mhurhangee/ep-ind-claims huggingface dataset:
A mirror assembly for use/mounting in a vehicle, the mirror assembly comprising: a trainable transceiver unit comprising: a transceiver circuit configured to reproduce and transmit control signals for operating a plurality of remote electronic devices; a user interface element; a battery configured to power the transceiver circuit and the user interface element; an electronic display configured to present visual information to a vehicle occupant; a control circuit configured to monitor an amount of energy remaining in the battery and cause the electronic display to progressively present a battery life indicator showing an indication of the amount of energy remaining in the battery in response to at least one of: the amount of energy remaining in the battery dropping below a threshold energy value, and a voltage produced by the battery dropping below a threshold voltage, wherein the mirror assembly of the vehicle includes the electronic display; and a housing containing the transceiver circuit, the user interface element, the electronic display, the control circuit, and the battery, wherein the housing is integrated with the mirror assembly of the vehicle. a transceiver circuit configured to reproduce and transmit control signals for operating a plurality of remote electronic devices; a user interface element; a battery configured to power the transceiver circuit and the user interface element; an electronic display configured to present visual information to a vehicle occupant; a control circuit configured to monitor an amount of energy remaining in the battery and cause the electronic display to progressively present a battery life indicator showing an indication of the amount of energy remaining in the battery in response to at least one of: the amount of energy remaining in the battery dropping below a threshold energy value, and a voltage produced by the battery dropping below a threshold voltage, wherein the mirror assembly of the vehicle includes the electronic display; and a housing containing the transceiver circuit, the user interface element, the electronic display, the control circuit, and the battery, wherein the housing is integrated with the mirror assembly of the vehicle.
Assembly for improving the control over a device for throwing, kicking, hitting and/or shooting and/or over the physical motion sequence, having - a detector, which comprises a transmitter (Tx) and triggers, at a selectable time between the beginning of a throwing, kicking, hitting and/or shooting movement and the change in position of a training device, the transmission of a signal, and - shutter glasses having a receiving circuit (Rx), which controls the transparency thereof and controls a switch from high transparency to low transparency when the signal from the transmitter (Tx) is received, characterized in that, after the switching from the high to the low transparency, the receiving circuit (Rx) switches the shutter glasses back to high transparency with a settable delay. - a detector, which comprises a transmitter (Tx) and triggers, at a selectable time between the beginning of a throwing, kicking, hitting and/or shooting movement and the change in position of a training device, the transmission of a signal, and - shutter glasses having a receiving circuit (Rx), which controls the transparency thereof and controls a switch from high transparency to low transparency when the signal from the transmitter (Tx) is received, characterized in that, after the switching from the high to the low transparency, the receiving circuit (Rx) switches the shutter glasses back to high transparency with a settable delay.
A method of determining the presence of an in-duct bubble in a dispensing apparatus which performs dispensing by filling a duct to which a dispensing nozzle is connected with a liquid, making the liquid move in the duct to absorb a liquid sample including one of a specimen and a reagent through the dispensing nozzle, and discharging the absorbed liquid sample, comprising the steps of: discharging the liquid in the duct from the dispensing nozzle and detecting a transition of a pressure in the duct; characterized by further comprising the step of calculating a number of mountain pulses in a pressure transition waveform based on the detected pressure transition; and determining a presence of a bubble in the liquid filling the duct based on a comparison of the calculated number of mountain pulses with a reference number of mountain pulses. discharging the liquid in the duct from the dispensing nozzle and detecting a transition of a pressure in the duct; characterized by further comprising the step of calculating a number of mountain pulses in a pressure transition waveform based on the detected pressure transition; and determining a presence of a bubble in the liquid filling the duct based on a comparison of the calculated number of mountain pulses with a reference number of mountain pulses.
A method, comprising: measuring a first rotational speed, i.e. the speed of an inner raceway of a sprag clutch of a rotorcraft; measuring a second rotational speed, i.e. the speed of an outer raceway of the sprag clutch: determining if the sprag clutch is in an overrunning condition, wherein the determining is based on the first rotational speed and the second rotational speed; generating an estimation of an instantaneous wear rate of the sprag clutch, wherein the estimation of the instantaneous wear rate is generated based on the overrunning condition, the first rotational speed and the second rotational speed; and displaying an indication of the estimation of the instantaneous wear rate of the sprag clutch. measuring a first rotational speed, i.e. the speed of an inner raceway of a sprag clutch of a rotorcraft; measuring a second rotational speed, i.e. the speed of an outer raceway of the sprag clutch: determining if the sprag clutch is in an overrunning condition, wherein the determining is based on the first rotational speed and the second rotational speed; generating an estimation of an instantaneous wear rate of the sprag clutch, wherein the estimation of the instantaneous wear rate is generated based on the overrunning condition, the first rotational speed and the second rotational speed; and displaying an indication of the estimation of the instantaneous wear rate of the sprag clutch. determining if the sprag clutch is in an overrunning condition, wherein the determining is based on the first rotational speed and the second rotational speed; generating an estimation of an instantaneous wear rate of the sprag clutch, wherein the estimation of the instantaneous wear rate is generated based on the overrunning condition, the first rotational speed and the second rotational speed; and displaying an indication of the estimation of the instantaneous wear rate of the sprag clutch.
A method of wireless communication, comprising: determining, at a mobile device, a density of sounding reference signal, SRS, transmissions, based at least in part on a channel condition and/or an interference condition, wherein the channel condition and/or interference condition occurs when a number of antennas at a serving base station exceeding a threshold value; and transmitting SRS by the mobile device based at least in part on the determined density. determining, at a mobile device, a density of sounding reference signal, SRS, transmissions, based at least in part on a channel condition and/or an interference condition, wherein the channel condition and/or interference condition occurs when a number of antennas at a serving base station exceeding a threshold value; and transmitting SRS by the mobile device based at least in part on the determined density.
A method to hierarchically dealias distance Z range of a phase-type time of flight system, the method comprising: (a) acquiring data from said time of flight system using at least three modulation frequencies f 1, f 2,..., f m separately; (b) generating f D, f E, and a set of intermediate frequencies f DE1, f DE2,..., f DE(N-1) sorted by order of f D < f DE1 < f DE2 <...< f DE(N-1) < f E, where f D is a difference frequency that is a function of f 1 and f 2 and where f E is an effective frequency that is a function of f 1, f 2,..., f m, and computing their corresponding phases from data acquired at step (a); and (c) hierarchically dealiasing data acquired at step (a) using said intermediate frequencies generated at step (b), wherein at step (c), hierarchical dealiasing is carried out in a stepped sequence that includes, at each step of the hierarchical dealiasing, dealiasing phase data θ DEk of f DEk using phase θ DE(k+1) of f DE(k+1), where k = 0, 1,..., N-1, and where f DE0 = f D and f DEN = f E, comprising finding the correct dealiasing interval m k such that θ DEk_scaled ≅ θ DE ( k +1) + m k 2π, where θ DEk_scaled ≅ θ DE k + 1 + m k 2 πθ DEk_scaled = f DE k + 1 f DEk θ DEk, and calculating the final unwrapped phase for f E as θ E + m N − 1 2 π + m N − 2 f DE N − 1 f DE N − 2 2 π + ⋯ + m k f DE k + 1 f DEk 2 π + ⋯ + m 1 f DE 1 f D 2 π. (a) acquiring data from said time of flight system using at least three modulation frequencies f 1, f 2,..., f m separately; (b) generating f D, f E, and a set of intermediate frequencies f DE1, f DE2,..., f DE(N-1) sorted by order of f D < f DE1 < f DE2 <...< f DE(N-1) < f E, where f D is a difference frequency that is a function of f 1 and f 2 and where f E is an effective frequency that is a function of f 1, f 2,..., f m, and computing their corresponding phases from data acquired at step (a); and (c) hierarchically dealiasing data acquired at step (a) using said intermediate frequencies generated at step (b), wherein at step (c), hierarchical dealiasing is carried out in a stepped sequence that includes, at each step of the hierarchical dealiasing, dealiasing phase data θ DEk of f DEk using phase θ DE(k+1) of f DE(k+1), where k = 0, 1,..., N-1, and where f DE0 = f D and f DEN = f E, comprising finding the correct dealiasing interval m k such that θ DEk_scaled ≅ θ DE ( k +1) + m k 2π, where θ DEk_scaled ≅ θ DE k + 1 + m k 2 πθ DEk_scaled = f DE k + 1 f DEk θ DEk, and calculating the final unwrapped phase for f E as θ E + m N − 1 2 π + m N − 2 f DE N − 1 f DE N − 2 2 π + ⋯ + m k f DE k + 1 f DEk 2 π + ⋯ + m 1 f DE 1 f D 2 π.
A securing assembly (1; 1'; 1") for securing a support tower to a wind turbine tower, the securing assembly comprises a base part and a fastening module for securing the support tower to the wind turbine tower, wherein the fastening module comprises a rope for surrounding the wind turbine tower, and an arm comprising an inner portion attached to the base part and an outer portion provided with a rope sliding element arranged to slidably hold the rope, characterized in that each end of the rope is provided with an eye end (7a, 7b), and the arm is provided with a plurality of knobs arranged spaced apart along the arm for receiving the eye ends (7a, 7b) of the rope and for supporting the rope.
A logging system for use in a wellbore formed in an earth formation, comprising - a tubular conduit extending from the surface into the wellbore and containing a body of wellbore fluid; - a logging tool string capable of passing from a position within the conduit to a position outside the conduit at a lower end part thereof and capable of being suspended by the conduit in said position outside of the conduit; - a pressure pulse device arranged within the conduit in a manner that the pressure pulse device is in data communication with the logging tool, the pressure pulse device being capable of generating pressure pulses in the body of wellbore fluid, said pressure pulses representing data communicated by the logging tool string to the pressure pulse device during logging of earth formation by the logging tool string; and - a control system in fluid communication with the body of wellbore fluid and being arranged to receive said pressure pulses, wherein the tubular conduit is a drill string for drilling the wellbore, characterized in that the logging tool string is suspended by the drill string in a manner that the logging tool string extends below the drill string and in an open part of the wellbore, wherein the logging tool string has a lower end part provided with a latching member capable of latching the logging tool string to a cooperating latching member provided on the upper end of a measurement while drilling device for transmitting fluidic pressure pulses to the surface during drilling with the drill string, wherein both the logging tool string and the MWD device extend outside the conduit at the lower end part thereof. - a tubular conduit extending from the surface into the wellbore and containing a body of wellbore fluid; - a logging tool string capable of passing from a position within the conduit to a position outside the conduit at a lower end part thereof and capable of being suspended by the conduit in said position outside of the conduit; - a pressure pulse device arranged within the conduit in a manner that the pressure pulse device is in data communication with the logging tool, the pressure pulse device being capable of generating pressure pulses in the body of wellbore fluid, said pressure pulses representing data communicated by the logging tool string to the pressure pulse device during logging of earth formation by the logging tool string; and - a control system in fluid communication with the body of wellbore fluid and being arranged to receive said pressure pulses,
A carbon fiber bundle having carbon fibers and a sizing agent, wherein said sizing agent comprises a water soluble polyurethane resin having an SP value of 11.2 to 13.3 (determined as indicated in the description), and the sizing agent is deposited on said carbon fibers at a rate of 0.5 to 7% by mass.
A method implemented on a computing device including a processor and a storage media, the method comprising: obtaining first image data of a subject related to a first scan of the subject, the first scan being of a first type of scan; reconstructing a first image of the subject based on the first image data; generating a dose plan of a second scan based on the first image, the second scan being of a second type of scan; and obtaining second image data of the subject related to the second scan of the subject, the second scan being performed according to the dose plan, characterised in that the generating a dose plan of a second scan based on the first image comprises: identifying at least one region of interest in the first image; and determining the dose plan of the second scan based on the at least one ROI, the dose plan including a first dose corresponding to the ROI and a second dose corresponding to a region outside the ROI, and the first dose being higher than the second dose, the second image data corresponding to the ROI and the region outside the ROI. obtaining first image data of a subject related to a first scan of the subject, the first scan being of a first type of scan; reconstructing a first image of the subject based on the first image data; generating a dose plan of a second scan based on the first image, the second scan being of a second type of scan; and obtaining second image data of the subject related to the second scan of the subject, the second scan being performed according to the dose plan, characterised in that the generating a dose plan of a second scan based on the first image comprises: identifying at least one region of interest in the first image; and determining the dose plan of the second scan based on the at least one ROI, the dose plan including a first dose corresponding to the ROI and a second dose corresponding to a region outside the ROI, and the first dose being higher than the second dose, the second image data corresponding to the ROI and the region outside the ROI. identifying at least one region of interest in the first image; and determining the dose plan of the second scan based on the at least one ROI, the dose plan including a first dose corresponding to the ROI and a second dose corresponding to a region outside the ROI, and the first dose being higher than the second dose, the second image data corresponding to the ROI and the region outside the ROI.
A method comprising: laminating a film over a light emitting diode disposed on a mount such that the film covers the LED, wherein the LED is at least 200 μm tall, characterised in that the film is 30 - 200 μm thick, a thickness of a portion of the film disposed over a top surface of the LED is reduced by pressing a flattening element against a top surface of the LED, and the flattening element comprises a spring steel plate. laminating a film over a light emitting diode disposed on a mount such that the film covers the LED, wherein the LED is at least 200 μm tall, characterised in that the film is 30 - 200 μm thick, a thickness of a portion of the film disposed over a top surface of the LED is reduced by pressing a flattening element against a top surface of the LED, and the flattening element comprises a spring steel plate.
A semiconductor device comprising: a metal member having a groove formed on a front side surface thereof; a thermally conductive member provided in an inside of the groove and having a thermal conductivity in a first axial direction (x-direction) on the front side surface higher than a thermal conductivity in a second axial direction (y-direction) orthogonal to the first axial direction (x-direction) on the front side surface; and a semiconductor element provided on the front side surface of the metal member, and at least a part of which is in contact with the thermally conductive member, characterized in that: one end of the semiconductor element extends in the second axial direction (y-direction) beyond one end of the thermally conductive member, and the other end of the semiconductor element extends in the second axial direction (y-direction) beyond the other end of the thermally conductive member a metal member having a groove formed on a front side surface thereof; a thermally conductive member provided in an inside of the groove and having a thermal conductivity in a first axial direction (x-direction) on the front side surface higher than a thermal conductivity in a second axial direction (y-direction) orthogonal to the first axial direction (x-direction) on the front side surface; and a semiconductor element provided on the front side surface of the metal member, and at least a part of which is in contact with the thermally conductive member, characterized in that: one end of the semiconductor element extends in the second axial direction (y-direction) beyond one end of the thermally conductive member, and the other end of the semiconductor element extends in the second axial direction (y-direction) beyond the other end of the thermally conductive member one end of the semiconductor element extends in the second axial direction (y-direction) beyond one end of the thermally conductive member, and the other end of the semiconductor element extends in the second axial direction (y-direction) beyond the other end of the thermally conductive member
A process for producing a patterned deformable polymer film for use in a deformable polymer device, the process comprising: supporting a deformable film section such that the deformable film section comprises a supported portion and an unsupported portion; positioning an intermediary layer between the unsupported portion of the deformable film, preferably selected from the group consisting of silicone, polyurethane, acrylate, hydrocarbon rubber, olefin copolymer, or polyvinylidene fluoride copolymer, and a process tooling; and printing at least one electrode on the unsupported portion of the deformable film by depositing an ink to form the at least one electrode on a first surface of the unsupported portion of the deformable film, wherein the intermediary layer permits release of the unsupported portion of the deformable film from the process tooling subsequent to the printing process. supporting a deformable film section such that the deformable film section comprises a supported portion and an unsupported portion; positioning an intermediary layer between the unsupported portion of the deformable film, preferably selected from the group consisting of silicone, polyurethane, acrylate, hydrocarbon rubber, olefin copolymer, or polyvinylidene fluoride copolymer, and a process tooling; and printing at least one electrode on the unsupported portion of the deformable film by depositing an ink to form the at least one electrode on a first surface of the unsupported portion of the deformable film, wherein the intermediary layer permits release of the unsupported portion of the deformable film from the process tooling subsequent to the printing process.
A pressure sensor device comprising: a housing composed of a resin head and a resin pipe, one end of the resin pipe being connected to the resin head and the other end of the resin pipe being open to outside; terminals, having a first terminal and a second terminal, to be electrically connected to an outside circuit, the terminals being insert-molded in the resin head; a pressure sensor element for detecting pressure of fluid introduced into the housing through the resin pipe, the pressure sensor element being electrically connected to the first terminal and mounted on the resin head; a conductor bar embedded in the resin pipe with its first end and a second end exposed outside; and a temperature sensor element for detecting temperature of the fluid, the temperature sensor element being positioned close to the open end of the resin pipe, wherein the second end of the conductor bar is positioned close to the open end of the resin pipe; characterized in that the first end of the conductor bar is electrically connected to the second terminal; the second end of the conductor bar is electrically connected to the temperature sensor element through a lead wire; a portion connecting the second end of the conductor bar to the lead wire is covered with protecting resin; the temperature sensor element is a thermistor element; and a length of the lead wire is longer than 15 mm and shorter than 30 mm. a housing composed of a resin head and a resin pipe, one end of the resin pipe being connected to the resin head and the other end of the resin pipe being open to outside; terminals, having a first terminal and a second terminal, to be electrically connected to an outside circuit, the terminals being insert-molded in the resin head; a pressure sensor element for detecting pressure of fluid introduced into the housing through the resin pipe, the pressure sensor element being electrically connected to the first terminal and mounted on the resin head; a conductor bar embedded in the resin pipe with its first end and a second end exposed outside; and a temperature sensor element for detecting temperature of the fluid, the temperature sensor element being positioned close to the open end of the resin pipe, wherein the second end of the conductor bar is positioned close to the open end of the resin pipe; characterized in that the first end of the conductor bar is electrically connected to the second terminal; the second end of the conductor bar is electrically connected to the temperature sensor element through a lead wire; a portion connecting the second end of the conductor bar to the lead wire is covered with protecting resin; the temperature sensor element is a thermistor element; and a length of the lead wire is longer than 15 mm and shorter than 30 mm.
Composite comprising an exfoliated graphite support material having a degree of graphitization g in an range of 50 to 93 %, obtained by XRD Rietveld analysis, wherein g is determined by the formula: g = d ng − d 002 d ng − d g wherein d oo2 is the distance of the lattice planes determined of the measured position of the reflex and calculated according to the Bragg equation, d g = 335.4 pm which is a literature value for totally graphitized carbon and d ng represents non-graphitized carbon with a value of 344 pm, wherein said exfoliated graphite support material is coated with ZnO nanoparticles.