mhurhangee/ep-ind-claims huggingface dataset:
Method for quantizing an interference profile for a wireless telecommunication system along a path that a moving device takes, wherein the method comprises the steps of: - obtaining, by the moving device, during a measurement window, measurements related to interference in the wireless telecommunication system along the path, - processing, by the moving device, the measurements performed during the measurement window in order to obtain for consecutive time periods of the measurement window at least a quantized interference related value from the measurements performed within the time period and a weight or a triplet comprising the weight which is representative of the number of measurements made within a time period index which have the same quantitized interference-related value. - transferring, by the moving device, feedback information which comprises at least the weights or triplets to a server through the wireless telecommunication system, - receiving, by the server, the feedback information, - determining, by the server, a location of the moving device along the path which corresponds to the measurement window, - converting, by the server, the feedback information in a format of a database composed of a matrix comprising locations and interference quantization values, - updating the database with the converted feedback information. - obtaining, by the moving device, during a measurement window, measurements related to interference in the wireless telecommunication system along the path, - processing, by the moving device, the measurements performed during the measurement window in order to obtain for consecutive time periods of the measurement window at least a quantized interference related value from the measurements performed within the time period and a weight or a triplet comprising the weight which is representative of the number of measurements made within a time period index which have the same quantitized interference-related value. - transferring, by the moving device, feedback information which comprises at least the weights or triplets to a server through the wireless telecommunication system, - receiving, by the server, the feedback information, - determining, by the server, a location of the moving device along the path which corresponds to the measurement window, - converting, by the server, the feedback information in a format of a database composed of a matrix comprising locations and interference quantization values, - updating the database with the converted feedback information.
A control system for at least one voltage converter having a plurality of cells in series wherein the module and phase components of an input voltage Vei relative to a frame of reference (d, q) are delivered to each cell, comprising an AC part and a DC part, characterized in that it includes a high speed current control loop relating to the AC part that delivers a control voltage Ve, and a lower speed voltage control loop relating to the cells that delivers an active power ψ i, such that: Ψ i = C i 2 ⁢ 2 R p ⁢ i ⁢ C i ⁢ Z i + d d ⁢ t ⁢ Z i _ r ⁢ e ⁢ f - K 1 ⁢ Z ⁢ i ⁢ E Z ⁢ i - K 2 ⁢ Z ⁢ i sign E Z ⁢ i where: • K 1zi and K 2zi are positive adjustment gains; • C i is the continuous capacitance of the capacitor Ci of each cell; • R pi is the losses associated with each cell; • Z i_ref is the referenced value of Zi=(U Dci) 2, U DCi being the direct voltage across the capacitor C i; and • E Zi is such that E Zi =Z i -Z i_ref, in that the link between these two control loops (20, 21) is obtained via the consumption of active power in the cells representing the output of the lower speed control loop, and in that it comprises means for obtaining a current reference i e _ r ⁢ e ⁢ f d for the high speed control loop, by effecting the summation ∑ψ i of the active power consumptions in the N cells with i e _ r ⁢ e ⁢ f d = ∑ i = 1 N Ψ i - V e q ⁢ i e _ r ⁢ e ⁢ f q V e d, and by making use of a phase locked loop on the control voltage V e. • K 1zi and K 2zi are positive adjustment gains; • C i is the continuous capacitance of the capacitor Ci of each cell; • R pi is the losses associated with each cell; • Z i_ref is the referenced value of Zi=(U Dci) 2, U DCi being the direct voltage across the capacitor C i; and • E Zi is such that E Zi =Z i -Z i_ref, in that the link between these two control loops (20, 21) is obtained via the consumption of active power in the cells representing the output of the lower speed control loop, and in that it comprises means for obtaining a current reference i e _ r ⁢ e ⁢ f d for the high speed control loop, by effecting the summation ∑ψ i of the active power consumptions in the N cells with i e _ r ⁢ e ⁢ f d = ∑ i = 1 N Ψ i - V e q ⁢ i e _ r ⁢ e ⁢ f q V e d, and by making use of a phase locked loop on the control voltage V e.
A remote control system comprising: a portable terminal; a server adapted to acquire position information of the portable terminal; and a control target apparatus controlled from the server, wherein the server adapted to store a remote control execution boundary where the control of the control target apparatus is started and a remote control execution check boundary present in a position farther from a base where the control target apparatus is set than the remote control execution boundary, when the portable terminal crosses the remote control execution check boundary while approaching the base, the server transmits a control execution check message for the control target apparatus to the portable terminal, and when the portable terminal crosses the remote control execution boundary while approaching the base, the server controls the control target apparatus according to presence or absence of a response to the control execution check message and the content of the response. a portable terminal; a server adapted to acquire position information of the portable terminal; and a control target apparatus controlled from the server, wherein the server adapted to store a remote control execution boundary where the control of the control target apparatus is started and a remote control execution check boundary present in a position farther from a base where the control target apparatus is set than the remote control execution boundary, when the portable terminal crosses the remote control execution check boundary while approaching the base, the server transmits a control execution check message for the control target apparatus to the portable terminal, and when the portable terminal crosses the remote control execution boundary while approaching the base, the server controls the control target apparatus according to presence or absence of a response to the control execution check message and the content of the response.
A method for, in particular rapid, cooling of at least one fluid, comprising: - providing a source of the fluid to be cooled; - flowing the fluid to be cooled through a pipeline; - injecting cryogen into the fluid; - first measuring a temperature of the flowing fluid in the pipeline with a first temperature sensor after the injecting the cryogen; - second measuring the temperature of the flowing fluid with a second temperature sensor after the first measuring; and - adjusting a flow rate of the fluid through the pipeline responsive to a difference between temperature measurements of the first temperature sensor and the second temperature sensor while maintaining a rate of the injecting of the cryogen and maintaining a temperature difference between the first temperature sensor and the second temperature sensor. - providing a source of the fluid to be cooled; - flowing the fluid to be cooled through a pipeline; - injecting cryogen into the fluid; - first measuring a temperature of the flowing fluid in the pipeline with a first temperature sensor after the injecting the cryogen; - second measuring the temperature of the flowing fluid with a second temperature sensor after the first measuring; and - adjusting a flow rate of the fluid through the pipeline responsive to a difference between temperature measurements of the first temperature sensor and the second temperature sensor while maintaining a rate of the injecting of the cryogen and maintaining a temperature difference between the first temperature sensor and the second temperature sensor.
A method for determining a location of a fault in a mixed line comprising two or more sections, with a first substation (E M) at a first end of the mixed line and a second substation (E N) at a second end of the mixed line, wherein every two consecutive sections of the mixed line are separated at a junction, the method being performed by an Intelligent Electronic Device (14, 16), the method comprising: obtaining one or more measurements of current at the first end, from a current signal received from a measurement equipment of the first substation (E M); receiving one or more measurements of current at the second end, over a communication channel; estimating a value of current for each junction based on the one or more current measurements of current at the first end, equivalent source impedance (Z sM) of the first substation (E M), equivalent source impedance (Z sN) of the second substation (E N), and impedance of each section of the two or more sections; identifying a section of the two or more sections having the fault, based on a comparison between the value of current estimated for each junction and the one or more measurements of current at the second end; and determining a location of the fault in the section having the fault, wherein the location is identified based on the one or more current measurements of current at the first end, the one or more current measurements of current at the second end, equivalent source impedance (Z sM) of the first substation (E M), equivalent source impedance (Z sN) of the second substation (E N), and impedance of each section of the two or more sections. obtaining one or more measurements of current at the first end, from a current signal received from a measurement equipment of the first substation (E M); receiving one or more measurements of current at the second end, over a communication channel; estimating a value of current for each junction based on the one or more current measurements of current at the first end, equivalent source impedance (Z sM) of the first substation (E M), equivalent source impedance (Z sN) of the second substation (E N), and impedance of each section of the two or more sections; identifying a section of the two or more sections having the fault, based on a comparison between the value of current estimated for each junction and the one or more measurements of current at the second end; and determining a location of the fault in the section having the fault, wherein the location is identified based on the one or more current measurements of current at the first end, the one or more current measurements of current at the second end, equivalent source impedance (Z sM) of the first substation (E M), equivalent source impedance (Z sN) of the second substation (E N), and impedance of each section of the two or more sections.
A tube sheet (1, 20, 30) with a circumferential edge region (2, 22) for connection to a cover of a collecting tank, and with a base region with openings for accommodating tube ends, wherein the base region has webs (4, 21, 33) provided between adjacent openings, wherein the webs (4, 21, 33) connect the portions of the edge region (2, 22) situated on mutually opposing longitudinal sides, wherein at least one bead (5, 27) is provided that extends from the edge region (2, 22) with a limited extension only into one partial portion of a web (4, 33), wherein the edge region (2, 22) has a U-shaped cross-section with a first wall (6, 23), with a second wall (7, 25) and with a base (8, 24), wherein the first wall (6, 23) is arranged facing the webs (4, 21) and characterised in that the tube sheet, through the two beads arranged at the ends of the webs and the portion of the web of the tube sheet arranged in the centre between the beads, has a course which substantially forms three planes, wherein the base of the edge region forms the lower plane, the region of constant depth of the bead forms the middle plane and the region of the web corresponding the base region forms the upper plane, wherein the planes are connected to one another by respective inclined transitions and wherein the depth of the bead decreases with increasing distance from the respective first wall of the edge region.
A method of fabricating a nanowire-based semiconductor structure, the method comprising: forming a silicon-rich release layer (504, 508) above a substrate; forming a germanium-rich active layer (506, 510)) on the silicon-rich release layer; forming, from the germanium-rich active layer, a germanium-rich nanowire (506, 510); etching at least a portion of the silicon-rich release layer to form a discrete channel region for the germanium-rich nanowire (506, 510), the etching comprising etching the portion of the silicon-rich release layer while passivating exposed portions of the germanium-rich nanowire (506, 510); and forming a gate electrode stack completely surrounding the discrete channel region of the germanium-rich nanowire (506, 510), wherein etching the portion of the silicon-rich release layer while passivating exposed portions of the germanium-rich nanowire (506, 510) comprises etching with a wet etchant comprising an aqueous solution of (NH 4) 2 S with a % weigh in the range of 1 % - 25 % of (NH 4) 2 S. forming a silicon-rich release layer (504, 508) above a substrate; forming a germanium-rich active layer (506, 510)) on the silicon-rich release layer; forming, from the germanium-rich active layer, a germanium-rich nanowire (506, 510); etching at least a portion of the silicon-rich release layer to form a discrete channel region for the germanium-rich nanowire (506, 510), the etching comprising etching the portion of the silicon-rich release layer while passivating exposed portions of the germanium-rich nanowire (506, 510); and forming a gate electrode stack completely surrounding the discrete channel region of the germanium-rich nanowire (506, 510), wherein etching the portion of the silicon-rich release layer while passivating exposed portions of the germanium-rich nanowire (506, 510) comprises etching with a wet etchant comprising an aqueous solution of (NH 4) 2 S with a % weigh in the range of 1 % - 25 % of (NH 4) 2 S.
A mobile surgery imaging system including a C-arm and a smart handle apparatus configured to control movements of the imaging system, the smart handle apparatus comprising: - a handle bar for operating the smart handle apparatus; - a force determining device (708a, 708b, 708c); -- a button device (606a, 705a, 606b, 705b); - wherein the force determining device (708a, 708b, 708c) is adapted to determine the direction of a force applied to the handle bar in components of a three dimensional space; wherein the button device (606a, 705a, 606b, 705b) is adapted to select a first or second movement profile corresponding to respective groups of movements wherein, within a group, each movement is linkable to a corresponding direction component of the three dimensional space determined by the force determining device (708a, 708b, 708c); wherein the smart handle apparatus is adapted to provide a control signal for moving the mobile surgery imaging system, the control signal comprising information about a selected movement profile and a determined direction of the force applied to the handle bar. - a handle bar for operating the smart handle apparatus; - a force determining device (708a, 708b, 708c); -- a button device (606a, 705a, 606b, 705b); - wherein the force determining device (708a, 708b, 708c) is adapted to determine the direction of a force applied to the handle bar in components of a three dimensional space;
A method for encapsulating an organic electronic element, comprising: forming an encapsulation layer to cover an entire surface of an organic electronic element, the forming of the encapsulation layer including the following steps: applying an ink composition on a substrate on which an organic electronic element is formed: and applying vibration to the applied ink composition at an intensity of 0.5 KHz to 150 KHz; wherein the ink composition comprises an epoxy compound and a compound having an oxetane group in an amount of 45 parts by weight to 145 parts by weight relative to 100 parts by weight of the epoxy compound, wherein applying the vibration proceeds in a range of 30 seconds to 300 seconds. forming an encapsulation layer to cover an entire surface of an organic electronic element, the forming of the encapsulation layer including the following steps: applying an ink composition on a substrate on which an organic electronic element is formed: and applying vibration to the applied ink composition at an intensity of 0.5 KHz to 150 KHz; wherein the ink composition comprises an epoxy compound and a compound having an oxetane group in an amount of 45 parts by weight to 145 parts by weight relative to 100 parts by weight of the epoxy compound, wherein applying the vibration proceeds in a range of 30 seconds to 300 seconds. applying an ink composition on a substrate on which an organic electronic element is formed: and applying vibration to the applied ink composition at an intensity of 0.5 KHz to 150 KHz; wherein the ink composition comprises an epoxy compound and a compound having an oxetane group in an amount of 45 parts by weight to 145 parts by weight relative to 100 parts by weight of the epoxy compound, wherein applying the vibration proceeds in a range of 30 seconds to 300 seconds.
A microemulsion flowback aid composition effective in aiding flowback of stimulation fluid from an oil or gas well and enhancing relative oil and gas permeability when applied with stimulation fluids to the oil or gas well, the microemulsion flowback aid composition comprising: (i) an oil-like phase comprising at least one nonionic surfactant having a hydrophilic-lipophilic balance of less than 9; (ii) a coupling agent capable of stabilizing the microemulsion flowback aid composition, wherein the coupling agent is a water-soluble organic solvent; (iii) at least one water-soluble or dispersible nonionic surfactant that is different from the at least one nonionic surfactant in the oil-like phase; (iv) at least one additional surfactant selected from anionic, cationic, amphoteric, and combinations thereof; and (v) water, further comprising at least one nonionic demulsifier, wherein the at least one nonionic demulsifier is selected from at least one of the following: polyethylenimine alkoxylates, alkoxylated alkyl phenol formaldehyde resins, alkoxylated amine-modified alkylphenol formaldehyde resins, ethylene oxide/propylene oxide copolymers, cross-linked ethylene oxide/propylene oxide copolymers, alkoxylated sorbitan esters, and mixtures thereof.
A rotary machine for mixing, pumping or agitating a fluid comprising an impeller for acting on the fluid, a drive unit for rotating the impeller around a rotation axis, a drive shaft connecting the impeller with the drive unit, a mounting flange for fastening the rotary machine to a wall of a vessel, and a support structure for supporting the rotary machine, wherein the support structure comprises at least one leg, each leg extending in a vertical plane from a first end along a longitudinal axis to a second end, characterized in that each leg comprises an outer member and an inner member coaxially arranged in the outer member, wherein the inner member is slidingly movable relative to the outer member for adjusting the length of the respective leg and wherein each leg comprises a mounting plate at the first end of the respective leg for mounting the leg to a housing part of the rotary machine, and a base plate at the second end of the respective leg for connecting the leg to a foundation or the ground.
A method of differentiating pluripotent stem cells in liver and/or in liver-like cells including hepatocytes like cells (HEP-LC), endothelial like cells and biliary like cells, the method comprising steps of: seeding the pluripotent stem cells in a petri dish provided with seeding medium; starting to differentiate the pluripotent stem cells in the petri dish; transferring cells from said petri dish into a chamber of a bioreactor when said cells reach their progenitor stage where a premature hepatoblast is formed and where said cells are in a form of all the subtypes of premature liver like cells adhered together.; and maturing the cells in the chamber, where the cells are in the form of all the subtypes of premature liver like cells adhered together, wherein the chamber includes a concave or a convex floor, fluid of medium flows in the chamber and oxygen is supplied into the chamber. seeding the pluripotent stem cells in a petri dish provided with seeding medium; starting to differentiate the pluripotent stem cells in the petri dish; transferring cells from said petri dish into a chamber of a bioreactor when said cells reach their progenitor stage where a premature hepatoblast is formed and where said cells are in a form of all the subtypes of premature liver like cells adhered together.; and maturing the cells in the chamber, where the cells are in the form of all the subtypes of premature liver like cells adhered together, wherein the chamber includes a concave or a convex floor, fluid of medium flows in the chamber and oxygen is supplied into the chamber.
CVT gearbox comprising: - a first cap V-pulley pair with a positionally fixed V-pulley and an axially movable V-pulley, - an output element, - a wrap-around means, which connects the first V-pulley pair to the output element, - an actuating device for adjusting the axially movable V-pulley, by means of an actuator drive, and - a control unit which is configured to actuate the actuating means in order to bring about adjustment of the axially movable V-pulley, characterized in that the control unit is configured to actuate the actuating device on the basis of a primary rotational speed (nmot) of the first V-pulley pair, a secondary rotational speed (nsec) of the output element, an engine torque (Mmot) of a drive engine and an adjustment speed (ds/dt) of the actuating device. - a first cap V-pulley pair with a positionally fixed V-pulley and an axially movable V-pulley, - an output element, - a wrap-around means, which connects the first V-pulley pair to the output element, - an actuating device for adjusting the axially movable V-pulley, by means of an actuator drive, and - a control unit which is configured to actuate the actuating means in order to bring about adjustment of the axially movable V-pulley, characterized in that the control unit is configured to actuate the actuating device on the basis of a primary rotational speed (nmot) of the first V-pulley pair, a secondary rotational speed (nsec) of the output element, an engine torque (Mmot) of a drive engine and an adjustment speed (ds/dt) of the actuating device.