mhurhangee/ep-ind-claims huggingface dataset:
A turbocharged engine system comprising: an internal combustion engine, the internal combustion engine in fluid communication with an intake subsystem and an exhaust subsystem; a turbocharger arranged to supply a boost pressure to the internal combustion engine via a turbine coupled to a compressor wheel, the turbine being located in the exhaust subsystem and the compressor wheel being located in the intake subsystem; and an electric compressor arranged to inject a compressed fluid into the exhaust subsystem upstream of the turbine such that, in use, the compressed fluid injected by the electric compressor into the exhaust subsystem maintains the speed of or accelerates the turbine and thereby maintains or increases the boost pressure supplied to the internal combustion engine by the turbocharger, wherein the turbocharged engine system comprises one or more control valves arranged to control the injection timing, pressures and quantity of the compressed fluid into the exhaust by the electric compressor; characterised in that the one or more control valves comprises a bypass valve arranged to bypass the electric compressor, wherein the bypass valve is configured to lower the pressure of the compressed fluid injected by the electric compressor and increase the mass flow through the electric compressor to prevent compressor surge events on the electric compressor. an internal combustion engine, the internal combustion engine in fluid communication with an intake subsystem and an exhaust subsystem; a turbocharger arranged to supply a boost pressure to the internal combustion engine via a turbine coupled to a compressor wheel, the turbine being located in the exhaust subsystem and the compressor wheel being located in the intake subsystem; and an electric compressor arranged to inject a compressed fluid into the exhaust subsystem upstream of the turbine such that, in use, the compressed fluid injected by the electric compressor into the exhaust subsystem maintains the speed of or accelerates the turbine and thereby maintains or increases the boost pressure supplied to the internal combustion engine by the turbocharger, wherein the turbocharged engine system comprises one or more control valves arranged to control the injection timing, pressures and quantity of the compressed fluid into the exhaust by the electric compressor; characterised in that the one or more control valves comprises a bypass valve arranged to bypass the electric compressor, wherein the bypass valve is configured to lower the pressure of the compressed fluid injected by the electric compressor and increase the mass flow through the electric compressor to prevent compressor surge events on the electric compressor.
Grinding base body - with a substantially cylindrical outer member (2, 2') for accepting an abrasive material, - with an inner member (4, 4') for attaching the grinding base body (1, 1') to a drive unit, and - with a connecting structure (6, 6') for mechanical force transmission between the outer member (2, 2') and the inner member (4, 4'), wherein the outer member (2, 2'), the inner member (4, 4') and/or the connecting structure (6, 6') are made at least in sections of a fiber-plastic composite and wherein the grinding base body is characterized in that the inner member (4, 4') is formed substantially cylindrically and the outer member (2, 2') has a larger axial extension than the inner member (4, 4'). - with a substantially cylindrical outer member (2, 2') for accepting an abrasive material, - with an inner member (4, 4') for attaching the grinding base body (1, 1') to a drive unit, and - with a connecting structure (6, 6') for mechanical force transmission between the outer member (2, 2') and the inner member (4, 4'),
A device (100, 200) for delivering a controlled concentration of a vapor phase of a nitrosylating agent to a subject, the device comprising: a replaceable reservoir (102, 202), comprising a storage space for storing a volume of the nitrosylating agent in a liquid form and a dead space to accommodate at least a portion of the nitrosylating agent transformed to a vapor phase, wherein at least a portion of the nitrosylating agent transforms from the liquid form to the vapor phase based on a temperature of the replaceable reservoir (102, 202), wherein the vapor phase of the nitrosylating agent is provided to a flow control portion (106, 206); the flow control portion (106, 206), operably connected to the reservoir, for receiving the vapor phase of the nitrosylating agent, wherein the vapor phase of the nitrosylating agent is propelled by a vapor pressure; a temperature control unit for controlling the temperature inside the reservoir to control an amount of the vapor phase of the nitrosylating agent and for controlling the vapor pressure of the vapor phase of the nitrosylating agent; a valve (112, 212) for releasing the nitrosylating agent in the vapor phase from the flow control portion; and a pump (116, 216) for flowing air to mix with the nitrosylating agent in the vapor phase released by the valve (112, 212) and for flowing the nitrosylating agent and air mixture out of the device to the subject; characterized in that the device further comprises the nitrosylating agent. a replaceable reservoir (102, 202), comprising a storage space for storing a volume of the nitrosylating agent in a liquid form and a dead space to accommodate at least a portion of the nitrosylating agent transformed to a vapor phase, wherein at least a portion of the nitrosylating agent transforms from the liquid form to the vapor phase based on a temperature of the replaceable reservoir (102, 202), wherein the vapor phase of the nitrosylating agent is provided to a flow control portion (106, 206); the flow control portion (106, 206), operably connected to the reservoir, for receiving the vapor phase of the nitrosylating agent, wherein the vapor phase of the nitrosylating agent is propelled by a vapor pressure; a temperature control unit for controlling the temperature inside the reservoir to control an amount of the vapor phase of the nitrosylating agent and for controlling the vapor pressure of the vapor phase of the nitrosylating agent; a valve (112, 212) for releasing the nitrosylating agent in the vapor phase from the flow control portion; and a pump (116, 216) for flowing air to mix with the nitrosylating agent in the vapor phase released by the valve (112, 212) and for flowing the nitrosylating agent and air mixture out of the device to the subject; characterized in that the device further comprises the nitrosylating agent.
A wireless power feeding apparatus for feeding power in a contactless manner to a power reception device including a power reception unit (210, 220, 230), comprising: a power transmission unit (130, 140, 150) for receiving the power from a power supply device and for transmitting the power to said power reception unit (210, 220, 230); and a detection device for detecting reflected power to said power supply device; the wireless power feeding apparatus being characterized by further comprising: an estimation unit for estimating a positional mismatch amount of the power reception unit (210, 220, 230) relative to said power transmission unit (130, 140, 150), based on a power receiving state of said power reception device and the reflected power in the wireless power feeding apparatus by using a predetermined map indicating a relation obtained in advance between the power receiving state and the reflected power, and the positional mismatch amount. a power transmission unit (130, 140, 150) for receiving the power from a power supply device and for transmitting the power to said power reception unit (210, 220, 230); and a detection device for detecting reflected power to said power supply device; the wireless power feeding apparatus being characterized by further comprising: an estimation unit for estimating a positional mismatch amount of the power reception unit (210, 220, 230) relative to said power transmission unit (130, 140, 150), based on a power receiving state of said power reception device and the reflected power in the wireless power feeding apparatus by using a predetermined map indicating a relation obtained in advance between the power receiving state and the reflected power, and the positional mismatch amount. an estimation unit for estimating a positional mismatch amount of the power reception unit (210, 220, 230) relative to said power transmission unit (130, 140, 150), based on a power receiving state of said power reception device and the reflected power in the wireless power feeding apparatus by using a predetermined map indicating a relation obtained in advance between the power receiving state and the reflected power, and the positional mismatch amount.
A process of recovering xylose by nanofiltration from a solution of plant-based biomass hydrolysate containing xylose, comprising subjecting the solution to nanofiltration to obtain a nanofiltration retentate and a nanofiltration permeate, and recovering the nanofiltration permeate comprising a solution enriched in xylose, characterized by regulating the xylose flux in the nanofiltration permeate to a range of 0.2 to 3 kg xylose/(m 2 /h) by adjusting the dry substance content of the solution of the plant-based biomass hydrolysate used as the nanofiltration feed to a range of 25 to 40% by weight and the xylose content of the nanofiltration feed to a range of 35 to 65% on DS, and by further adjusting the nanofiltration temperature to the range of 55-70°C and the nanofiltration pressure to the range of 20-45 bar, recovering a nanofiltration permeate having a dry substance content of 10 to 40% by weight and a xylose content of 35 to 85% on DS, to provide a xylose enrichment factor of at least 1.2 in the nanofiltration permeate and a permeate dilution factor higher than 0.2.
An antenna sensor system comprising: an antenna operable to at least receive radio frequency, hereafter abbreviated RF, signals; and at least one sensor operably connected to the antenna and configured to monitor at least one condition and to output sensor signals; characterized in that the antenna sensor system comprises a single connection to an electronic device that transfers RF signals received from the antenna and sensor signals from the at least one sensor to the electronic device, and further comprises an electronic circuit in the electronic device configured to receive and separate the RF signals and the sensor signals. an antenna operable to at least receive radio frequency, hereafter abbreviated RF, signals; and at least one sensor operably connected to the antenna and configured to monitor at least one condition and to output sensor signals; characterized in that the antenna sensor system comprises a single connection to an electronic device that transfers RF signals received from the antenna and sensor signals from the at least one sensor to the electronic device, and further comprises an electronic circuit in the electronic device configured to receive and separate the RF signals and the sensor signals.
An isolated aminoacyl-tRNA synthetase (AARS) polypeptide consisting of an amino acid sequence that is at least 80%, 85%, 90%, 95%, 98%, or 100% identical to SEQ ID NO:54, wherein the polypeptide comprises the non-canonical biological activity of modulation of cell adhesion and chemotaxis.
A proline dehydrogenase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein glycine, which is an amino acid corresponding to position 834 of SEQ ID NO: 3, is substituted with serine.
A device for application of binding strips from an unwinding belt with labels on sheet material, comprising an unwinding roller, a guide means equipped with a sensor for detecting the labels, a spike roller with drive acting as a feed device, an applicator device with drive and a control unit for controlling the spike roller drive and the applicator device drive for automatic loading and positioning of the binding strip tape according to the labels detected by the sensor, wherein the applicator device is a pressure bar with drive equipped with a cutting device.
Take-off system for Unmanned Aerial Vehicles comprising a winch, a towline, and a dolly on which an Unmanned Aerial Vehicle can be mounted, characterized in that the take-off system additionally comprises a microcontroller unit connected to the winch, configured for controlling activation/deactivation of the winch, wherein the take-off system additionally comprises a radio receiver unit connected to the microcontroller unit, wherein the microcontroller unit is configured to activate/deactivate the winch at the reception of a take-off command from a radio transmitter, with which a pilot commands the Unmanned Aerial Vehicle.
A blood coagulation system analysis device comprising: a pair of electrodes (E1, E2); application means adapted to apply alternating voltages of a first frequency and a second frequency different from the first frequency to the pair of electrodes (E1, E2) at predetermined time intervals, wherein blood, on which acts an anticoagulation effect, is positioned between and contacted with the pair of electrodes (E1, E2); determining means adapted to determine that the anticoagulation effect has ended; measurement means adapted to measure, at time intervals after the anticoagulant effect acting on the blood has ended, permittivities of the blood corresponding to the first and second frequency; and analysis means adapted to analyze a degree of hypercoagulability or a degree of coagulability by using the permittivities measured by the measurement means, wherein the analysis means is adapted to calculate a difference of a first change ratio calculated at said first frequency and of a second change ratio calculated at said second frequency, wherein a change ratio is defined as a ratio between the measured permittivity within a predetermined time after the anticoagulation effect has ended and the measured permittivity at a reference time, and wherein the analysis means uses the difference of said two change ratios, representative of a temporal change in permittivity, to analyze the the degree of the hypercoagulability or the degree of coagulability. a pair of electrodes (E1, E2); application means adapted to apply alternating voltages of a first frequency and a second frequency different from the first frequency to the pair of electrodes (E1, E2) at predetermined time intervals, wherein blood, on which acts an anticoagulation effect, is positioned between and contacted with the pair of electrodes (E1, E2); determining means adapted to determine that the anticoagulation effect has ended; measurement means adapted to measure, at time intervals after the anticoagulant effect acting on the blood has ended, permittivities of the blood corresponding to the first and second frequency; and analysis means adapted to analyze a degree of hypercoagulability or a degree of coagulability by using the permittivities measured by the measurement means, wherein the analysis means is adapted to calculate a difference of a first change ratio calculated at said first frequency and of a second change ratio calculated at said second frequency,
An output module comprising: electrical outputs adapted for connection to external equipment; a network interface for communicating with other devices; and an electronic computer communicating with the electrical outputs and the network interface and executing a program stored in non-transient storage medium configured to: receive, from a non-controller device over a peer-to-peer connection, motion data providing a time series of data values representing motion of a device, wherein the non-controller device is selected from the group consisting of: a motor drive and an I/O module; receive over the network interface a output camming command from an industrial controller; in response to the camming command, generate at an electrical output, cam data providing a time series of data values representing a cycle of desired motion of an external equipment, the cam data based on the received motion data and a cam function held in the output module mapping motion data to cam data; and send a completion signal to the industrial controller over the network interface after generation of the cam data. electrical outputs adapted for connection to external equipment; a network interface for communicating with other devices; and an electronic computer communicating with the electrical outputs and the network interface and executing a program stored in non-transient storage medium configured to: receive, from a non-controller device over a peer-to-peer connection, motion data providing a time series of data values representing motion of a device, wherein the non-controller device is selected from the group consisting of: a motor drive and an I/O module; receive over the network interface a output camming command from an industrial controller; in response to the camming command, generate at an electrical output, cam data providing a time series of data values representing a cycle of desired motion of an external equipment, the cam data based on the received motion data and a cam function held in the output module mapping motion data to cam data; and send a completion signal to the industrial controller over the network interface after generation of the cam data. receive, from a non-controller device over a peer-to-peer connection, motion data providing a time series of data values representing motion of a device, wherein the non-controller device is selected from the group consisting of: a motor drive and an I/O module; receive over the network interface a output camming command from an industrial controller; in response to the camming command, generate at an electrical output, cam data providing a time series of data values representing a cycle of desired motion of an external equipment, the cam data based on the received motion data and a cam function held in the output module mapping motion data to cam data; and send a completion signal to the industrial controller over the network interface after generation of the cam data.
A method for fermenting a microorganism, producing Thaxtomin of interest, in a culture medium comprising: adding a browned glucose solution to the culture medium, wherein the browned glucose solution is a glucose solution that has been acid treated and heated to a temperature of at least 90 degrees Celsius, and wherein the glucose solution has a concentration of at least 500 g/l. adding a browned glucose solution to the culture medium, wherein the browned glucose solution is a glucose solution that has been acid treated and heated to a temperature of at least 90 degrees Celsius, and wherein the glucose solution has a concentration of at least 500 g/l.
A multi-phase oral composition comprising: a) from about 0.9% to about 60% by weight of the multi-phase oral composition of an aqueous phase having a bleaching agent, wherein the amount of the bleaching agent in the multi-phase oral composition is from more than 0.5% to about 20%; b) from about 40% to about 99.1% by weight of the multi-phase oral composition of a hydrophobic phase; wherein the multi-phase oral composition has a cone penetration consistency value from about 50 to about 400 as measured by ASTM D937-07 and is an emulsion selected from water-in-oil emulsions, oil-in-water emulsions, water-in-oil-in-water emulsion, and oil-in-water-in oil emulsions; and wherein the hydrophobic phase has a drop melting point from about 40°C to about 80°C as measured by ASTM D127-08 and comprises at least one of mineral oil thickened with wax, mineral oil thickened with polyethylene, or petrolatum; and wherein the two-dimensional density, meaning the number of droplets of aqueous phase a) that are present in a square centimeter of a two-dimensional plane in the multi-phase oral composition and b) wherein the cross-sectional area of the droplets in the two-dimensional plane are larger than a specified value, of droplets with a cross-sectional area larger than about 10000 square microns measured using the procedure specified herein is no more than about 10 per square centimeter. a) from about 0.9% to about 60% by weight of the multi-phase oral composition of an aqueous phase having a bleaching agent, wherein the amount of the bleaching agent in the multi-phase oral composition is from more than 0.5% to about 20%; b) from about 40% to about 99.1% by weight of the multi-phase oral composition of a hydrophobic phase; wherein the multi-phase oral composition has a cone penetration consistency value from about 50 to about 400 as measured by ASTM D937-07 and is an emulsion selected from water-in-oil emulsions, oil-in-water emulsions, water-in-oil-in-water emulsion, and oil-in-water-in oil emulsions; and wherein the hydrophobic phase has a drop melting point from about 40°C to about 80°C as measured by ASTM D127-08 and comprises at least one of mineral oil thickened with wax, mineral oil thickened with polyethylene, or petrolatum; and wherein the two-dimensional density, meaning the number of droplets of aqueous phase a) that are present in a square centimeter of a two-dimensional plane in the multi-phase oral composition and b) wherein the cross-sectional area of the droplets in the two-dimensional plane are larger than a specified value, of droplets with a cross-sectional area larger than about 10000 square microns measured using the procedure specified herein is no more than about 10 per square centimeter.
An image signal processing unit for processing pixel signals provided by color pixels of an image device, each pixel signal including a color level signal and a black level signal superimposed on the color level signal, the processing unit comprising: a first amplifier for setting a first amplification factor for the pixel signals for each color pixel to adjust the sensitivities of the color pixels; and a second amplifier for amplifying the pixel signals from the first amplifier, whose sensitivities have been adjusted, with a second amplification factor to increase a color level signal of the first adjusted pixel signals towards a maximum signal so as to have a signal intensity equivalent to a dynamic range of image processing performed at a later stage; characterised by: a computing unit adapted to subtract a black level signal component from each of the pixel signals amplified by the second amplifier, wherein the black level signal component is obtained by amplification of the black level signals by the first amplifier and the second amplifier, and an A/D converter for A/D-converting output signals of the computing unit, wherein the dynamic range of image processing performed in the later stage is the dynamic range of the A/D converter. a first amplifier for setting a first amplification factor for the pixel signals for each color pixel to adjust the sensitivities of the color pixels; and a second amplifier for amplifying the pixel signals from the first amplifier, whose sensitivities have been adjusted, with a second amplification factor to increase a color level signal of the first adjusted pixel signals towards a maximum signal so as to have a signal intensity equivalent to a dynamic range of image processing performed at a later stage; a computing unit adapted to subtract a black level signal component from each of the pixel signals amplified by the second amplifier, wherein the black level signal component is obtained by amplification of the black level signals by the first amplifier and the second amplifier, and an A/D converter for A/D-converting output signals of the computing unit, wherein the dynamic range of image processing performed in the later stage is the dynamic range of the A/D converter.