mhurhangee/patent-ind-claim-en huggingface dataset:
A transport interchange system , comprising: a guideway vehicle operable to transport an intermodal container over a guideway system , comprising a central guideway rail that engages with a reciprocal slotted member of the guideway vehicle substantially aligned at a midpoint of the vehicle and is configured to direct the path traveled by the guideway vehicle , the guideway system intersecting a roadway , the guideway vehicle being further operable to: rotate the intermodal container from a first position in which the intermodal container is parallel to the roadway to a second position in which the intermodal container is parallel to the guideway vehicle ; wherein the guideway vehicle includes a rotatable cargo platform that is operable to support the intermodal container and rotate the intermodal container from the first position to the second position; characterized in that the guideway vehicle includes a center-bowl mechanism for rotatingly coupling the rotatable cargo platform to a base of the guideway vehicle , and in that the guideway system over which the guideway vehicle is transported comprises a height adjustment mechanism adjustably coupling to the guideway vehicle and operable to adjust the height of the guideway vehicle while in the first position such that the rotatable cargo platform is at essentially the same elevation as the first edge and the second edge of the roadway . a guideway vehicle operable to transport an intermodal container over a guideway system , comprising a central guideway rail that engages with a reciprocal slotted member of the guideway vehicle substantially aligned at a midpoint of the vehicle and is configured to direct the path traveled by the guideway vehicle , the guideway system intersecting a roadway , the guideway vehicle being further operable to: rotate the intermodal container from a first position in which the intermodal container is parallel to the roadway to a second position in which the intermodal container is parallel to the guideway vehicle ; wherein the guideway vehicle includes a rotatable cargo platform that is operable to support the intermodal container and rotate the intermodal container from the first position to the second position; characterized in that the guideway vehicle includes a center-bowl mechanism for rotatingly coupling the rotatable cargo platform to a base of the guideway vehicle , and in that the guideway system over which the guideway vehicle is transported comprises a height adjustment mechanism adjustably coupling to the guideway vehicle and operable to adjust the height of the guideway vehicle while in the first position such that the rotatable cargo platform is at essentially the same elevation as the first edge and the second edge of the roadway .
A base station configured to communicate with a mobile station , the base station comprising: a radio section ; a processing section ; and a detecting section ; wherein the processing section is configured to determine a first plurality of signature ID numbers from a second plurality of signature ID numbers, the radio section is configured to notify information indicating a quantity of the first plurality of signature ID numbers to the mobile station , the detecting section is configured to detect a preamble corresponding to a signature ID number to be used for random access, wherein the signature ID number is selected within the first plurality of signature ID numbers by the mobile station , a quantity of the second plurality of signature ID numbers is constant, the first plurality of signature ID numbers are contiguous, and the second plurality of signature ID numbers are contiguous. a radio section ; a processing section ; and a detecting section ; wherein the processing section is configured to determine a first plurality of signature ID numbers from a second plurality of signature ID numbers, the radio section is configured to notify information indicating a quantity of the first plurality of signature ID numbers to the mobile station , the detecting section is configured to detect a preamble corresponding to a signature ID number to be used for random access, wherein the signature ID number is selected within the first plurality of signature ID numbers by the mobile station , a quantity of the second plurality of signature ID numbers is constant, the first plurality of signature ID numbers are contiguous, and the second plurality of signature ID numbers are contiguous.
A beverage comprising Rebaudioside X in an amount from 100 ppm to 600 ppm.
An aerosol provision device for generating aerosol from a plurality of aerosol generating areas each configured to receive an aerosol precursor material, wherein the aerosol provision device comprises: a power source for providing power to a first atomising element configured to generate aerosol from a first aerosol precursor material present in the first aerosol generating area and to a second atomising element configured to generate aerosol from a second aerosol precursor material present in a second aerosol generating area; and power distribution circuitry configured to distribute power between the first and second atomising elements based on at least one parameter of aerosol precursor material currently present in the first and second aerosol generating areas respectively, wherein the at least one parameter is a quantity of aerosol precursor material, wherein the power distribution circuitry is configured to distribute power to the first and second atomising elements such that the rate of atomisation of the aerosol precursor material present in the aerosol generating area having the lower quantity of aerosol precursor material is lower than the rate of atomisation of the aerosol precursor material present in the aerosol generating area having the higher quantity of aerosol precursor material. a power source for providing power to a first atomising element configured to generate aerosol from a first aerosol precursor material present in the first aerosol generating area and to a second atomising element configured to generate aerosol from a second aerosol precursor material present in a second aerosol generating area; and power distribution circuitry configured to distribute power between the first and second atomising elements based on at least one parameter of aerosol precursor material currently present in the first and second aerosol generating areas respectively, wherein the at least one parameter is a quantity of aerosol precursor material, wherein the power distribution circuitry is configured to distribute power to the first and second atomising elements such that the rate of atomisation of the aerosol precursor material present in the aerosol generating area having the lower quantity of aerosol precursor material is lower than the rate of atomisation of the aerosol precursor material present in the aerosol generating area having the higher quantity of aerosol precursor material.
A developing roller (1; 106) comprising: an electro-conductive mandrel ; and an electro-conductive layer on the mandrel , the developing roller (1; 106) having an outer surface constituted by at least a first region which is electrically insulating, and a second region , the second region having higher electro-conductivity than that of the first region , the first region being arranged adjacent to the second region , the first region being disposed on an outer surface of the electro-conductive layer , characterized in that the first region has a Vickers hardness of 10.0*9.80665 N/mm 2 (10.0 HV) or more as measured at an outer surface thereof with the method as indicated in the description, and the first region has a fracture toughness value of 800 Pa·m 0.5 or more as measured at the outer surface thereof by an indentation fracture method as indicated in the description, wherein the first region comprises a resin having a structure of the following formula : Formula [A] n -R wherein A represents a structure of the following formula , n represents an integer of 2 or more, and R represents a linking group linking n As; wherein R 1 represents a hydrogen atom or a methyl group, and the symbol ∗ represents a binding site with the linking group R, and characterized in that the linking group R has a structure of the following formula : wherein R 2 is an alkylene group having 6 or more carbon atoms, and the alkylene group optionally has a cyclic structure. an electro-conductive mandrel ; and an electro-conductive layer on the mandrel , the developing roller (1; 106) having an outer surface constituted by at least a first region which is electrically insulating, and a second region , the second region having higher electro-conductivity than that of the first region , the first region being arranged adjacent to the second region , the first region being disposed on an outer surface of the electro-conductive layer , characterized in that the first region has a Vickers hardness of 10.0*9.80665 N/mm 2 (10.0 HV) or more as measured at an outer surface thereof with the method as indicated in the description, and the first region has a fracture toughness value of 800 Pa·m 0.5 or more as measured at the outer surface thereof by an indentation fracture method as indicated in the description, wherein the first region comprises a resin having a structure of the following formula : Formula [A] n -R wherein A represents a structure of the following formula , n represents an integer of 2 or more, and R represents a linking group linking n As; wherein R 1 represents a hydrogen atom or a methyl group, and the symbol ∗ represents a binding site with the linking group R, and characterized in that the linking group R has a structure of the following formula : wherein R 2 is an alkylene group having 6 or more carbon atoms, and the alkylene group optionally has a cyclic structure.
A tubular member connection system , comprising: a box having an inner diameter surface, internal box threads , and an annular box shoulder on the inner diameter surface of the box; a pin having an outer diameter surface, external pin threads , and an annular pin lip at an end surface of the pin, the pin threads shaped to mate with the box threads to releasably secure the pin to the box so that the pin and the box are aligned along a common central axis; a slot in one of the inner diameter surface and the outer diameter surface, the slot having a pair of sidewalls ; an anti-rotation profile in the other of the inner diameter surface and the outer diameter surface; and a key sized to fit within the slot and having a key profile shaped to engage the anti-rotation profile and prevent relative rotational movement between the box and the pin ; characterized in that the anti-rotation profile includes a plurality of grooves and the key profile includes a plurality of rectangular shaped protrusions located to drop within the plurality of grooves . a box having an inner diameter surface, internal box threads , and an annular box shoulder on the inner diameter surface of the box; a pin having an outer diameter surface, external pin threads , and an annular pin lip at an end surface of the pin, the pin threads shaped to mate with the box threads to releasably secure the pin to the box so that the pin and the box are aligned along a common central axis; a slot in one of the inner diameter surface and the outer diameter surface, the slot having a pair of sidewalls ; an anti-rotation profile in the other of the inner diameter surface and the outer diameter surface; and a key sized to fit within the slot and having a key profile shaped to engage the anti-rotation profile and prevent relative rotational movement between the box and the pin ; characterized in that the anti-rotation profile includes a plurality of grooves and the key profile includes a plurality of rectangular shaped protrusions located to drop within the plurality of grooves .
Emulsion containing or consisting of (A) 40.00 to 97.98 wt.% of at least one hydrocarbon, (B) 2.00 to 59.98 wt.% of water or an aqueous solution of a salt which does not fall under the following definition according to (C) and (C) 0.02 to 8.00 wt.% of a salt of an amino amide of a fatty acid, containing at least one primary, secondary or tertiary amino group, and an acid component of general formula (I) in which R 1 is a linear or branched, saturated or mono-unsaturated or polyunsaturated hydrocarbon radical with 1 to 40 C atoms, R 2 is an alkylene radical or arylalkylene radical with 2 to 20 C atoms, which is the same or different in the n repeating units and contains maximum one ether oxygen atom and X is a radical which contains at least one acid group which is selected from carboxylic acid groups, phosphonic acid groups and phosphoric acid groups, m = 0 or 1, n = 1 to 30, wherein the weight proportions of components (A), (B) and (C) relate to the sum of the masses of these components and this is 100 wt.%. (A) 40.00 to 97.98 wt.% of at least one hydrocarbon, (B) 2.00 to 59.98 wt.% of water or an aqueous solution of a salt which does not fall under the following definition according to (C) and (C) 0.02 to 8.00 wt.% of a salt of an amino amide of a fatty acid, containing at least one primary, secondary or tertiary amino group, and an acid component of general formula (I) in which R 1 is a linear or branched, saturated or mono-unsaturated or polyunsaturated hydrocarbon radical with 1 to 40 C atoms, R 2 is an alkylene radical or arylalkylene radical with 2 to 20 C atoms, which is the same or different in the n repeating units and contains maximum one ether oxygen atom and X is a radical which contains at least one acid group which is selected from carboxylic acid groups, phosphonic acid groups and phosphoric acid groups, m = 0 or 1, n = 1 to 30, wherein the weight proportions of components (A), (B) and (C) relate to the sum of the masses of these components and this is 100 wt.%. R 1 is a linear or branched, saturated or mono-unsaturated or polyunsaturated hydrocarbon radical with 1 to 40 C atoms, R 2 is an alkylene radical or arylalkylene radical with 2 to 20 C atoms, which is the same or different in the n repeating units and contains maximum one ether oxygen atom and X is a radical which contains at least one acid group which is selected from carboxylic acid groups, phosphonic acid groups and phosphoric acid groups, m = 0 or 1, n = 1 to 30,
A method of setting a cell pressure range for a secondary battery cells in a secondary battery module, the method comprising: a first operation of determining a secondary battery cell to be applied to the secondary battery module, and based on performance data of the secondary battery cell obtained when the secondary battery cell is pressed with increasing pressure, determining a minimum pressure for realizing performance of the secondary battery cell as Pcell_min and determining a maximum pressure for realizing performance of the secondary battery cell as Pcell_max; a second operation of, when the secondary battery cells are stacked in one direction to form a cell stack and the cell stack is stored in a module housing , determining, as Pmodule_min, a minimum pressure at which the cell stack is supported and fixed and determining, as Pmodule_max, a maximum pressure at which the cell stack is pressed without damage to the module housing in end of life (EOL) of the secondary battery cells , wherein an intersection range of the Pcell_min to the Pcell_max and the Pmodule_min to the Pmodule_max is set as the cell pressure range; applying pressure within the cell pressure range to the cell stack stacked in the module housing . a first operation of determining a secondary battery cell to be applied to the secondary battery module, and based on performance data of the secondary battery cell obtained when the secondary battery cell is pressed with increasing pressure, determining a minimum pressure for realizing performance of the secondary battery cell as Pcell_min and determining a maximum pressure for realizing performance of the secondary battery cell as Pcell_max; a second operation of, when the secondary battery cells are stacked in one direction to form a cell stack and the cell stack is stored in a module housing , determining, as Pmodule_min, a minimum pressure at which the cell stack is supported and fixed and determining, as Pmodule_max, a maximum pressure at which the cell stack is pressed without damage to the module housing in end of life (EOL) of the secondary battery cells , wherein an intersection range of the Pcell_min to the Pcell_max and the Pmodule_min to the Pmodule_max is set as the cell pressure range; applying pressure within the cell pressure range to the cell stack stacked in the module housing .
A method for joining engine components, the method comprising: providing a first engine component including a first thermal protection surface formed from a first surface materia (step 102) ; providing a second engine component including a second thermal protection surface formed from a second surface material different from, and less refractory than, the first surface materia (step 104); arranging the first and second thermal protection surfaces to have at least one thermal protection space therebetween ; providing a plurality of first thermal protection structures (210 A,C) across the thermal protection space between the first thermal protection surface and the second thermal protection surface step 108), the first thermal protection structures each comprising a first thermal protection element projecting from the first thermal protection surface into the thermal protection space ; wherein each of the first thermal protection elements is integrally formed with the first engine component; and locally joining the first engine component and the second engine component by forming a plurality of first transient liquid phase (TLP) or partial transient liquid phase (PTLP) bonds between the first thermal protection surface and the second thermal protection surface step 110); wherein at least one of the first surface material and the second surface material is selected from one of: a ceramic material and a ceramic matrix composite (CMC) material. providing a first engine component including a first thermal protection surface formed from a first surface materia (step 102) ; providing a second engine component including a second thermal protection surface formed from a second surface material different from, and less refractory than, the first surface materia (step 104); arranging the first and second thermal protection surfaces to have at least one thermal protection space therebetween ; providing a plurality of first thermal protection structures (210 A,C) across the thermal protection space between the first thermal protection surface and the second thermal protection surface step 108), the first thermal protection structures each comprising a first thermal protection element projecting from the first thermal protection surface into the thermal protection space ; wherein each of the first thermal protection elements is integrally formed with the first engine component; and locally joining the first engine component and the second engine component by forming a plurality of first transient liquid phase (TLP) or partial transient liquid phase (PTLP) bonds between the first thermal protection surface and the second thermal protection surface step 110); wherein at least one of the first surface material and the second surface material is selected from one of: a ceramic material and a ceramic matrix composite (CMC) material.
A two-part liquid composition for cleaning and disinfecting a substrate contaminated with living microorganisms, comprising: (A) a disinfectant medium comprising water and 15 to 45% by weight peracetic acid; and (B) a supplemental medium comprising an enzymatic cleaner, a non-enzymatic cleaner, a corrosion inhibitor, a surfactant and a chelator; wherein the non-enzymatic cleaner comprises an alkanol amine, an alkylene glycol, or a mixture thereof, wherein the concentration of enzymatic cleaner in (B) comprises from 0.2 to 25% by weight, the concentration of the non-enzymatic cleaner in (B) is from 0.1 to 25% by weight, the concentration of the corrosion inhibitor in (B) is from 1% to 10% by weight, the concentration of the surfactant in (B) is from 1 to 25% by weight and the concentration of the chelator in (B) is from 0.1 to 70% by weight. (A) a disinfectant medium comprising water and 15 to 45% by weight peracetic acid; and (B) a supplemental medium comprising an enzymatic cleaner, a non-enzymatic cleaner, a corrosion inhibitor, a surfactant and a chelator; wherein the non-enzymatic cleaner comprises an alkanol amine, an alkylene glycol, or a mixture thereof, wherein the concentration of enzymatic cleaner in (B) comprises from 0.2 to 25% by weight, the concentration of the non-enzymatic cleaner in (B) is from 0.1 to 25% by weight, the concentration of the corrosion inhibitor in (B) is from 1% to 10% by weight, the concentration of the surfactant in (B) is from 1 to 25% by weight and the concentration of the chelator in (B) is from 0.1 to 70% by weight.
A gyroscopic roll stabilizer for a boat , the gyroscopic stabilizer comprising: an enclosure mounted to a gimbal for rotation about a gimbal axis (G) and configured to maintain a below-ambient pressure; a flywheel assembly including a flywheel and flywheel shaft ; the flywheel assembly rotatably mounted inside the enclosure for rotation about a flywheel axis (F); a motor operative to rotate the flywheel assembly and disposed inside the enclosure ; a motor cooling circuit configured to transfer heat away from the motor ; the motor cooling circuit having a closed fluid pathway for recirculating cooling fluid therein; characterized in that : the fluid pathway includes a fluid channel jointly defined by the motor and the enclosure and having the cooling fluid therein; wherein the gyroscopic roll stabilizer is configured to transfer heat away from the motor to the cooling fluid ; wherein the enclosure comprises an integrally formed boss for mounting the motor ; wherein an inner face of the boss , facing the motor , comprises a groove ; and wherein the groove defines at least a portion of the fluid channel . an enclosure mounted to a gimbal for rotation about a gimbal axis (G) and configured to maintain a below-ambient pressure; a flywheel assembly including a flywheel and flywheel shaft ; the flywheel assembly rotatably mounted inside the enclosure for rotation about a flywheel axis (F); a motor operative to rotate the flywheel assembly and disposed inside the enclosure ; a motor cooling circuit configured to transfer heat away from the motor ; the motor cooling circuit having a closed fluid pathway for recirculating cooling fluid therein; characterized in that : the fluid pathway includes a fluid channel jointly defined by the motor and the enclosure and having the cooling fluid therein; wherein the gyroscopic roll stabilizer is configured to transfer heat away from the motor to the cooling fluid ; wherein the enclosure comprises an integrally formed boss for mounting the motor ; wherein an inner face of the boss , facing the motor , comprises a groove ; and wherein the groove defines at least a portion of the fluid channel . the fluid pathway includes a fluid channel jointly defined by the motor and the enclosure and having the cooling fluid therein; wherein the gyroscopic roll stabilizer is configured to transfer heat away from the motor to the cooling fluid ; wherein the enclosure comprises an integrally formed boss for mounting the motor ; wherein an inner face of the boss , facing the motor , comprises a groove ; and wherein the groove defines at least a portion of the fluid channel .