mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the position of a downhole tubular string (15, 315) in a wellbore, comprising: placing a tubular string (15, 315) into a wellbore (10, 310) having at least one radioactive source, the tubular string having a depth measurement module; obtaining a plurality of downhole parameter measurements, wherein at least one downhole parameter is a function of depth; obtaining a plurality of radiation intensity measurements; determining a length change, L Δ, of the tubular string in the wellbore utilized in order to obtain the plurality of downhole parameter measurements and the plurality of radiation intensity measurements; and determining the location of the depth measurement module in the wellbore based on a correlation of the plurality of downhole parameter measurements, the plurality of radiation intensity measurements, and the length change L Δ of the tubular string in the wellbore. placing a tubular string (15, 315) into a wellbore (10, 310) having at least one radioactive source, the tubular string having a depth measurement module; obtaining a plurality of downhole parameter measurements, wherein at least one downhole parameter is a function of depth; obtaining a plurality of radiation intensity measurements; determining a length change, L Δ, of the tubular string in the wellbore utilized in order to obtain the plurality of downhole parameter measurements and the plurality of radiation intensity measurements; and determining the location of the depth measurement module in the wellbore based on a correlation of the plurality of downhole parameter measurements, the plurality of radiation intensity measurements, and the length change L Δ of the tubular string in the wellbore.
An apparatus comprising: a rotor (302, 402, 502) having a base (312, 412, 512) with a first side and a second side opposite the first side, the rotor (302, 402, 502) further including: an outer annular wall (306, 406, 506) extending from the first side and defining a plurality of slots (318, 418, 518), an inner annular wall (308, 408, 508) defining a plurality of slots (320, 416, 514) and extending from the first side and surrounded by, and spaced apart from, the outer annular wall (306, 406, 506), and characterized by blades (310, 410, 510) extending from the first side and positioned within the inner annular wall (308, 408, 508). an outer annular wall (306, 406, 506) extending from the first side and defining a plurality of slots (318, 418, 518), an inner annular wall (308, 408, 508) defining a plurality of slots (320, 416, 514) and extending from the first side and surrounded by, and spaced apart from, the outer annular wall (306, 406, 506), and characterized by blades (310, 410, 510) extending from the first side and positioned within the inner annular wall (308, 408, 508).
A system comprising: a data collection device, connected to a corresponding data terminal via a primary communication channel, and a central connectivity point connected to the data collection device via a wireless secondary communication channel so as to communicate with the data collection device without disrupting communication between the data collection device and the corresponding data terminal via the primary communication channel; wherein the central connectivity point is adapted to remotely administer the data collection device via the secondary communication channel, comprising the central connectivity point being adapted to transmit a license to the data collection device via the secondary communication channel, the license enabling use of at least one feature of the data collection device. a data collection device, connected to a corresponding data terminal via a primary communication channel, and a central connectivity point connected to the data collection device via a wireless secondary communication channel so as to communicate with the data collection device without disrupting communication between the data collection device and the corresponding data terminal via the primary communication channel; wherein the central connectivity point is adapted to remotely administer the data collection device via the secondary communication channel, comprising the central connectivity point being adapted to transmit a license to the data collection device via the secondary communication channel, the license enabling use of at least one feature of the data collection device.
Storage device for products, comprising at least two parallel transport elements (4, 5) with opposed transport directions (A, B) and having at least one transfer element, which has at least one transfer section which extends over the transport elements (4, 5) for transferring the products from a first storage section (8.1), which is formed on a first of the transport elements (4, 5) which conveys in the direction towards the transfer section to a second storage section (8.2), which is formed on a second of the transport elements (4, 5) which conveys away from the transfer section, and having an actuating drive (15, 22) for adjusting the transfer element by moving along the transport sections (4, 5) in order to change the receiving capacity of the storage sections (8.1, 8,2), wherein the storage sections (8.1, 8.2) form a transport plane, and wherein the actuating drive (15, 22) is arranged below the transport plane of the storage sections (8.1, 8.2), characterised in that for controlling or regulating the receiving capacity of the storage device a sensor system is provided, with at least one electronic camera, which is formed such as to acquire the degree of occupation of the storage sections (8.1, 8.2) and is connected to an electronic control device, wherein the image data provided by the electronic camera is analysed by the control device and is evaluated for the active controlling of the transfer element and the transport elements (4, 5), wherein the transport elements (4,5) or their transport speed can be controlled independently of the adjustment of the transfer element.
A 3D visual monitoring method for a building, comprising steps of: acquiring a BIM model and sensor data of a building, the sensor data being collected by a sensor arranged in a building area; characterized by: parsing the acquired BIM model, wherein parsing the acquired BIM model comprises converting the file format of the acquired BIM model to generate an intermediate data file and generating the parsed BIM model based on the intermediate data file, the parsed BIM model only including required data information, such that the parsed BIM model is smaller than the BIM model; integrating the sensor data into the parsed BIM model; and transmitting the integrated BIM model to a display terminal, for use in a monitoring operation of the building. parsing the acquired BIM model, wherein parsing the acquired BIM model comprises converting the file format of the acquired BIM model to generate an intermediate data file and generating the parsed BIM model based on the intermediate data file, the parsed BIM model only including required data information, such that the parsed BIM model is smaller than the BIM model; integrating the sensor data into the parsed BIM model; and transmitting the integrated BIM model to a display terminal, for use in a monitoring operation of the building.
A method of coupling a first simulator and a second simulator to simulate a coupled multi-physics model of a subsurface formation, wherein the first simulator comprises a first physics model and the second simulator comprises a second physics model, the method comprising: loading, by a coupling framework, the second simulator as a shared library into a common process and a common memory space with the first simulator to create the coupled multi-physics model of the subsurface formation; and simulating, by the coupling framework, the coupled multi-physics model of the subsurface formation such that the coupling framework performs the following during the simulating to couple the first simulator and the shared library corresponding to the second simulator: controls data exchange between the first simulator and the second simulator through the common memory space; and controls execution of the first simulator and the second simulator responsive to the common process, wherein the coupling framework maps data between the first simulator and the second simulator in the event of grid misalignment. loading, by a coupling framework, the second simulator as a shared library into a common process and a common memory space with the first simulator to create the coupled multi-physics model of the subsurface formation; and simulating, by the coupling framework, the coupled multi-physics model of the subsurface formation such that the coupling framework performs the following during the simulating to couple the first simulator and the shared library corresponding to the second simulator: controls data exchange between the first simulator and the second simulator through the common memory space; and controls execution of the first simulator and the second simulator responsive to the common process, wherein the coupling framework maps data between the first simulator and the second simulator in the event of grid misalignment. controls data exchange between the first simulator and the second simulator through the common memory space; and controls execution of the first simulator and the second simulator responsive to the common process, wherein the coupling framework maps data between the first simulator and the second simulator in the event of grid misalignment.
A method for the isolation of ε-caprolactam from the upper lactam phase obtained by separation from the sulphate phase after neutralization of the reaction mixture obtained from the Beckmann cyclohexyl oxime rearrangement with ammonia, characterized in that the upper lactam phase is first distilled at a reduced or atmospheric pressure, by which means the water content in it is reduced to 5 to 10 % by weight, whereupon the solid phase formed by distillation is mechanically removed therefrom and the concentrated mixture thus obtained is distilled at a pressure of 0.1 to 4 kPa, whereby non-volatile components are removed therefrom, then in the distillate thus obtained the ε-caprolactam concentration is adjusted to 30 to 70 % by weight by adding at least one solvent selected from the group consisting of water, methanol, ethanol, propanol, isopropyl alcohol, or a mixture of at least two of them, and the mixture thus formed is refined by hydrogen at a temperature of 100 to 150 °C and a hydrogen pressure of 1 to 10 MPa in the presence of a supported heterogeneous catalyst which comprises at least one noble metal selected from the group consisting of Pd, Pt, Ru, whereby the multiple bonds of the impurities present, which absorb radiation at a wavelength of 290 nm, are reduced, and afterwards, the raffinate thus obtained is rectified in a series of at least two rectification columns operating at a pressure of 0.05 to 4 kPa with a cumulative minimum column system efficiency of 10 theoretical plates, whereby light fractions and heavy residues are separated from the raffinate by rectification, thereby isolating ε-caprolactam therefrom.
A fluorene oxime ester compound represented by the following Chemical Formula 1: where, R 1 is (C 1 -C 20)alkyl; R 2 is hydrogen, halogen, (C 1 -C 20)alkyl, (C 6 -C 20)aryl, (C 1 -C 20)alkoxy, (C 6 -C 20)aryl(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkoxy(C 1 -C 20)alkyl, or (C 3 -C 20)cycloalkyl; R 3 is hydrogen, halogen, (C 1 -C 20)alkyl, (C 6 -C 20)aryl, (C 1 -C 20)alkoxy, (C 6 -C 20)aryl(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkoxy(C 1 -C 20)alkyl, or (C 3 -C 20)cycloalkyl; and A is hydrogen, (C 1 -C 20)alkyl, (C 6 -C 20)aryl, (C 1 -C 20)alkoxy, (C 6 -C 20)aryl(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkoxy(C 1 -C 20)alkyl, (C 3 -C 10)cycloalkyl, amino, nitro, cyano, or hydroxyl. R 1 is (C 1 -C 20)alkyl; R 2 is hydrogen, halogen, (C 1 -C 20)alkyl, (C 6 -C 20)aryl, (C 1 -C 20)alkoxy, (C 6 -C 20)aryl(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkoxy(C 1 -C 20)alkyl, or (C 3 -C 20)cycloalkyl; R 3 is hydrogen, halogen, (C 1 -C 20)alkyl, (C 6 -C 20)aryl, (C 1 -C 20)alkoxy, (C 6 -C 20)aryl(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkoxy(C 1 -C 20)alkyl, or (C 3 -C 20)cycloalkyl; and A is hydrogen, (C 1 -C 20)alkyl, (C 6 -C 20)aryl, (C 1 -C 20)alkoxy, (C 6 -C 20)aryl(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkyl, hydroxy(C 1 -C 20)alkoxy(C 1 -C 20)alkyl, (C 3 -C 10)cycloalkyl, amino, nitro, cyano, or hydroxyl.
An oil drain structure of an oil mist separator that is configured to separate an oil mist from a blow-by gas of an internal combustion engine, and discharge the separated oil mist into an interior of the internal combustion engine while supplying the gas from which the oil mist is separated to an intake system, the oil drain structure comprising: a drain pipe extending from the oil mist separator into the internal combustion engine, the drain pipe having an oil discharge hole extending through a lower end portion of the drain pipe along an axial direction of the drain pipe; and a check valve configured to open and close the oil discharge hole, the check valve comprising: a valve body disposed below the lower end portion of the drain pipe, the valve body acting to open and close the oil discharge hole from a side of a lower end surface of the lower end portion of the drain pipe; a valve head portion fitted into the drain pipe with a fine clearance (ΔD) as an orifice, the valve head portion being moveable in the axial direction of the drain pipe and being formed into a spherical shape; and a stem portion extending through the oil discharge hole to connect the valve body and the valve head portion with each other, wherein the separated oil mist is allowed to flow through the fine clearance (ΔD), wherein the fine clearance (ΔD) is constant, regardless of upper and lower positions of the valve head portion. a drain pipe extending from the oil mist separator into the internal combustion engine, the drain pipe having an oil discharge hole extending through a lower end portion of the drain pipe along an axial direction of the drain pipe; and a check valve configured to open and close the oil discharge hole, the check valve comprising: a valve body disposed below the lower end portion of the drain pipe, the valve body acting to open and close the oil discharge hole from a side of a lower end surface of the lower end portion of the drain pipe; a valve head portion fitted into the drain pipe with a fine clearance (ΔD) as an orifice, the valve head portion being moveable in the axial direction of the drain pipe and being formed into a spherical shape; and a stem portion extending through the oil discharge hole to connect the valve body and the valve head portion with each other, a valve body disposed below the lower end portion of the drain pipe, the valve body acting to open and close the oil discharge hole from a side of a lower end surface of the lower end portion of the drain pipe; a valve head portion fitted into the drain pipe with a fine clearance (ΔD) as an orifice, the valve head portion being moveable in the axial direction of the drain pipe and being formed into a spherical shape; and a stem portion extending through the oil discharge hole to connect the valve body and the valve head portion with each other, wherein the separated oil mist is allowed to flow through the fine clearance (ΔD), wherein the fine clearance (ΔD) is constant, regardless of upper and lower positions of the valve head portion.
A floating farm for rearing an aquatic organism, the farm comprising at least three rigidly connected rearing units, each rearing unit being surrounded at its upper portion by a continuous wall formed of a rigid material, wherein the continuous wall of each rearing unit forms a continuous surface against the water in the rearing unit, the continuous wall of each rearing unit forms a floating body, at least in a portion, and the continuous wall of a first rearing unit and the continuous wall of a second rearing unit are rigidly connected to a connecting wall formed of a rigid material, the floating farm comprises a number of connecting walls which is equal to to the number of rearing units, the connecting walls between the at least three rearing units together with the rearing units, seen from above, forming a triangular shape, a rhomboidal shape or a pentagonal shape.
An oral care composition comprising an orally acceptable vehicle; metal oxide particles having an average particle size of from 1 to 7 microns and a polymeric adherent material, wherein the metal oxide comprises zinc oxide and is encapsulated in the polymeric adherent material; and wherein the polymeric adherent material comprises a mixture of two hydroxyalkyl cellulose polymers having different molecular weights and wherein at least one hydroxyalkyl cellulose polymer is selected from the group consisting of hydroxypropylmethyl cellulose (HPMC), hydroxyethylpropyl cellulose (HEPC) and hydroxybutylmethyl cellulose (HBMC); and the metal oxide is encapsulated in the mixture of two hydroxyalkyl cellulose polymers.
A process comprising: providing, at a pressure greater than 344738 Pa (50 psi), a pressurized fluid stream that is a saturated mixture of a gas and a liquid, where the pressurized fluid stream is free of bubbles; and then subjecting the pressurized fluid stream to at least 5 alternating flow regions that, each, include a laminar flow region and a turbulent flow region; wherein the laminar flow region and turbulent flow region are distinguished by their respective calculated Reynolds numbers which differ by at least 500; thereby providing a nanobubble fluid stream that includes a plurality of nanobubbles having a diameter of less than 250 nm. providing, at a pressure greater than 344738 Pa (50 psi), a pressurized fluid stream that is a saturated mixture of a gas and a liquid, where the pressurized fluid stream is free of bubbles; and then subjecting the pressurized fluid stream to at least 5 alternating flow regions that, each, include a laminar flow region and a turbulent flow region; wherein the laminar flow region and turbulent flow region are distinguished by their respective calculated Reynolds numbers which differ by at least 500; thereby providing a nanobubble fluid stream that includes a plurality of nanobubbles having a diameter of less than 250 nm.
A guide assembly for a folding door system, the guide assembly including a first body section for locating the assembly in a guide channel and a second body section for carrying a bolt that passes through a hinge for attachment to a folding panel, the second body section being operatively connected to the first body section by cooperating mountings such that in one mode the second body section is displaceable relative to the first body section, wherein the first body section comprises an elongated member, the second body section including a bolt support portion which can be oriented in different positions relative the first body section as a result of the relative displacement between the first and second body sections, and the second body section comprises an arm with the bolt support portion at one end thereof, and wherein the cooperating mountings comprise a socket and an insert.
A method characterized by: providing a structural body for use in a gas turbine engine, wherein the structural body includes a wall having a slot therein with an elongated cross-section, the slot extending through the wall from a first surface of the wall to a second surface of the wall; providing a heat exchanger being operably associated with a bracket; providing a slip joint including a standoff and a biasing element, wherein the standoff includes a hollow elongated member and a flange extending outwardly from the hollow elongated member, the biasing element positioned about the hollow elongated member; positioning the bracket adjacent the first surface of the wall; inserting the standoff through the slot from the second surface of the wall to the first surface of the wall such that the hollow elongated member is adjacent the bracket and such that the biasing element is positioned about the hollow elongated member between the second surface of the wall and the flange; and coupling the standoff to the bracket using a fastener inserted through the hollow elongated member such that the standoff transfers a first predetermined load to the second surface of the wall via the flange and the biasing element and transfers a second predetermined load to the bracket via the hollow elongated member to facilitate enabling the standoff to slide along the elongated cross-section of the slot, wherein the standoff is configured to limit the movement of the fastener relative to the bracket and so limit or preload compression of the biasing element. providing a structural body for use in a gas turbine engine, wherein the structural body includes a wall having a slot therein with an elongated cross-section, the slot extending through the wall from a first surface of the wall to a second surface of the wall; providing a heat exchanger being operably associated with a bracket; providing a slip joint including a standoff and a biasing element, wherein the standoff includes a hollow elongated member and a flange extending outwardly from the hollow elongated member, the biasing element positioned about the hollow elongated member; positioning the bracket adjacent the first surface of the wall; inserting the standoff through the slot from the second surface of the wall to the first surface of the wall such that the hollow elongated member is adjacent the bracket and such that the biasing element is positioned about the hollow elongated member between the second surface of the wall and the flange; and coupling the standoff to the bracket using a fastener inserted through the hollow elongated member such that the standoff transfers a first predetermined load to the second surface of the wall via the flange and the biasing element and transfers a second predetermined load to the bracket via the hollow elongated member to facilitate enabling the standoff to slide along the elongated cross-section of the slot, wherein the standoff is configured to limit the movement of the fastener relative to the bracket and so limit or preload compression of the biasing element.
A pneumatic tire comprising i) a tread, ii) a carcass having at least one belt ply disposed below the tread, and iii) a cap ply located between the carcass and the tread, wherein the cap ply comprises at least one layer of an open construction leno weave tape having warp yarns in the longitudinal direction and weft yarns in the weft direction, disposed in a flat helical pattern around the circumference of the carcass in the area of the at least one belt ply, wherein the outside edges of the leno tape each have a pair of warp yarns, which are continuous for the length of the leno tape. i) a tread, ii) a carcass having at least one belt ply disposed below the tread, and iii) a cap ply located between the carcass and the tread, wherein the cap ply comprises at least one layer of an open construction leno weave tape having warp yarns in the longitudinal direction and weft yarns in the weft direction, disposed in a flat helical pattern around the circumference of the carcass in the area of the at least one belt ply, wherein the outside edges of the leno tape each have a pair of warp yarns, which are continuous for the length of the leno tape.