mhurhangee/ep-ind-claims huggingface dataset:
A power conversion device, comprising: a metal housing; a power semiconductor module that is contained in the metal housing and converts direct electric current to alternating electric current; a capacitor module that is contained in the metal housing and arranged side by side with the power semiconductor module, wherein the capacitor module smoothes the direct electric current supplied to the power semiconductor module; a substrate that has a drive circuit part mounted in a first region, the drive circuit part driving the power semiconductor module, and a control circuit part mounted in a second region, the control circuit part controlling the drive circuit part, wherein the substrate is disposed so as to cover over the metal housing; a base plate that extends in a space in which the second region of the substrate and the capacitor module oppose to each other, and that is electrically connected to the metal housing wherein the base plate is provided so as to interrupt the electromagnetic noise between the capacitor module and the control circuit part; and a first noise shielding member that projects from a surface of the metal base plate toward the circuit substrate and extends in a direction along a boundary between the first region and the second region of the substrate, wherein the first noise shielding member separates the space of the housing in which the power semiconductor module is disposed and the space between the circuit substrate and the metal base plate, and the first noise shielding member is electrically connected to the metal housing or a ground of the control circuit part. a metal housing; a power semiconductor module that is contained in the metal housing and converts direct electric current to alternating electric current; a capacitor module that is contained in the metal housing and arranged side by side with the power semiconductor module, wherein the capacitor module smoothes the direct electric current supplied to the power semiconductor module; a substrate that has a drive circuit part mounted in a first region, the drive circuit part driving the power semiconductor module, and a control circuit part mounted in a second region, the control circuit part controlling the drive circuit part, wherein the substrate is disposed so as to cover over the metal housing; a base plate that extends in a space in which the second region of the substrate and the capacitor module oppose to each other, and that is electrically connected to the metal housing wherein the base plate is provided so as to interrupt the electromagnetic noise between the capacitor module and the control circuit part; and a first noise shielding member that projects from a surface of the metal base plate toward the circuit substrate and extends in a direction along a boundary between the first region and the second region of the substrate, wherein the first noise shielding member separates the space of the housing in which the power semiconductor module is disposed and the space between the circuit substrate and the metal base plate, and the first noise shielding member is electrically connected to the metal housing or a ground of the control circuit part.
An electronic device for controlling at least one processing unit of the electronic device, the electronic device comprising: a communication unit; an input unit configured to sense user input; and a control unit configured to: obtain user input speeds based on results of sensing the user input, determine control information corresponding to the user input speeds to control the at least one processing unit based on performance assignment information including at least one control information mapped respectively with each user input speed, and control the at least one processing unit to operate based on the control information, wherein the performance assignment information includes at least one of CPU clock information, voltage information, bus clock information, or big/little switch type information, and wherein a number of the at least one processing unit to be controlled is determined based on the control information and a remaining battery power. a communication unit; an input unit configured to sense user input; and a control unit configured to: obtain user input speeds based on results of sensing the user input, determine control information corresponding to the user input speeds to control the at least one processing unit based on performance assignment information including at least one control information mapped respectively with each user input speed, and control the at least one processing unit to operate based on the control information, obtain user input speeds based on results of sensing the user input, determine control information corresponding to the user input speeds to control the at least one processing unit based on performance assignment information including at least one control information mapped respectively with each user input speed, and control the at least one processing unit to operate based on the control information, wherein the performance assignment information includes at least one of CPU clock information, voltage information, bus clock information, or big/little switch type information, and wherein a number of the at least one processing unit to be controlled is determined based on the control information and a remaining battery power.
A holder carrying thereon a sensor to measure a physiological signal of an analyte in a biological fluid, wherein the sensor has a signal detection end and a signal output end, comprising: an implantation hole being a channel for implanting the sensor, and containing a part of the sensor; a waterproof seal disposed above the implantation hole; an elastic divider disposed in the implantation hole to separate the implantation hole and covering all over a cross-sectional area of the implantation hole, wherein the elastic divider is disposed above the signal detection end of the sensor in the implantation hole; and a blocking element disposed in the implantation hole to hold the sensor in the holder, wherein the waterproff seal, the elastic divider and the blocking element are integrally formed and embedded in the implantation hole. an implantation hole being a channel for implanting the sensor, and containing a part of the sensor; a waterproof seal disposed above the implantation hole; an elastic divider disposed in the implantation hole to separate the implantation hole and covering all over a cross-sectional area of the implantation hole, wherein the elastic divider is disposed above the signal detection end of the sensor in the implantation hole; and a blocking element disposed in the implantation hole to hold the sensor in the holder, wherein the waterproff seal, the elastic divider and the blocking element are integrally formed and embedded in the implantation hole.
A voice signal alignment method performed by a voice signal alignment apparatus, the method comprising: • obtaining an original voice signal and a test voice signal, wherein the test voice signal is a voice signal generated after the original voice signal is transmitted over a communications network; • performing loss detection and/or discontinuity detection on the test voice signal, wherein the loss detection is used to determine whether the test voice signal has a voice signal loss compared with the original voice signal, and the discontinuity detection is used to determine whether the test voice signal has a voice signal discontinuity compared with the original voice signal; • aligning the test voice signal with the original voice signal based on a result of the loss detection and/or the discontinuity detection, to obtain an aligned test voice signal and an aligned original voice signal, wherein the result of the loss detection and/or the discontinuity detection is used to indicate a manner of aligning the test voice signal with the original voice signal; • detecting the aligned test voice signal based on a machine learning model and based on the aligned original voice signal, to determine whether the aligned test voice signal is an abnormal voice signal, or to determine an abnormal type of the aligned test voice signal. • obtaining an original voice signal and a test voice signal, wherein the test voice signal is a voice signal generated after the original voice signal is transmitted over a communications network; • performing loss detection and/or discontinuity detection on the test voice signal, wherein the loss detection is used to determine whether the test voice signal has a voice signal loss compared with the original voice signal, and the discontinuity detection is used to determine whether the test voice signal has a voice signal discontinuity compared with the original voice signal; • aligning the test voice signal with the original voice signal based on a result of the loss detection and/or the discontinuity detection, to obtain an aligned test voice signal and an aligned original voice signal, wherein the result of the loss detection and/or the discontinuity detection is used to indicate a manner of aligning the test voice signal with the original voice signal; • detecting the aligned test voice signal based on a machine learning model and based on the aligned original voice signal, to determine whether the aligned test voice signal is an abnormal voice signal, or to determine an abnormal type of the aligned test voice signal.
A coating architecture, wherein the coating architecture comprises a metallic substrate, an aluminide transition layer, and one or more aluminide protective layer, wherein the transition layer comprises 3.5 to 10 wt. % Al and has a hardness of 300 to 675 HK0.1, and wherein the one or more protective layer has a thickness greater than 25 μm and a hardness of 600 to 850 HK0.1.
Apparatus for eye surgery, wherein the apparatus is embodied to keep available, during a treatment of an eye, a fluid, which differs from air, between a focusing lens and the cornea of the eye, wherein the apparatus comprises: - a suction ring, which can be placed onto an eye to be treated, comprising a first suction region that is embodied to suck the suction ring onto the eye by producing negative pressure in the first suction region and - a vessel element that is integrally embodied with the suction ring or coupleable to the suction ring by means of negative pressure or mechanical means, said vessel element having a longitudinal axis and an interior for receiving the fluid, wherein the vessel element comprises a wall extending about the longitudinal axis from a first axial end to an opposite second axial end of the vessel element, said wall laterally closing off said vessel element, and wherein a first aperture for supplying the fluid into the interior and a second aperture for venting the interior are provided in the wall, wherein the two apertures are arranged axially offset from one another in the wall. - a suction ring, which can be placed onto an eye to be treated, comprising a first suction region that is embodied to suck the suction ring onto the eye by producing negative pressure in the first suction region and - a vessel element that is integrally embodied with the suction ring or coupleable to the suction ring by means of negative pressure or mechanical means, said vessel element having a longitudinal axis and an interior for receiving the fluid, wherein the vessel element comprises a wall extending about the longitudinal axis from a first axial end to an opposite second axial end of the vessel element, said wall laterally closing off said vessel element, and wherein a first aperture for supplying the fluid into the interior and a second aperture for venting the interior are provided in the wall, wherein the two apertures are arranged axially offset from one another in the wall.
A refrigeration cycle apparatus (100, 100A, 100B; 200) comprising: a refrigerant circuit in which a refrigerant is circulated so that the refrigerant passes through a compressor, a condenser (12, 20), an upstream-side throttling device (14, 18), a gas-liquid separator, a downstream-side throttling device (14, 18), and an evaporator (12, 20) in this order; an injection passage through which a gas refrigerant separated in the gas-liquid separator is supplied to the compressor; and a heater provided in the injection passage; characterized by an intermediate pressure temperature sensor that detects a gas-liquid separation temperature (Tm) that is a temperature of the refrigerant flowing into the injection passage from the refrigerant circuit; a superheat temperature sensor that detects an injection temperature (Tinj) that is a temperature of the refrigerant heated by the heater in the injection passage; and a controller that performs an intermediate pressure control operation for adjusting at least one of an opening degree of the upstream-side throttling device (14, 18) and an opening degree of the downstream-side throttling device (14, 18) so that a temperature difference between the gas-liquid separation temperature (Tm) and the injection temperature (Tinj) becomes smaller than a predetermined value (ΔTi), and then increasing the opening degree of the downstream-side throttling device (14, 18) until the gas-liquid separation temperature (Tm) drops by a predetermined value (ΔTi) of degrees from the gas-liquid separation temperature (Tm) that is detected on completion of the adjustment. a refrigerant circuit in which a refrigerant is circulated so that the refrigerant passes through a compressor, a condenser (12, 20), an upstream-side throttling device (14, 18), a gas-liquid separator, a downstream-side throttling device (14, 18), and an evaporator (12, 20) in this order; an injection passage through which a gas refrigerant separated in the gas-liquid separator is supplied to the compressor; and a heater provided in the injection passage; characterized by an intermediate pressure temperature sensor that detects a gas-liquid separation temperature (Tm) that is a temperature of the refrigerant flowing into the injection passage from the refrigerant circuit; a superheat temperature sensor that detects an injection temperature (Tinj) that is a temperature of the refrigerant heated by the heater in the injection passage; and a controller that performs an intermediate pressure control operation for adjusting at least one of an opening degree of the upstream-side throttling device (14, 18) and an opening degree of the downstream-side throttling device (14, 18) so that a temperature difference between the gas-liquid separation temperature (Tm) and the injection temperature (Tinj) becomes smaller than a predetermined value (ΔTi), and then increasing the opening degree of the downstream-side throttling device (14, 18) until the gas-liquid separation temperature (Tm) drops by a predetermined value (ΔTi) of degrees from the gas-liquid separation temperature (Tm) that is detected on completion of the adjustment.
A method of preparing a liposomal based drug formulation comprising mixing a lipid solution comprising a lipid dissolved in an organic solvent at a flow rate of 1 L/min to 3 L/min with an aqueous amikacin solution at a flow rate of 1.5 L/min to 4.5 L/min to form an amikacin coacervate, wherein the lipid is mixed with the amikacin coacervate and the amikacin coacervate initiates lipid bilayer formation around the amikacin coacervate and wherein the lipid solution and aqueous amikacin solution are mixed from two separate streams in an in line fashion, wherein the concentration of the amikacin inside the liposome is higher than the external amikacin concentration.
A pharmaceutical formulation comprising an aqueous suspension of gas-filled microvesicles with a stabilizing envelope, said stabilizing envelope comprising (a) an antigen covalently bound to an amphiphilic component forming said envelope, (b) a phospholipid and (c) a fatty acid, wherein the molar ratio between the phospholipid and the fatty acid is of 30/70 or lower.
An audio control system configured for a show attended by an audience, the control system comprising: a controller configured to produce an audio signal that, when received by a speaker, causes the speaker to produce sound and direct the produced sound to an audience seating area; and a processor coupled to the controller, the processor configured to execute computing instructions to perform data processing activities, the data processing activities comprising, over a duration of a performance of the show: automatically determining an occupancy of the audience seating area by: with the processor, accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area; and based on the determined occupancy, automatically adjusting a spectral content of the audio signal to at least partially compensate for spectral effects caused by the occupancy in the audience seating area. a controller configured to produce an audio signal that, when received by a speaker, causes the speaker to produce sound and direct the produced sound to an audience seating area; and a processor coupled to the controller, the processor configured to execute computing instructions to perform data processing activities, the data processing activities comprising, over a duration of a performance of the show: automatically determining an occupancy of the audience seating area by: with the processor, accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area; and based on the determined occupancy, automatically adjusting a spectral content of the audio signal to at least partially compensate for spectral effects caused by the occupancy in the audience seating area. automatically determining an occupancy of the audience seating area by: with the processor, accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area; and with the processor, accessing a box office server; retrieving, from the box office server, data corresponding to a number of tickets sold for the show, the number of tickets sold for the show corresponding to a number of people seated in the audience seating area; and based on the determined occupancy, automatically adjusting a spectral content of the audio signal to at least partially compensate for spectral effects caused by the occupancy in the audience seating area.
A harvesting head for an agricultural harvesting machine, the head comprising: a first frame portion adapted to be connected to the harvesting machine; a second frame portion moveably connected to the first frame portion; an upper control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion; and a lower control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion, characterized in that the connection between the first frame portion, second frame portion, upper control arm, and a lower control arm is configured to create a roll center of the second frame portion positioned at or below ground level, when the harvesting header is attached to the harvesting machine. a first frame portion adapted to be connected to the harvesting machine; a second frame portion moveably connected to the first frame portion; an upper control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion; and a lower control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion, characterized in that the connection between the first frame portion, second frame portion, upper control arm, and a lower control arm is configured to create a roll center of the second frame portion positioned at or below ground level, when the harvesting header is attached to the harvesting machine.
Aqueous alkaline cleaning composition free from organic solvents and metal ion-free silicates, the said compositions comprising at least one thioamino acid having at least one primary amino group and at least one mercapto group, at least one quaternary ammonium hydroxide, at least one chelating and/or corrosion inhibiting agent selected from the group consisting of aliphatic and cycloaliphatic amines having at least two primary amino groups, and aliphatic and cycloaliphatic amines having at least one hydroxy group, at least one nonionic surfactant selected from the group of alkyloxylated sorbitan monocarboxylic acid mono esters, wherein the amino acid has the general formula I: HS-[-C(-R 1)(-R 2)-] n -C(-R 3)(-NH 2)-COOH, wherein the index and the variables have the following meaning: n integer of 1 to 3; R 1, R 2 and R 3 are hydrogen atoms. at least one thioamino acid having at least one primary amino group and at least one mercapto group, at least one quaternary ammonium hydroxide, at least one chelating and/or corrosion inhibiting agent selected from the group consisting of aliphatic and cycloaliphatic amines having at least two primary amino groups, and aliphatic and cycloaliphatic amines having at least one hydroxy group, at least one nonionic surfactant selected from the group of alkyloxylated sorbitan monocarboxylic acid mono esters, n integer of 1 to 3; R 1, R 2 and R 3 are hydrogen atoms.
An X-ray detector reset control circuit used in an X-ray analytical instrument, the instrument is configured to induce and analyze a series of events of induced X-rays, the circuit comprises: an X-ray detector configured to detect the events of induced X-rays and send detector analog voltage response signals indicative of the events of X-rays, a charge-sensitive preamplifier connected to the detector and configured to amplify the response signals and produce amplified signals, an analog-to-digital converter (ADC 10) for providing a digitization of the amplified signals, the ADC having an ADC output level and producing a series of digitized signal values corresponding to the events of X-rays, the series of signal values causing a stair-like increase of the ADC output level, a pulse indicator producing a fast pulse timing signal indicative of each of the events of X-rays; and, a micro-reset decision module and a micro-reset unit, wherein the decision module is configured to derive a reset decision to trigger a reset to decrease the ADC output level with a charge reset drop based on a logic criterion and the micro-reset unit performs the reset based on the reset decision, and, characterized in that the logic criterion is the following: a pile-up reset criterion, for which the corresponding fast pulse timing signals of two of the events of X-rays are within a predetermined peaking time t p. an X-ray detector configured to detect the events of induced X-rays and send detector analog voltage response signals indicative of the events of X-rays, a charge-sensitive preamplifier connected to the detector and configured to amplify the response signals and produce amplified signals, an analog-to-digital converter (ADC 10) for providing a digitization of the amplified signals, the ADC having an ADC output level and producing a series of digitized signal values corresponding to the events of X-rays, the series of signal values causing a stair-like increase of the ADC output level, a pulse indicator producing a fast pulse timing signal indicative of each of the events of X-rays; and, a micro-reset decision module and a micro-reset unit, wherein the decision module is configured to derive a reset decision to trigger a reset to decrease the ADC output level with a charge reset drop based on a logic criterion and the micro-reset unit performs the reset based on the reset decision, and, characterized in that the logic criterion is the following: a pile-up reset criterion, for which the corresponding fast pulse timing signals of two of the events of X-rays are within a predetermined peaking time t p.