mhurhangee/ep-ind-claims huggingface dataset:
A method of creating and managing a manufacturing plan for an article of manufacture (900, 902), comprising: retaining engineering information for the article of manufacture (900, 902) in a first database, wherein the engineering information includes three-dimensional digital models of selected component parts of the article of manufacture; retaining process information for the article of manufacture (900, 902) in a second database, wherein the process information comprises component resource and planning relationships pertaining to the article of manufacture, wherein the planning relationships comprise one or more precedence networks that describe a predetermined assembly sequence for the article of manufacture (900, 902); receiving the three-dimensional digital models of the selected component parts from the first database; receiving the predetermined assembly sequence for the article of manufacture from the second database; based upon a processing of the received three dimensional digital models and the received predetermined assembly sequence, generating at least one context that graphically depicts a predetermined portion of the article of manufacture (900, 902) at a desired stage of assembly; reviewing the at least one context to determine if a conflict exists; and revising the process information of the second database to specify a different assembly sequence to avoid the determined conflict. retaining engineering information for the article of manufacture (900, 902) in a first database, wherein the engineering information includes three-dimensional digital models of selected component parts of the article of manufacture; retaining process information for the article of manufacture (900, 902) in a second database, wherein the process information comprises component resource and planning relationships pertaining to the article of manufacture, wherein the planning relationships comprise one or more precedence networks that describe a predetermined assembly sequence for the article of manufacture (900, 902); receiving the three-dimensional digital models of the selected component parts from the first database; receiving the predetermined assembly sequence for the article of manufacture from the second database; based upon a processing of the received three dimensional digital models and the received predetermined assembly sequence, generating at least one context that graphically depicts a predetermined portion of the article of manufacture (900, 902) at a desired stage of assembly; reviewing the at least one context to determine if a conflict exists; and revising the process information of the second database to specify a different assembly sequence to avoid the determined conflict.
A method of producing a surface roughing, polishing, lapping, and smoothing brush, comprising at least one first moulding operation of at least one mix including at least one mouldable synthetic material to obtain a base portion (6; 160) and a plurality of bristle members (3; 130,130a,130b) projecting from at least one surface (6a; 160a) of said base portion (6; 160) and including at least one abrasive material; characterized in that it further comprises at least one first moulding operation of at least one mix including at least one mouldable synthetic material to obtain a base portion (6; 160) and a plurality of bristle members (3; 130,130a,130b) projecting from at least one surface (6a; 160a) of said base portion (6; 160) and a second moulding operation of a mouldable material at said bristle members to apply thereon, as a cover, an external coating including said at least one abrasive material dispersed therein, whereby obtaining bristle members with layered structure, said bristle members comprising a core and an abrasive coating layer.
An opening/closing control device for a shutter of a vehicle, for controlling opening/closing of the shutter that is openably and closably provided at a front part of a vehicle and introduces ambient air into an engine room through a front opening, comprising: vehicle speed detection means for detecting a speed of the vehicle as a vehicle speed, characterized by shutter opening/closing means for opening the shutter when the detected vehicle speed is smaller than a predetermined first reference value (VREF1), closing the shutter when the vehicle speed is not smaller than the first reference value (VREF1) and smaller than a second reference value (VREF2) which is larger than the first reference value (VREF1), and opening the shutter when the vehicle speed is not smaller than the second reference value (VREF2), and opening/closing speed-setting means for setting a second opening/closing speed which is a shutter opening/closing speed when the vehicle speed has changed across the second reference value (VREF2) to a smaller value than a first opening/closing speed which is a shutter opening/closing speed when the vehicle speed has changed across the first reference value (VREF1). vehicle speed detection means for detecting a speed of the vehicle as a vehicle speed, characterized by shutter opening/closing means for opening the shutter when the detected vehicle speed is smaller than a predetermined first reference value (VREF1), closing the shutter when the vehicle speed is not smaller than the first reference value (VREF1) and smaller than a second reference value (VREF2) which is larger than the first reference value (VREF1), and opening the shutter when the vehicle speed is not smaller than the second reference value (VREF2), and opening/closing speed-setting means for setting a second opening/closing speed which is a shutter opening/closing speed when the vehicle speed has changed across the second reference value (VREF2) to a smaller value than a first opening/closing speed which is a shutter opening/closing speed when the vehicle speed has changed across the first reference value (VREF1).
An exhaust system for an internal combustion engine, the exhaust system comprising: a. a lean NOx trap; and b. a wall flow monolithic substrate having a pre-coated porosity of 40% or greater, and comprising an oxidation catalytic zone, the oxidation catalytic zone comprising a platinum group metal loaded on a first support, the first support comprising at least one inorganic oxide and a zinc compound, wherein the first support comprises at least one alkaline earth metal compound at a loading in the range of 3.18 to 7.06 g/L (90 to 200 g/ft 3) and wherein the or each alkaline earth metal compound comprises an oxide, carbonate and/or hydroxide of magnesium, calcium, strontium or barium or a mixture of any two or more of these compounds, preferably wherein the zinc compound is selected from zinc oxide, zinc nitrate, zinc carbonate, zinc hydroxide or a mixture of two or more thereof. a. a lean NOx trap; and b. a wall flow monolithic substrate having a pre-coated porosity of 40% or greater, and comprising an oxidation catalytic zone, the oxidation catalytic zone comprising a platinum group metal loaded on a first support, the first support comprising at least one inorganic oxide and a zinc compound, wherein the first support comprises at least one alkaline earth metal compound at a loading in the range of 3.18 to 7.06 g/L (90 to 200 g/ft 3) and wherein the or each alkaline earth metal compound comprises an oxide, carbonate and/or hydroxide of magnesium, calcium, strontium or barium or a mixture of any two or more of these compounds, preferably wherein the zinc compound is selected from zinc oxide, zinc nitrate, zinc carbonate, zinc hydroxide or a mixture of two or more thereof.
An organic optoelectronic component, comprising: - a substrate, - a first electrode on the substrate, - at least one first organic layer sequence on the first electrode which is suitable for emitting electromagnetic radiation during operation, - an electrically conductive inorganic protective layer on the at least one organic layer sequence, and - a second electrode on the inorganic protective layer, wherein - at least one of the first and second electrodes (2, 5) has a layer sequence (21, 22, 23) comprising a transparent oxide layer and a transparent metal layer, - a material comprising carbon nanotubes or metallic nanoparticles is applied on the second electrode characterized in that the inorganic protective layer comprises a transition metal oxide from a group and the group is formed by: rhenium oxide and nickel oxide. - a substrate, - a first electrode on the substrate, - at least one first organic layer sequence on the first electrode which is suitable for emitting electromagnetic radiation during operation, - an electrically conductive inorganic protective layer on the at least one organic layer sequence, and - a second electrode on the inorganic protective layer, - at least one of the first and second electrodes (2, 5) has a layer sequence (21, 22, 23) comprising a transparent oxide layer and a transparent metal layer, - a material comprising carbon nanotubes or metallic nanoparticles is applied on the second electrode
An imaging system comprising: an X-ray source configured to emit an X-ray beam; an X-ray detector configured to detect the X-ray beam emitted by the X-ray source, the X-ray detector and the X-ray source being joined by a connecting member such that the X-ray detector and the X-ray source remain in geometric alignment for the X-ray detector to receive the X-ray beam during an imaging process; and a translational mechanism configured to vertically translate the X-ray source and the X-ray detector during the imaging process, such that the X-ray detector is translated within a first vertical path having a first height range and the X-ray source is translated within a second vertical path having a second height range, wherein the first height range exceeds the second height range, characterized in that the translational mechanism comprises a first cable and a second cable, the first cable attached to the X-ray detector at a first terminus and a first counterweight device at a second terminus, the second cable attached to the X-ray source at a first terminus and a second counterweight device at a second terminus, and wherein the first cable is threaded on a first pulley and the second cable is threaded on a second pulley (264, 266) an X-ray source configured to emit an X-ray beam; an X-ray detector configured to detect the X-ray beam emitted by the X-ray source, the X-ray detector and the X-ray source being joined by a connecting member such that the X-ray detector and the X-ray source remain in geometric alignment for the X-ray detector to receive the X-ray beam during an imaging process; and a translational mechanism configured to vertically translate the X-ray source and the X-ray detector during the imaging process, such that the X-ray detector is translated within a first vertical path having a first height range and the X-ray source is translated within a second vertical path having a second height range, wherein the first height range exceeds the second height range, characterized in that the translational mechanism comprises a first cable and a second cable, the first cable attached to the X-ray detector at a first terminus and a first counterweight device at a second terminus, the second cable attached to the X-ray source at a first terminus and a second counterweight device at a second terminus, and wherein the first cable is threaded on a first pulley and the second cable is threaded on a second pulley (264, 266)
Closing device having - a first closing part which has a housing and a blocking piece disposed on the housing, - a second closing part which has a sprung locking element which at least in portions is configured so as to be spring-elastic, - magnetic means which act between the blocking piece of the first closing part and the second closing part and cause a magnetic attraction force between the blocking piece of the first closing part and the second closing part, wherein - the first closing part for closing the closing device is capable of being placed on the second closing part in a closing direction, - the blocking piece and the sprung locking element in a closing position are mutually engaged such that the first closing part in the direction counter to the closing direction is locked in relation to the second closing part, and - the sprung locking element for releasing the closing device is displaceable relative to the blocking piece in an opening direction that is substantially transverse to the closing direction, so as to disengage the sprung locking element and the blocking piece, wherein the blocking piece (22, 22a, 22b) is disposed so as to be movable on the housing of the first closing part in such a manner that said blocking piece (22, 22a, 22b) in a retracted position is at least in part enclosed in a receptacle chamber (213, 213a, 213b) of the housing, and in a deployed position protrudes from the housing in such a manner that said blocking piece (22, 22a, 22b) can be brought to engage with the sprung locking element (34, 34a, 34b), characterized in that at least one first electrical contact element (225, 225A, 225B) is disposed on the blocking piece and/or the housing, and at least one second electrical contact element (311, 311A, 311B) is disposed on the second closing part. - a first closing part which has a housing and a blocking piece disposed on the housing, - a second closing part which has a sprung locking element which at least in portions is configured so as to be spring-elastic, - magnetic means which act between the blocking piece of the first closing part and the second closing part and cause a magnetic attraction force between the blocking piece of the first closing part and the second closing part, - the first closing part for closing the closing device is capable of being placed on the second closing part in a closing direction, - the blocking piece and the sprung locking element in a closing position are mutually engaged such that the first closing part in the direction counter to the closing direction is locked in relation to the second closing part, and - the sprung locking element for releasing the closing device is displaceable relative to the blocking piece in an opening direction that is substantially transverse to the closing direction, so as to disengage the sprung locking element and the blocking piece,
A compressor comprising: a drive shaft that is rotational about a shaft axis; a housing (1, 3, 5, 7, 9, 11) that rotationally supports the drive shaft and has a rotor chamber, wherein the rotor chamber is annular and is parallel with the shaft axis; an annular rotor located in the rotor chamber, wherein the annular rotor has a cradle window radially extending there through and a circumferential surface extending in a direction parallel with the shaft axis, wherein the rotor is rotational together with the drive shaft while sliding on the housing (1, 3, 5, 7, 9, 11) at the circumferential surface; and a cradle (33; 43; 53) that is provided in the cradle window to be allowed to pivot about a pivot axis parallel with the shaft axis, wherein the cradle (33; 43; 53) slides on the housing (1, 3, 5, 7, 9, 11) at pivoting ends, which extend in directions parallel with the shaft axis, as the rotor rotates, wherein the rotor chamber includes an outer operation chamber located radially outside of the rotor, and an inner operation chamber located radially inside of the rotor, the cradle (33; 43; 53), the outer operation chamber, and the inner operation chamber form compression chambers (351, 352), which are caused to change their volume by rotation of the rotor, while maintaining the airtightness, and the housing (1, 3, 5, 7, 9, 11) includes a suction port (5a, 7b) and a discharge port (5b, 7c), which communicate with the compression chambers (351, 352). a drive shaft that is rotational about a shaft axis; a housing (1, 3, 5, 7, 9, 11) that rotationally supports the drive shaft and has a rotor chamber, wherein the rotor chamber is annular and is parallel with the shaft axis; an annular rotor located in the rotor chamber, wherein the annular rotor has a cradle window radially extending there through and a circumferential surface extending in a direction parallel with the shaft axis, wherein the rotor is rotational together with the drive shaft while sliding on the housing (1, 3, 5, 7, 9, 11) at the circumferential surface; and a cradle (33; 43; 53) that is provided in the cradle window to be allowed to pivot about a pivot axis parallel with the shaft axis, wherein the cradle (33; 43; 53) slides on the housing (1, 3, 5, 7, 9, 11) at pivoting ends, which extend in directions parallel with the shaft axis, as the rotor rotates, wherein the rotor chamber includes an outer operation chamber located radially outside of the rotor, and an inner operation chamber located radially inside of the rotor, the cradle (33; 43; 53), the outer operation chamber, and the inner operation chamber form compression chambers (351, 352), which are caused to change their volume by rotation of the rotor, while maintaining the airtightness, and the housing (1, 3, 5, 7, 9, 11) includes a suction port (5a, 7b) and a discharge port (5b, 7c), which communicate with the compression chambers (351, 352).
A computer-implemented method for imposition of geological boundary conditions in depositional models of potential hydrocarbon reservoirs in siliciclastic rocks, comprising: a. receiving, at a computer processor, a depositional model of a siliciclastic formation of interest generated by a depositional process; b. determining, via the computer processor, a type of boundary condition at each boundary of the depositional model wherein the boundary condition on at least one boundary is one of a flux-preserving boundary condition or a discrete boundary condition, wherein a dynamic criterion based on current flow conditions and sedimentation rates is used to choose between the flux-preserving boundary condition or the discrete boundary condition and wherein the boundary condition accounts for at least one of: i. time-varying inflow of water and sediments into the depositional model; ii. time-varying outflow of water and sediments out of the depositional model; and iii. downstream controls; c. modeling, via the computer processor, rates of sediment and water flow over time, dependent on the boundary condition, to create a modeled depositional system; and d. analyzing the modeled depositional system to identify potential hydrocarbon reservoirs. a. receiving, at a computer processor, a depositional model of a siliciclastic formation of interest generated by a depositional process; b. determining, via the computer processor, a type of boundary condition at each boundary of the depositional model wherein the boundary condition on at least one boundary is one of a flux-preserving boundary condition or a discrete boundary condition, wherein a dynamic criterion based on current flow conditions and sedimentation rates is used to choose between the flux-preserving boundary condition or the discrete boundary condition and wherein the boundary condition accounts for at least one of: i. time-varying inflow of water and sediments into the depositional model; ii. time-varying outflow of water and sediments out of the depositional model; and iii. downstream controls; i. time-varying inflow of water and sediments into the depositional model; ii. time-varying outflow of water and sediments out of the depositional model; and iii. downstream controls; c. modeling, via the computer processor, rates of sediment and water flow over time, dependent on the boundary condition, to create a modeled depositional system; and d. analyzing the modeled depositional system to identify potential hydrocarbon reservoirs.
A nuclear power reactor with liquid-metal coolant, that includes a housing with an active zone located below coolant level, steam generators, circulation pumps and a system of liquid-metal lead or lead-bismuth coolant condition nonitoring containing a monitoring element located in the reactor, connected to a measuring unit; the nonitoring element of the system representing oxygen thermodynamic activity sensors (7,8,9,10) located in the central and peripheral parts of the reactor housing, the sensory elements of which are located in liquid-metal lead or lead-bismuth oolant layer, and an additional oxygen thermodynamic activity sensor (11, 12) being located above liquid-metal lead or lead-bismuth coolant and installed so that it can be periodically immersed into the coolant.
Method for transporting pairs of packs, comprising: - arranging a first pair of packs on a horizontal transport device, - transporting the first pair of packs in a horizontal direction in the horizontal transport device; - arranging a second pair of packs on the horizontal transport device; therein, for each of the first pair and the second pair of the pair of packs, spacing a first pack of the first and second pair of packs and a second pack of the first and second pair of packs vertically from each other in the horizontal transport device, and further spacing the first pair of packs and the second pair of packs horizontally from each other on the horizontal transport device; and keeping the first pack and the second pack of the first and second pair of packs vertically spaced from each other in the horizontal transport device by providing a partition element in between the first pack and the second pack of the first and second pair of packs, wherein the partition element is arranged stationary in the horizontal transport device. - arranging a first pair of packs on a horizontal transport device, - transporting the first pair of packs in a horizontal direction in the horizontal transport device; - arranging a second pair of packs on the horizontal transport device;
A blocked prepolymer which is the reaction product of at least: (a) an isocyanate terminated prepolymer which is the reaction product of at least: one or more polyols comprising at least one polyol having a secondary amine initiator or a tertiary amine initiator; and a stoichiometric excess of one or more organic polyisocyanate components; and (b) a blocking agent; wherein the stoichiometric excess of isocyanate to alcohol moieties (NCO:OH) is from 1.1:1 to 4:1. (a) an isocyanate terminated prepolymer which is the reaction product of at least: one or more polyols comprising at least one polyol having a secondary amine initiator or a tertiary amine initiator; and a stoichiometric excess of one or more organic polyisocyanate components; and one or more polyols comprising at least one polyol having a secondary amine initiator or a tertiary amine initiator; and a stoichiometric excess of one or more organic polyisocyanate components; and (b) a blocking agent;