mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for circumferentially orienting a downhole latch assembly in a wellbore, the latch assembly having a plurality of latch keys including a primary latch key, the apparatus comprising: a casing string positionable in the wellbore; a window joint interconnected in the casing string; a latch coupling interconnected in the casing string downhole of the window joint, the latch coupling having a latch profile; and an orienting subassembly interconnected in the casing string, the orienting subassembly having an orienting profile positioned uphole of the latch profile, wherein, after operable engagement of the primary latch key with the orienting profile, axial alignment of the latch assembly with the latch coupling causes operable engagement of the latch keys with the latch profile, wherein the orienting subassembly further comprises at least one axially extending slot in the latch coupling or at least two axially extending rails having a channel therebetween in the latch coupling. a casing string positionable in the wellbore; a window joint interconnected in the casing string; a latch coupling interconnected in the casing string downhole of the window joint, the latch coupling having a latch profile; and an orienting subassembly interconnected in the casing string, the orienting subassembly having an orienting profile positioned uphole of the latch profile, wherein, after operable engagement of the primary latch key with the orienting profile, axial alignment of the latch assembly with the latch coupling causes operable engagement of the latch keys with the latch profile,
A silicon nanoparticles characterised in that they comprise a silicon core of a size of 1 to 10 nm and are terminated with allylamine or poly(allylamine) comprising up to 10 allylamine groups, wherein the nanoparticles are a. mono-functionalised or multi-functionalised with a functional group selected from the group comprising a luminescent compound, a fluorescent compound, a light absorbing compound, a radioactive compound, a metal compound that can be visualized using x-rays, a compound that can be visualized using magnetic resonance imaging, a compound that can be visualized using ultrasound or microwave, a lunininescent/fluorescent material that can be utilized in optical imaging, a contrast-giving agent that can be imaged by X-ray computed tomography or an isotope that can be imaged by positron emission tomography or single photon emission computed tomography (SPECT); and/or b. bound to targeting molecules and/or therapeutically relevant molecules selected from the group comprising toxins, radionuclides and chemotherapeutics. a. mono-functionalised or multi-functionalised with a functional group selected from the group comprising a luminescent compound, a fluorescent compound, a light absorbing compound, a radioactive compound, a metal compound that can be visualized using x-rays, a compound that can be visualized using magnetic resonance imaging, a compound that can be visualized using ultrasound or microwave, a lunininescent/fluorescent material that can be utilized in optical imaging, a contrast-giving agent that can be imaged by X-ray computed tomography or an isotope that can be imaged by positron emission tomography or single photon emission computed tomography (SPECT); and/or b. bound to targeting molecules and/or therapeutically relevant molecules selected from the group comprising toxins, radionuclides and chemotherapeutics.
A method, comprising: receiving, by a customer premises equipment, CPE, computing device, user input identifying a software application; determining, by the CPE computing device, whether a data packet received by the CPE computing device is associated with the software application; associating, by the CPE computing device, a priority indicator with the data packet, the priority indicator being based on whether the data packet is associated with the software application; sending, by the CPE computing device to a network, the data packet having the priority indicator; receiving, by the CPE computing device, user input identifying a local device coupled to the CPE computing device; and determining whether the data packet identifies the local device, wherein the priority indicator further is based on whether the data packet identifies the local device. receiving, by a customer premises equipment, CPE, computing device, user input identifying a software application; determining, by the CPE computing device, whether a data packet received by the CPE computing device is associated with the software application; associating, by the CPE computing device, a priority indicator with the data packet, the priority indicator being based on whether the data packet is associated with the software application; sending, by the CPE computing device to a network, the data packet having the priority indicator; receiving, by the CPE computing device, user input identifying a local device coupled to the CPE computing device; and determining whether the data packet identifies the local device, wherein the priority indicator further is based on whether the data packet identifies the local device.
A method for producing a solar panel built up of a plurality of layers, wherein one layer is pre-heated and put together under vacuum or gas atmosphere with at least one other layer, wherein the pre-heated layer has a large heat capacity as compared to at least one of the other layers, wherein the pre-heated layer forms an outer layer of the solar panel, wherein the pre-heated layer is formed of ceramic or glass.
A battery sampling chip, comprising: a selector module, comprising: a first multiplexer and a second multiplexer, the first multiplexer and the second multiplexer being both used to collect status data of a first group of cells; an analog-to-digital conversion module connected with the first multiplexer and the second multiplexer, the analog-to-digital conversion module being used to send a first abnormality feedback instruction to the first multiplexer and the second multiplexer when the status data of the first group of cells respectively collected by the first multiplexer and the second multiplexer are different, and perform analog-to-digital conversion on the status data of the first group of cells when the status data of the first group of cells respectively collected by the first multiplexer and the second multiplexer are the same; and a data control module, connected with the analog-to-digital conversion module, the data control module being used to receive converted status data sent by the analog-to-digital conversion module, and send alarm information when the converted status data sent by the analog-to-digital conversion module are not received within a preset duration. a selector module, comprising: a first multiplexer and a second multiplexer, the first multiplexer and the second multiplexer being both used to collect status data of a first group of cells; an analog-to-digital conversion module connected with the first multiplexer and the second multiplexer, the analog-to-digital conversion module being used to send a first abnormality feedback instruction to the first multiplexer and the second multiplexer when the status data of the first group of cells respectively collected by the first multiplexer and the second multiplexer are different, and perform analog-to-digital conversion on the status data of the first group of cells when the status data of the first group of cells respectively collected by the first multiplexer and the second multiplexer are the same; and a data control module, connected with the analog-to-digital conversion module, the data control module being used to receive converted status data sent by the analog-to-digital conversion module, and send alarm information when the converted status data sent by the analog-to-digital conversion module are not received within a preset duration.
A sill structure for a vehicle, said sill structure comprising - an outer member, - an inner member, located laterally inside said outer member as seen in a transverse direction of said vehicle, - a reinforcement member, located laterally between said outer member and said inner member as seen in said transverse direction of said vehicle, wherein an upper end portion of said inner member is attached to said reinforcement member in a first connection, an upper end portion of said outer member is attached to said reinforcement member in a second connection, a lower end portion of said inner member is attached to said reinforcement member and to a lower end portion of said outer member in a third connection being located vertically below and separate from said first connection and said second connection, said reinforcement member extends in a straight way or substantially straight way between said second connection and said third connection; characterized in that said second connection is located vertically below and separate from said first connection. - an outer member, - an inner member, located laterally inside said outer member as seen in a transverse direction of said vehicle, - a reinforcement member, located laterally between said outer member and said inner member as seen in said transverse direction of said vehicle,
Blade (33; 34) for a turbomachine (10,20), in particular a rotor blade or guide vane, in particular for a gas turbine, in particular for an aircraft engine, in particular for a turbine stage of a gas turbine, the blade (33; 34) having an airfoil (13, 23; 24) which has an airfoil profile and a radially inner airfoil end and a radially outer airfoil end, the blade (33; 34), in particular the airfoil (13, 23; 24), in addition to the airfoil profile, having at least one first guide profile which is arranged in the region of the radially inner airfoil end and/or the radially outer airfoil end and at a distance from the associated blade end (EI, EA) in the radial direction and extends at least in part in the axial direction (x) and at least in part in the circumferential direction and/or in the tangential direction, the airfoil profile having a main flow portion having a main profile (43, 47) and a main profile geometry and at least one secondary portion having a secondary profile (44, 46) and a secondary profile geometry, characterized in that the secondary profile (44, 46) of at least one secondary portion has a profile leading edge which is curved toward the suction side of the associated main profile portion, and/or has an S-shape in the direction of flow.
A method of producing a high titer of Hepatitis E Virus, the method comprising: a) culturing a cell line in vitro, wherein the cell line is HepG2 deposited under ATCC number HB-8065 or HepG2/C3A deposited under ATCC number CRL-10741, in a medium comprising polybrene in a concentration of about 1 μg/ml - about 5 μg/ml, and; b) infecting the cell line with HEV. a) culturing a cell line in vitro, wherein the cell line is HepG2 deposited under ATCC number HB-8065 or HepG2/C3A deposited under ATCC number CRL-10741, in a medium comprising polybrene in a concentration of about 1 μg/ml - about 5 μg/ml, and; b) infecting the cell line with HEV.
Method for manufacturing a floor covering product, wherein this method comprises at least a first step of forming a single- or multi-layered substrate by consolidating synthetic material-based starting material, as well as comprises a second step after the first step, which preferably is performed in line with the first step, wherein at least one continuous film is laminated onto the substrate, wherein said laminating is performed by means of a belt press, wherein a belt press is applied which is made as a double belt press and impressions are provided in the upper side of the floor covering product, wherein said continuous film is a decor film comprising a printed decor, characterized in that this film, prior to laminating, is subjected to controlled stretching in order to stretch the decor to a greater or lesser extent, in the width and/or length, such that the decor is adjusted in function of the desired final result, wherein said impressions are realized as so-called "in register" with the decor.
A method (600, 700, 800) of fabricating a microfluidic channel filter, comprising: depositing (602, 702, 802) an imprintable material in a microfluidic channel; pressing (604, 714, 804) an imprint stamp having a topological filter pattern into the imprintable material; curing (606, 718, 806) the imprintable material; and removing (608, 720, 806) the imprint stamp from the imprintable material, leaving the topological filter pattern formed in the imprintable material. depositing (602, 702, 802) an imprintable material in a microfluidic channel; pressing (604, 714, 804) an imprint stamp having a topological filter pattern into the imprintable material; curing (606, 718, 806) the imprintable material; and removing (608, 720, 806) the imprint stamp from the imprintable material, leaving the topological filter pattern formed in the imprintable material.
A power-source voltage diagnostic device of an electric power steering apparatus that drives a motor by means of a current command value calculated based on at least a steering torque and assist-controls a steering system through a reduction mechanism, wherein said power-source voltage diagnostic device comprising: a detecting section (Vbat1-detecting circuit, 62) to detect a control voltage from a power source circuit for control; two detecting circuits (VR-detecting circuit 1, VR-detecting circuit 2) to detect power-source voltages from said power source circuit; and a diagnostic section to diagnose based on an output Vbat1 from a detecting section of said control voltage and respective output voltages (VR1, VR2) from said detecting circuits (VR-detecting circuit 1, VR-detecting circuit 2) of said power-source voltage; wherein said diagnostic section supervises a correlation between said output Vbat1 from said detecting section of said control voltage and said respective output voltages (VR1, VR2) from said detecting circuits (64, 66) of said power-source voltage and performs a failure diagnosis; and wherein a VR-failure place judgment is performed when an extraordinary state is detected by said failure diagnosis, and said VR-failure place judgment judges either detecting circuit of said VR-detecting circuit 1 and said VR-detecting circuit 2 is an extraordinary state, characterized in that a supervision of said correlation is performed by said failure diagnosis that gets a ratio between said output voltage VR1 and said output voltage VR2 and judges whether a size of said ratio is between diagnostic thresholds A and B or not. a detecting section (Vbat1-detecting circuit, 62) to detect a control voltage from a power source circuit for control; two detecting circuits (VR-detecting circuit 1, VR-detecting circuit 2) to detect power-source voltages from said power source circuit; and a diagnostic section to diagnose based on an output Vbat1 from a detecting section of said control voltage and respective output voltages (VR1, VR2) from said detecting circuits (VR-detecting circuit 1, VR-detecting circuit 2) of said power-source voltage; wherein said diagnostic section supervises a correlation between said output Vbat1 from said detecting section of said control voltage and said respective output voltages (VR1, VR2) from said detecting circuits (64, 66) of said power-source voltage and performs a failure diagnosis; and wherein a VR-failure place judgment is performed when an extraordinary state is detected by said failure diagnosis, and said VR-failure place judgment judges either detecting circuit of said VR-detecting circuit 1 and said VR-detecting circuit 2 is an extraordinary state, characterized in that a supervision of said correlation is performed by said failure diagnosis that gets a ratio between said output voltage VR1 and said output voltage VR2 and judges whether a size of said ratio is between diagnostic thresholds A and B or not.
Electric motor, in particular a cooling fan motor of a motor vehicle, having a rotor rotatably mounted relative to a stator and having a motor mount having an electronics compartment for receiving an inverter electronics system, said motor mount having through openings inside the electronics compartment, wherein the winding ends (31, 31a, 31b) of a stator-side rotating field winding are introduced into the electronics compartment via sealing elements, wherein the sealing elements sit in the respective through opening with a comparatively soft sealing component, characterised in that - each of the sealing elements has a comparatively hard support component that protrudes on the mount side of the motor mount facing towards the stator, and - each sealing element sits with its comparatively hard support component in a receiving pocket of a plastic casing of the stator. - each of the sealing elements has a comparatively hard support component that protrudes on the mount side of the motor mount facing towards the stator, and - each sealing element sits with its comparatively hard support component in a receiving pocket of a plastic casing of the stator.
A method for producing a reduced substance in which an oxide is at least partially reduced while an organic compound and the oxide are heated, the method comprising a reduction step in which the organic compound is brought into contact with the oxide when the organic compound is in a molten state, wherein the organic compound is a carbonaceous reductant which includes at least one substance selected from a solvent extract of coal, wherein the organic compound changes to a molten state at less than 500°C, wherein the amount of the organic compound is 25 to 1000 parts by mass relative to 100 parts by mass of the oxide, and wherein the reduction reaction occurs in a temperature range of more than 300°C to 400°C.
An apparatus comprising: two or more soft robotic actuators (30, 2702) configured to grasp an object, the soft robotic actuators (30, 2702) comprising a hollow body including an elastomeric material, the hollow body configured to accept an inflation fluid; a hub (20, 2704) comprising an interface for connecting to the two or more soft robotic actuators (30, 2702); and an angular adjustment device (31, 32) for adjusting an angle of the two or more soft robotic actuators (30, 2702) relative to the hub (20, 2704) or relative to each other, or for adjusting a position of the two or more soft robotic actuators (30, 2702) relative to the hub (20, 2704) or relative to each other, wherein the angular adjustment device (31, 32) is configured to deflect the two or more soft robotic actuators (30, 2702) toward or away from a central axis of the hub (20, 2704), and wherein the angular adjustment device (31, 32) comprises one or more soft angle adjusters formed of an elastomeric material arranged in an accordion structure that is configured to unfold under pressure, and being disposed adjacent to the two or more soft robotic actuators, the soft angle adjusters being configured to be inflated independently of the soft robotic actuators to alter an angle between the soft robotic actuators. two or more soft robotic actuators (30, 2702) configured to grasp an object, the soft robotic actuators (30, 2702) comprising a hollow body including an elastomeric material, the hollow body configured to accept an inflation fluid; a hub (20, 2704) comprising an interface for connecting to the two or more soft robotic actuators (30, 2702);
A method for detecting the specific heat flow of a heat source to an elongated coolant-carrying pipe in a steam generator, said pipe being aligned at an angle >1° from the horizontal, characterized in that the temperature is measured on said pipe at at least two measurement points A and B, wherein A, viewed relative to the coolant flow direction, is located behind B, which in the case of vertical rising pipes means that the arrangement corresponds to a positioning of A above B, and wherein the temperature difference is determined between A and B, and that, in addition, a base temperature is measured at a point Z, wherein, relative to the coolant flow, said point Z is located in front of points A and B, below B, on the same pipe or on a lower collecting tank for the coolant and each of the measured temperatures is put into relation to said base temperature by determining the difference of the measured temperatures relative to a base temperature measured at point Z.
A gas heating device for use in a deposition system, comprising: a heating element array having a plurality of heating element zones (55A,55B,55C) configured to receive a flow of a film forming composition across or through said plurality of heating element zones (55A,55B,55C) and cause pyrolysis of one or more constituents of said film forming composition when heated, each of said plurality of heating element zones (55A,55B,55C) comprises one or more resistive heating elements, wherein each of said plurality of heating element zones (55A,55B,55C) is configured electrically independent of one another, and wherein each of said plurality of heating element zones (55A,55B,55C) is arranged to interact with at least a portion of said flow, and affect pyrolysis of and delivery of said film forming composition to different regions of a substrate; one or more power sources coupled to said heating element array, and configured to provide an electrical signal to each of said plurality of heating element zones (55A,55B,55C); and a positioning device coupled to at least one of said plurality of heating element zones (55A,55B,55C) in said heating element array, and configured to adjust a position of at least one of said plurality of heating element zones (55A,55B,55C) relative to a surface of said substrate. a heating element array having a plurality of heating element zones (55A,55B,55C) configured to receive a flow of a film forming composition across or through said plurality of heating element zones (55A,55B,55C) and cause pyrolysis of one or more constituents of said film forming composition when heated, each of said plurality of heating element zones (55A,55B,55C) comprises one or more resistive heating elements, wherein each of said plurality of heating element zones (55A,55B,55C) is configured electrically independent of one another, and wherein each of said plurality of heating element zones (55A,55B,55C) is arranged to interact with at least a portion of said flow, and affect pyrolysis of and delivery of said film forming composition to different regions of a substrate; one or more power sources coupled to said heating element array, and configured to provide an electrical signal to each of said plurality of heating element zones (55A,55B,55C); and a positioning device coupled to at least one of said plurality of heating element zones (55A,55B,55C) in said heating element array, and configured to adjust a position of at least one of said plurality of heating element zones (55A,55B,55C) relative to a surface of said substrate.