, 20a', 20b', 20a", 20b") of the two cylinder segment portions (18a, 18b, 18a" rear wall, 18b" rear wall, 18a" front, 18b" front), wherein the support apparatus (10, 10', 10") is configured such that a cross-sectional area (22, 22') of the clamping region (22, 22') is varied upon rotation of the clamping elements (16a, 16b, 16a', 16b', 16a", 16b"), characterized in that the two clamping grooves (20a, 20b, 20a', 20b', 20a", 20b") each comprise a tapering region (20a, 20b, 20a', 20b', 20a", 20b") extending along the respective cylinder segment portion (18a, 18b, 18a" rear wall, 18b" rear wall, 18a" front, 18b" front) and tapering with respect to the depth and/or width of the clamping groove (20a, 20b, 20a', 20b', 20a", 20b"). a main body (14, 14', 14"); and two clamping elements (16a, 16b, 16a', 16b', 16a", 16b") rotatably mounted on the main body (14, 14', 14"), each comprising an at least partial cylinder segment portion (18a, 18b, 18a" rear wall, 18b" rear wall, 18a" front, 18b" front) with a radial clamping groove (20a, 20b, 20a', 20b', 20a", 20b"); and wherein the two clamping elements (16a, 16b, 16a', 16b', 16a", 16b") are arranged relative to each other such that a clamping region (22, 22') is formed between the radial clamping grooves (20a, 20b, 20a', 20b', 20a", 20b") of the two cylinder segment portions (18a, 18b, 18a" rear wall, 18b" rear wall, 18a" front, 18b" front), wherein the support apparatus (10, 10', 10") is configured such that a cross-sectional area (22, 22') of the clamping region (22, 22') is varied upon rotation of the clamping elements (16a, 16b, 16a', 16b', 16a", 16b"),
A method for batch-processing multiple data in a first processor which is operated by a first power, the method comprising: transmitting batching data configuration information to a second processor which is operated by a second power according to batching option information of a plurality of applications, wherein the first power is larger than the second power; receiving, from the second processor, batching data acquired based on the batching data configuration information; and batch-processing the received batching data according to the batching option information, for the plurality of applications, wherein the batching option information indicates, for each of the plurality of applications, at least one data type and one data arrangement scheme required to perform an operation, wherein the batching data configuration information includes information about all data types indicated by the batching option information, and one representative data arrangement scheme from among the data arrangement schemes in the batching option information, selected according to a priority level of each of the plurality of applications, wherein the at least one data type is one of sensing data collected from at least one sensor of the second processor, and context data calculated using the sensing data by the second processor, and wherein batch-processing the batching data comprises rearranging the batching data according to the batching option information and providing the rearranged batching data to the respective applications. transmitting batching data configuration information to a second processor which is operated by a second power according to batching option information of a plurality of applications, wherein the first power is larger than the second power; receiving, from the second processor, batching data acquired based on the batching data configuration information; and batch-processing the received batching data according to the batching option information, for the plurality of applications, wherein the batching option information indicates, for each of the plurality of applications, at least one data type and one data arrangement scheme required to perform an operation, wherein the batching data configuration information includes information about all data types indicated by the batching option information, and one representative data arrangement scheme from among the data arrangement schemes in the batching option information, selected according to a priority level of each of the plurality of applications, wherein the at least one data type is one of sensing data collected from at least one sensor of the second processor, and context data calculated using the sensing data by the second processor, and wherein batch-processing the batching data comprises rearranging the batching data according to the batching option information and providing the rearranged batching data to the respective applications.
A method for preparing molecular sieve SSZ-81, comprising contacting under crystallization conditions at least one source of silicon; at least one source of aluminum; at least one source of an element selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; and a structure directing agent selected from 1,5-bis(1-azonia-bicyclo[2.2.2]octane)pentane dications, 1,5-bis(1,4-diazabicyclo[2.2.2]octane)pentane dications, and mixtures thereof; wherein the molecular sieve has, after calcination, an X-ray diffraction pattern as shown in the following Table: 2 Theta d-spacing (Angstroms) Relative Intensity (%) 7.45 ± 0.20 11.86 S 7.45 peak-10.50, ±0.20 W, broad band 14.38 6.15 W 18.50 - 22.26 peak, ±0.20 W, broad band 22.26 ± 0.20 3.99 W 22.79 ± 0.20 3.90 S 23.53 ± 0.20 3.78 W-M 24.36 ± 0.20 3.65 W-M 25.37 ± 0.20 3.51 W 26.37 ± 0.20 3.38 W 27.53 ± 0.20 3.24 W 28.67 ± 0.20 3.11 W wherein the molecular sieve has, after calcination, an X-ray diffraction pattern as shown in the following Table: 2 Theta d-spacing (Angstroms) Relative Intensity (%) 7.45 ± 0.20 11.86 S 7.45 peak-10.50, ±0.20 W, broad band 14.38 6.15 W 18.50 - 22.26 peak, ±0.20 W, broad band 22.26 ± 0.20 3.99 W 22.79 ± 0.20 3.90 S 23.53 ± 0.20 3.78 W-M 24.36 ± 0.20 3.65 W-M 25.37 ± 0.20 3.51 W 26.37 ± 0.20 3.38 W 27.53 ± 0.20 3.24 W 28.67 ± 0.20 3.11 W
A ganglioside GM1 or a compound of formula having the saccharide moiety of GM1, wherein formula is: wherein Z is O, S, C(R 10) 2 and NR 2, X is H, D, -OR 11, -NR 11 R 12, -SR 11, and -CHR 11 R 12, and R 10, R 11 and R 12 independently selected from H, D, substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heterocycloalkyl, -C(=B)R 13, -C(=B)-Z-R 13, -SO 2 R 13, and -SO 3 functional moieties; B, B', and Z independently selected from O, NR 14 or S; Y is selected from H, D, -OR 15, -SR 15, -NR 15 R 16, substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, and substituted or unsubstituted heterocycloalkyl moieties; R 1, R 2, R 13, R 14 independently selected from H, D, -OR 17, -NR 17 R 18, -SR 19, and -CHR 19 R 20, substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heterocycloalkyl moieties; R 15, R 16, R 17, R 18, and R 19 independently selected from substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heterocycloalkyl moieties, -C(=B')R 20, -C(=B')-Z-R 20, -SO 2 R 20, and -SO 3 functional moieties; R 20 is selected from H, D, -OR 21, -SR 21, -NR 21 R 22, substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heterocycloalkyl moieties; R 21 and R 22 are independently selected from H, D, substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heterocycloalkyl moieties; n is an integer from 1 to 30, for use in treating Huntington's disease;.
Plant for digitally printing a fibrous material, particularly a fibrous material as discrete sheets or as a continuous web, said printing plant comprising: - at least one station for supplying the fibrous material to be printed, the supplying station being configured for supplying the fibrous material to be printed along a predetermined operative path; - at least one treating station configured for treating the fibrous material with a treatment composition by applying the same composition on a first side of the fibrous material; and - at least one printing station configured for ink-printing, particularly by a digital print, at least part of a second side of the fibrous material opposite to the first side, characterized by the fact that the treating station is configured for supplying the treatment composition as a treating foam. - at least one station for supplying the fibrous material to be printed, the supplying station being configured for supplying the fibrous material to be printed along a predetermined operative path; - at least one treating station configured for treating the fibrous material with a treatment composition by applying the same composition on a first side of the fibrous material; and - at least one printing station configured for ink-printing, particularly by a digital print, at least part of a second side of the fibrous material opposite to the first side,
A toner comprising: toner particles each comprising a binder resin and a colorant; and as external additives, inorganic fine particles A and inorganic fine particles B, wherein the inorganic fine particles A are group 2 element titanate fine particles, the group 2 element titanate fine particles have a number-average particle diameter of primary particles thereof, which is not less than 60 nm and not more than 200 nm, the inorganic fine particles B are silica fine particles, the silica fine particles have a number-average particle diameter of primary particles thereof, which is not less than 5 nm and not more than 20 nm, the silica fine particles have a coverage ratio X1 on surfaces of the toner particles, as determined according to the description with an x-ray photoelectron spectrometer which is not less than 40.0 surface area% and not more than 75.0 surface area%, when the theoretical coverage ratio as determined according to the description by the silica fine particles is X2, a diffusion index defined by Formula 1 below satisfies Formula 2 below: diffusion index = X 1 / X 2 diffusion index ≥ − 0.0042 × X 1 + 0.62, and the external additives have an embedding ratio on the toner particles measured according to the description, which is not less than 25% and not more than 60%. toner particles each comprising a binder resin and a colorant; and as external additives, inorganic fine particles A and inorganic fine particles B, wherein the inorganic fine particles A are group 2 element titanate fine particles, the group 2 element titanate fine particles have a number-average particle diameter of primary particles thereof, which is not less than 60 nm and not more than 200 nm, the inorganic fine particles B are silica fine particles, the silica fine particles have a number-average particle diameter of primary particles thereof, which is not less than 5 nm and not more than 20 nm, the silica fine particles have a coverage ratio X1 on surfaces of the toner particles, as determined according to the description with an x-ray photoelectron spectrometer which is not less than 40.0 surface area% and not more than 75.0 surface area%, when the theoretical coverage ratio as determined according to the description by the silica fine particles is X2, a diffusion index defined by Formula 1 below satisfies Formula 2 below: diffusion index = X 1 / X 2 diffusion index ≥ − 0.0042 × X 1 + 0.62, and the external additives have an embedding ratio on the toner particles measured according to the description, which is not less than 25% and not more than 60%.
Device comprising a joystick, wherein the device basically consists of a body, which has a lower end adapted to couple an air discharge pipe of a motorized backpack sprayer, a spike of fluid inlet to couple a hose connected to the reservoir of chemicals, a spike of fluid outlet coupling the hose to the atomizer nozzle, characterized by comprising fastening means for a conduit to the throttle cable and to the switch wires connected to an atomizer engine inside the conduit; wherein the joystick also comprises a housing for a filter inside a handle, the filter can be easily accessed and cleaned, even with a full reservoir, by closing a stop valve and releasing the handle; comprising a flow control (open/close) valve mounted on the upper body, between the handle and the fluid outlet, which consists of a control lever that releases the flow of fluid when is pressed, and closes the valve automatically when is released by the action of a spring; comprising on the side, a smaller lever for locking the valve both in the closed and in the open position; the valve locked in the closed position being an important requirement for the operator's safety, which ensures that the valve does not open accidentally; comprising a mechanism for the throttle which enables the engine acceleration at the desired work point by moving a lever positioned laterally to the valve and an electrical switch which is mounted in the upper part, next to the lever, which comprises means for quickly stopping the engine.
Device for continuously producing crystalline silicon carbide, comprising: a reactor; and a collecting container spatially separated at least partially from the reactor, wherein the reactor has a supply means for supplying a precursor mixture, a substrate for depositing crystalline silicon carbide is provided, a reaction chamber of the reactor can be temperature controlled to a first temperature T 1 and the substrate can be temperature controlled to a second temperature T 2 which is different from the first temperature T 1, wherein the reactor can be heated to a temperature in a range of ≥ 1400°C to ≤ 2000°C and wherein the temperature of the substrate can be decreased by a temperature in a range of ≥ 50°C to ≤ 100°C relative to the temperature set principally in the reactor in the aforementioned range of ≥ 1400°C to ≤ 2000°C, wherein the substrate for depositing crystalline silicon carbide can be arranged in a deposition position in or adjacent to the reaction chamber and is movable at least partially from the deposition position to the collecting container, and wherein a wiper is arranged such that after or during an at least partial movement of the substrate to the collecting container crystalline silicon carbide deposited on the substrate can be separated by the wiper from the substrate and the separated crystalline silicon carbide can be transferred into the collecting container. a reactor; and a collecting container spatially separated at least partially from the reactor, wherein the reactor has a supply means for supplying a precursor mixture, a substrate for depositing crystalline silicon carbide is provided, a reaction chamber of the reactor can be temperature controlled to a first temperature T 1 and the substrate can be temperature controlled to a second temperature T 2 which is different from the first temperature T 1, wherein the reactor can be heated to a temperature in a range of ≥ 1400°C to ≤ 2000°C and wherein the temperature of the substrate can be decreased by a temperature in a range of ≥ 50°C to ≤ 100°C relative to the temperature set principally in the reactor in the aforementioned range of ≥ 1400°C to ≤ 2000°C, wherein the substrate for depositing crystalline silicon carbide can be arranged in a deposition position in or adjacent to the reaction chamber and is movable at least partially from the deposition position to the collecting container, and wherein a wiper is arranged such that after or during an at least partial movement of the substrate to the collecting container crystalline silicon carbide deposited on the substrate can be separated by the wiper from the substrate and the separated crystalline silicon carbide can be transferred into the collecting container.