mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a circuit including a controller device, an LED light string and a pulsed current driver of the LED light string, the circuit connected to a power source; a current sensor measuring a current through the circuit; and a detecting device determining an ON or OFF pulsed current state of the circuit, the detecting device receiving, from the controller device an expected current expected to be passing through the circuit based on an intensity of the LED light string, the expected current associated with the ON pulsed current state, the detecting device receiving a current measurement from the current sensor during a time when the circuit is in the ON pulsed current state, the detecting device determining a comparison between the current measurement and the expected current when the circuit is in an ON pulsed current state, the detecting device generating an output indicative of a health status of the circuit based on the comparison. a circuit including a controller device, an LED light string and a pulsed current driver of the LED light string, the circuit connected to a power source; a current sensor measuring a current through the circuit; and a detecting device determining an ON or OFF pulsed current state of the circuit, the detecting device receiving, from the controller device an expected current expected to be passing through the circuit based on an intensity of the LED light string, the expected current associated with the ON pulsed current state, the detecting device receiving a current measurement from the current sensor during a time when the circuit is in the ON pulsed current state, the detecting device determining a comparison between the current measurement and the expected current when the circuit is in an ON pulsed current state, the detecting device generating an output indicative of a health status of the circuit based on the comparison.
An ultrasonic diagnosis device comprising: an ultrasonic probe part that transmits/receives an ultrasonic wave; an image processing unit that generates a tomographic image of a tissue in a test subject based on a signal obtained from the ultrasonic probe part; an abdomen circumference measurement unit that generates a plurality of ellipses corresponding to an abdomen of the test subject from the tomographic image, and measures a circumference of the abdomen; and an output unit that displays a measurement result from the abdomen circumference measurement unit, wherein the abdomen circumference measurement unit comprises an abdomen candidate region detection unit to detect a rectangular region including the abdomen from the tomographic image, wherein the rectangular region is detected by using recognition processing using machine learning, an ellipse fitting unit to fit an ellipse to an abdomen contour in the extracted candidate region, and a measurement unit to measure the circumference of the fitted ellipse. an ultrasonic probe part that transmits/receives an ultrasonic wave; an image processing unit that generates a tomographic image of a tissue in a test subject based on a signal obtained from the ultrasonic probe part; an abdomen circumference measurement unit that generates a plurality of ellipses corresponding to an abdomen of the test subject from the tomographic image, and measures a circumference of the abdomen; and an output unit that displays a measurement result from the abdomen circumference measurement unit, wherein the abdomen circumference measurement unit comprises an abdomen candidate region detection unit to detect a rectangular region including the abdomen from the tomographic image, wherein the rectangular region is detected by using recognition processing using machine learning, an ellipse fitting unit to fit an ellipse to an abdomen contour in the extracted candidate region, and a measurement unit to measure the circumference of the fitted ellipse.
A method for the estimation of fluid saturation in a reservoir comprising the following steps: a) obtaining marine controlled-source electromagnetic (mCSEM) survey data from a subsurface region of interest, b) performing an inversion of said obtained mCSEM data to obtain mCSEM inversion data, c) locating an anomaly in the mCSEM inversion data, d) subtracting a background resistivity trend of said mCSEM inversion data from the resistivity trend of said mCSEM inversion data at the anomaly, characterized in that said method further comprises: e) estimating the magnitude of a transverse resistance associated with the anomaly using the difference from the background resistivity trend, f) estimating a distribution of the average reservoir saturation corresponding to transverse resistance using a stochastic petrophysical model and Monte Carlo simulation connecting reservoir parameters to transverse resistance, and g) integrating the obtained saturation distribution with respect to transverse resistance and weighted according to an assumed probability for the estimated transverse resistances to obtain a final estimation of the fluid saturation probability. a) obtaining marine controlled-source electromagnetic (mCSEM) survey data from a subsurface region of interest, b) performing an inversion of said obtained mCSEM data to obtain mCSEM inversion data, c) locating an anomaly in the mCSEM inversion data, d) subtracting a background resistivity trend of said mCSEM inversion data from the resistivity trend of said mCSEM inversion data at the anomaly, characterized in that said method further comprises: e) estimating the magnitude of a transverse resistance associated with the anomaly using the difference from the background resistivity trend, f) estimating a distribution of the average reservoir saturation corresponding to transverse resistance using a stochastic petrophysical model and Monte Carlo simulation connecting reservoir parameters to transverse resistance, and g) integrating the obtained saturation distribution with respect to transverse resistance and weighted according to an assumed probability for the estimated transverse resistances to obtain a final estimation of the fluid saturation probability.
Profile arrangement, in particular for a refrigerator or freezer apparatus, comprising at least one base, at least one fastening arrangement, at least one sealing arrangement and at least one profile element, wherein at least one free end of the profile element is arranged on the sealing arrangement, wherein the sealing arrangement has at least one hollow chamber (30, 31, 32, 33), wherein the profile element is arranged on the sealing arrangement such that it is approximately orthogonal, characterised in that the profile element is configured such that it is approximately linear, approximately prismatic in cross-section, and has a wall thickness of approximately 0.1 to 10 mm, preferably approximately 0.25 to 5 mm, in that at least one further free end of the profile element is connected to the base by way of at least one movement arrangement which at least partially projects into the sealing arrangement and which has at least two movement sections (40, 41) that are arranged approximately opposite one another, in that the at least one movement arrangement projects into the sealing arrangement approximately at an acute angle in relation to the profile element, and in that the movement arrangement is produced from a flexible polymer material having a Shore A hardness according to DIN EN ISO 868 of approximately 50 to 100 and preferably 60 to 90.
Drive engine arrangement of an elevator system, comprising: a drive engine for driving suspension traction means for displacing an elevator car; a fan for generating a fluid flow (35, 37) for cooling the drive engine; the drive engine arrangement being characterized in that it further comprises: a fluid flow sensor; wherein the fluid flow sensor is adapted for sensing the fluid flow (35, 37) generated by the fan. a drive engine for driving suspension traction means for displacing an elevator car; a fan for generating a fluid flow (35, 37) for cooling the drive engine; the drive engine arrangement being characterized in that it further comprises: a fluid flow sensor; wherein the fluid flow sensor is adapted for sensing the fluid flow (35, 37) generated by the fan. a fluid flow sensor; wherein the fluid flow sensor is adapted for sensing the fluid flow (35, 37) generated by the fan.
An article, such as a filter media, comprising a fiber web, the fiber web comprising: i) a plurality of glass fibers having an average diameter between about 0.01 and about 10 microns, wherein the glass fibers comprise at least 90% of the total dry weight of the filter media, and ii) a water repellent comprising a fluorinated species comprising the formula -C n F m R y, where n is an integer less than or equal to 6, m is an integer greater than 1, R is zero, an atom or a group of atoms, and y is an integer greater than or equal to 0, wherein the fiber web has a basis weight between about 30 and about 400 gsm, an overall thickness between about 100 microns and about 5000 microns, an overall pressure drop between about 5 Pa and about 700 Pa, a water repellency between about 1 kPa and about 20 kPa, and a (-log(DOP penetration %/100)/pressure drop, Pa)×100×9.8 value of at least 8, as measured using DOP aerosol particles approximately 0.3 microns in diameter at a media face velocity of approximately 5.3 cm/sec. i) a plurality of glass fibers having an average diameter between about 0.01 and about 10 microns, wherein the glass fibers comprise at least 90% of the total dry weight of the filter media, and ii) a water repellent comprising a fluorinated species comprising the formula -C n F m R y, where n is an integer less than or equal to 6, m is an integer greater than 1, R is zero, an atom or a group of atoms, and y is an integer greater than or equal to 0, wherein the fiber web has a basis weight between about 30 and about 400 gsm, an overall thickness between about 100 microns and about 5000 microns, an overall pressure drop between about 5 Pa and about 700 Pa, a water repellency between about 1 kPa and about 20 kPa, and a (-log(DOP penetration %/100)/pressure drop, Pa)×100×9.8 value of at least 8, as measured using DOP aerosol particles approximately 0.3 microns in diameter at a media face velocity of approximately 5.3 cm/sec.
A geo-location system including at least one emission module, having the form of a lighting luminaire attached to a wall of a building, including at least a first emission unit and a second emission unit, mounted on a same support, to emit a first location signal and a second location signal respectively, in the form of a sequence of light pulses according to the LiFi IEEE 802.15 technology, along a first direction and a second direction different from each other so as to define two juxtaposed distinct location zones (Z1, Z2), the system including at least one reception module adapted to receive a sequence of light pulses according to the LiFi technology so as to interpret a location signal (S1, S2) emitted by an emission module.
A detecting device for detecting the channel state, comprising: - a receiver, configured to monitor a channel within a predetermined duration so as to receive a plurality of signals transmitted on said channel; - a determining unit, configured to select a plurality of candidate signals from said plurality of signals according to a predetermined rule and to determine whether part of said plurality of candidate signals possess periodicity so as to determine whether said channel is interfered; wherein said predetermined rule comprises assessing if the difference between the strength of the received signal and the average received signal strength is larger than a predetermined threshold, wherein said average received signal strength is the average value of the strengths of the N currently received signals, wherein N≤M, M being the number of all the currently received signals. - a receiver, configured to monitor a channel within a predetermined duration so as to receive a plurality of signals transmitted on said channel; - a determining unit, configured to select a plurality of candidate signals from said plurality of signals according to a predetermined rule and to determine whether part of said plurality of candidate signals possess periodicity so as to determine whether said channel is interfered; wherein said predetermined rule comprises assessing if the difference between the strength of the received signal and the average received signal strength is larger than a predetermined threshold, wherein said average received signal strength is the average value of the strengths of the N currently received signals, wherein N≤M, M being the number of all the currently received signals.
A vehicle driving control apparatus for controlling driving of a vehicle based on information received from a plurality of sensors, the vehicle driving control apparatus characterized by comprising: at least one processor configured to determine a driving route to comprise a predetermined area of road, upon determining that calibration of a first sensor is required; and a memory configured to store values measured by the plurality of sensors while the vehicle is being driven along the driving route, wherein the at least one processor is further configured to calibrate the first sensor based on the stored measured values and information about the predetermined area of road. at least one processor configured to determine a driving route to comprise a predetermined area of road, upon determining that calibration of a first sensor is required; and a memory configured to store values measured by the plurality of sensors while the vehicle is being driven along the driving route, wherein the at least one processor is further configured to calibrate the first sensor based on the stored measured values and information about the predetermined area of road.
An electric power steering system, comprising: an electric motor that generates assist torque based on steering torque; a main power supply that supplies electric power to the electric motor; an auxiliary power supply device including an auxiliary power supply connected to the main power supply and capable of discharging electric power to the electric motor; and a control device that controls an operation of the auxiliary power supply device, characterised in that: the control device switches a mode, as a mode of connection between the main power supply and the auxiliary power supply device, among a first supply mode in which the main power supply and the auxiliary power supply are connected in series with each other and a high-potential side of the auxiliary power supply is connected to the electric motor, a second supply mode in which the main power supply and the auxiliary power supply are connected in series with each other and a low-potential side of the auxiliary power supply is connected to the electric motor, and a main power supply charging mode in which the main power supply and the auxiliary power supply are connected in parallel to each other. an electric motor that generates assist torque based on steering torque; a main power supply that supplies electric power to the electric motor; an auxiliary power supply device including an auxiliary power supply connected to the main power supply and capable of discharging electric power to the electric motor; and a control device that controls an operation of the auxiliary power supply device, characterised in that: the control device switches a mode, as a mode of connection between the main power supply and the auxiliary power supply device, among a first supply mode in which the main power supply and the auxiliary power supply are connected in series with each other and a high-potential side of the auxiliary power supply is connected to the electric motor, a second supply mode in which the main power supply and the auxiliary power supply are connected in series with each other and a low-potential side of the auxiliary power supply is connected to the electric motor, and a main power supply charging mode in which the main power supply and the auxiliary power supply are connected in parallel to each other. the control device switches a mode, as a mode of connection between the main power supply and the auxiliary power supply device, among a first supply mode in which the main power supply and the auxiliary power supply are connected in series with each other and a high-potential side of the auxiliary power supply is connected to the electric motor, a second supply mode in which the main power supply and the auxiliary power supply are connected in series with each other and a low-potential side of the auxiliary power supply is connected to the electric motor, and a main power supply charging mode in which the main power supply and the auxiliary power supply are connected in parallel to each other.
A dust control system (12,32,42) comprising at least one rotatable sweeping device (14,23,26,34,44,47,48) and a housing (15,22,35,45), wherein the housing and the at least one rotatable sweeping device are mounted to a vehicle (11,31,41) or a frame (13,33,43) movably supported for movement upon a surface to be swept, which housing is arranged to at least partially enclose the at least one rotatable sweeping device (14,23,26,34,44,47,48), wherein the system further comprises at least one dust laying chamber (16,21,25,36,46), wherein said dust laying chamber is mounted at least to one side of or at least partially surrounding the said sweeping device; said dust laying chamber (16,21,25,36,46) comprising an enclosed chamber that is open towards the swept surface and extends adjacent or into contact with the said swept surface; and at least one liquid atomizer means for injecting an atomized mist into the dust laying chamber in order to lay airborne dust generated by the at least one sweeping device (14,23,26,34,44,47,48), characterized in that the dust laying chamber comprises two substantially parallel wall sections (16a,16b,21a,21b,25a,25b,36a,36b,46a,46b), both extending at least to one side of said sweeping device, wherein both wall sections are intended to be, in contact with the swept surface when the swept surface is even and smooth to act as barrier for airborne dust.
Monitoring system for real-time monitoring release of radioactive particles, the system comprising: - a controller for on-line determining a release level of radioactive particles from an exhaust; and - a detector that is operatively connected to the controller and wherein the detector is configured for detecting a level of radioactive particles, wherein the controller comprises: - an efficiency module that calculates the release level of radioactive particles from the exhaust using the real-time level of radioactive particles detected by the detector and - an alarm generator configured to report and/or generate an alarm if the release level of radioactive particles is above a threshold value; and characterized in that the calculation of the release level of radioactive particles by the efficiency module makes use of an on-line efficiency model, and - in that the on-line efficiency model has inputs configured to receive geometry specifications of the exhaust and has a further input to receive detector specifications, wherein the on-line efficiency model is constructed from a generic off-line simulation model; and wherein the off-line simulation model is a generic off-line simulation model that is generally applicable to a range of building facilities. - a controller for on-line determining a release level of radioactive particles from an exhaust; and - a detector that is operatively connected to the controller and wherein the detector is configured for detecting a level of radioactive particles, - an efficiency module that calculates the release level of radioactive particles from the exhaust using the real-time level of radioactive particles detected by the detector and - an alarm generator configured to report and/or generate an alarm if the release level of radioactive particles is above a threshold value; and - in that the on-line efficiency model has inputs configured to receive geometry specifications of the exhaust and has a further input to receive detector specifications, wherein the on-line efficiency model is constructed from a generic off-line simulation model; and
Device for introducing a gas into a container to be filled with a filler product, preferably for introducing an inert gas into a container to be filled with an oxygen-sensitive filler product in a bottling machine, comprising a gas inlet switchable via a feed valve for supplying the gas to a gas outlet opening into a container to be filled, characterised in that the gas inlet between the feed valve and the gas outlet is divided into a rinsing line for rinsing the container with the gas and a preloading line for preloading the container with the gas, wherein the preloading line comprises a back-pressure valve for opening and closing the preloading line, and wherein the back-pressure valve due to a pressure difference between the upstream pressure in the preloading line upstream of the back-pressure valve and the downstream pressure downstream of the back-pressure valve switches itself between an open position and a closed position.
A jet engine comprising a vane made of a composite material of thermosetting resin or thermoplastic resin and reinforcement fiber, and a coupling support member (33, 53), wherein the coupling support member (33, 53) is made of metal and includes a pair of divided pieces (34, 54) separated from each other, the pair of divided pieces (34, 54) being joined to an end portion (21, 22) of the vane from a first side and a second side in a vane thickness direction and each of the pair of divided pieces (34, 54) is attached to an attachment flange (31f, 5f) of the jet engine, on at least one of the first side and the second side, a joint surface (21a, 22a) of the end portion (21, 22) of the vane and a joint surface (35a, 55a) of the divided piece (34, 54) are formed as follows: (a) the joint surface (21a, 22a) of the end portion (21, 22) of the vane has at least one linear protrusion (21b, 22b) and the joint surface (35a, 55a) of the divided piece (34, 54) has at least one groove (35b, 55b) being engaged with the linear protrusion (21b, 22b), or (b) the joint surface (21a, 22a) of the end portion (21, 22) of the vane has at least one groove and the joint surface (35a, 55a) of the divided piece (34, 54) has at least one linear protrusion being engaged with the groove, and the end portion (21, 22) of the vane is held between the pair of divided pieces (34, 54) of the coupling support member (33, 53), by fastening force that is applied to the pair of divided pieces (34, 54) of the coupling support member (33, 53) from the first and second sides in the vane thickness direction. (a) the joint surface (21a, 22a) of the end portion (21, 22) of the vane has at least one linear protrusion (21b, 22b) and the joint surface (35a, 55a) of the divided piece (34, 54) has at least one groove (35b, 55b) being engaged with the linear protrusion (21b, 22b), or (b) the joint surface (21a, 22a) of the end portion (21, 22) of the vane has at least one groove and the joint surface (35a, 55a) of the divided piece (34, 54) has at least one linear protrusion being engaged with the groove, and