mhurhangee/ep-ind-claims huggingface dataset:
A composition for treating a surface, the composition comprising: (a) 1 to 30 wt-% of one or more amino acid, wherein the one or more amino acid comprises lysine; (b) 0.1 to 30 wt-% of one or more surfactants; and (c) optionally one or more hydrotropes, wherein the composition further comprises magnesium and comprises less than 1 wt-% of alkanolamines. (a) 1 to 30 wt-% of one or more amino acid, wherein the one or more amino acid comprises lysine; (b) 0.1 to 30 wt-% of one or more surfactants; and (c) optionally one or more hydrotropes,
A linear regulator having an output stage comprising first and second P-channel MOS transistors (32, 33) serially connected between a first D.C. supply terminal (Vdd) and an output terminal providing a regulated output voltage (Vout), and a control circuit for controlling the first and second transistors, characterized in that the control circuit is capable of providing them with first and second control signals as a function of the output voltage and the voltage at the midpoint of the series connection, so that the voltage at the midpoint is maintained at half the difference between the D.C. supply and the regulated output voltage.
A method, comprising: determining a quantity of a reagent to inject with a dosing system over a dosing cycle to treat an exhaust gas in an exhaust system that includes a selective catalytic reduction catalyst, wherein the dosing cycle includes a plurality of dosing periods (t 11, t 22) and a doser on-time (t 1, t 2) and a doser off-time (t 1', t 2') within each dosing period (t 11, t 22), wherein a predetermined portion of the quantity of the reagent is injected during the dosing on-time (t 1, t 2) of each dosing period (t 11, t 22); operating the dosing system to inject the quantity of the reagent into the exhaust system during the dosing cycle, wherein operating the dosing system includes controlling a pump of the dosing system with pressure feedback control to maintain an operating pressure of the dosing system when the injector is opened; identifying a diagnostic dosing period from the dosing periods (t 11, t 22) in the dosing cycle; during the diagnostic time period, suspending pressure feedback control of the pump while maintaining a speed of the pump; measuring a pressure drop (ΔP) of the dosing system downstream of the pump during the doser on-time (t 2) of the diagnostic dosing period (t 22); and determining a fault condition of the dosing system in providing the quantity of the reagent in response to the pressure drop (ΔP) measured during the diagnostic dosing period (t 22). determining a quantity of a reagent to inject with a dosing system over a dosing cycle to treat an exhaust gas in an exhaust system that includes a selective catalytic reduction catalyst, wherein the dosing cycle includes a plurality of dosing periods (t 11, t 22) and a doser on-time (t 1, t 2) and a doser off-time (t 1', t 2') within each dosing period (t 11, t 22), wherein a predetermined portion of the quantity of the reagent is injected during the dosing on-time (t 1, t 2) of each dosing period (t 11, t 22); operating the dosing system to inject the quantity of the reagent into the exhaust system during the dosing cycle, wherein operating the dosing system includes controlling a pump of the dosing system with pressure feedback control to maintain an operating pressure of the dosing system when the injector is opened; identifying a diagnostic dosing period from the dosing periods (t 11, t 22) in the dosing cycle; during the diagnostic time period, suspending pressure feedback control of the pump while maintaining a speed of the pump; measuring a pressure drop (ΔP) of the dosing system downstream of the pump during the doser on-time (t 2) of the diagnostic dosing period (t 22); and determining a fault condition of the dosing system in providing the quantity of the reagent in response to the pressure drop (ΔP) measured during the diagnostic dosing period (t 22).
A method of preparing a first and second lithographic printing plate for lithographic printing of a colour digital image on a receiver wherein the colour digital image comprises a plurality of colorant separations; comprising the steps: - jetting droplets by an inkjet CTP system on a first lithographic support for the first lithographic printing plate thereby forming a printing area of a first lithographic image which represents a first colorant separation of the plurality of colorant separations; and - jetting droplets by the inkjet CTP system on a second lithographic support for the second lithographic printing plate thereby forming a printing area of a second lithographic image which represents a second colorant separation of the plurality of colorant separations; wherein preparing a first and second lithographic printing plate is done by forming a part of the first and second lithographic image in a same print pass by an inkjet printing device of the inkjet CTP system; - feeding the first and second lithographic support onto a printing support of the inkjet CTP system; and aligning the first and second lithographic support to be parallel to each other, wherein the method comprises the following additional steps prior to the jetting of the droplets: a) measuring the position of the first and second lithographic support on the printing support; and b) merging the first and second colorant separation to a digital image in accordance with the measured positions; and c) halftoning the digital image to a digital raster image. - jetting droplets by an inkjet CTP system on a first lithographic support for the first lithographic printing plate thereby forming a printing area of a first lithographic image which represents a first colorant separation of the plurality of colorant separations; and - jetting droplets by the inkjet CTP system on a second lithographic support for the second lithographic printing plate thereby forming a printing area of a second lithographic image which represents a second colorant separation of the plurality of colorant separations; wherein preparing a first and second lithographic printing plate is done by forming a part of the first and second lithographic image in a same print pass by an inkjet printing device of the inkjet CTP system; - feeding the first and second lithographic support onto a printing support of the inkjet CTP system; and aligning the first and second lithographic support to be parallel to each other, wherein the method comprises the following additional steps prior to the jetting of the droplets: a) measuring the position of the first and second lithographic support on the printing support; and b) merging the first and second colorant separation to a digital image in accordance with the measured positions; and c) halftoning the digital image to a digital raster image. a) measuring the position of the first and second lithographic support on the printing support; and b) merging the first and second colorant separation to a digital image in accordance with the measured positions; and c) halftoning the digital image to a digital raster image.
A heat exchanging apparatus comprising: a case open upward; a heat exchange unit housed in the case; and a storage tank arranged at an upper section of the case, wherein heat exchange fluid stored in the storage tank drops onto a heat transfer medium circulation pipe of the heat exchange unit by dead weight to exchange heat between the heat exchange fluid and a heat transfer medium, the heat transfer medium flowing through the heat transfer medium circulation pipe, wherein a heat transfer medium inlet and a heat transfer medium outlet are open in a same direction at both ends of the heat transfer medium circulation pipe, and a heat exchange fluid discharge port for discharging the heat exchange fluid having dropped in the case is formed on a side wall of the case either in the same direction as or in the opposite direction to an opening direction of the heat transfer medium inlet and the heat transfer medium outlet so that the heat exchange unit can be vertically taken in and out of the case, wherein the heat transfer medium circulation pipe is wound spirally along the vertical direction and wherein the heat exchanger unit comprises a rectangular frame for housing and holding the heat transfer medium circulation pipe, wherein the heat transfer medium inlet and the heat transfer medium outlet are open on one of fixing plates vertically installed to two opposite positions of the rectangular frame, and wherein a communication hole is formed on each of lower sections of both fixing plates so that either one of the communication holes communicates with the heat exchange fluid discharge port. a case open upward; a heat exchange unit housed in the case; and a storage tank arranged at an upper section of the case, wherein heat exchange fluid stored in the storage tank drops onto a heat transfer medium circulation pipe of the heat exchange unit by dead weight to exchange heat between the heat exchange fluid and a heat transfer medium, the heat transfer medium flowing through the heat transfer medium circulation pipe, wherein a heat transfer medium inlet and a heat transfer medium outlet are open in a same direction at both ends of the heat transfer medium circulation pipe, and a heat exchange fluid discharge port for discharging the heat exchange fluid having dropped in the case is formed on a side wall of the case either in the same direction as or in the opposite direction to an opening direction of the heat transfer medium inlet and the heat transfer medium outlet so that the heat exchange unit can be vertically taken in and out of the case, wherein the heat transfer medium circulation pipe is wound spirally along the vertical direction and wherein the heat exchanger unit comprises a rectangular frame for housing and holding the heat transfer medium circulation pipe, wherein the heat transfer medium inlet and the heat transfer medium outlet are open on one of fixing plates vertically installed to two opposite positions of the rectangular frame, and wherein a communication hole is formed on each of lower sections of both fixing plates so that either one of the communication holes communicates with the heat exchange fluid discharge port.
A method of operating a processor, the method comprising: identifying a speculation-source operation, being an operation that speculation is based on; identifying an operation that is at least partially executed in a speculative fashion based on the identified speculation-source operation; if the identified operation is dependent on speculative data: classifying the identified operation as a taint-source operation; associating the speculation-source operation with the taint-source operation; storing taint data associating the taint-source operation with the speculation source operation; and based on the stored taint data, blocking the taint-source operation until its associated speculation-source operation is resolved; if the identified operation is not dependent on speculative data: classifying the identified operation as safe; and allowing the safe operation to proceed. identifying a speculation-source operation, being an operation that speculation is based on; identifying an operation that is at least partially executed in a speculative fashion based on the identified speculation-source operation; if the identified operation is dependent on speculative data: classifying the identified operation as a taint-source operation; associating the speculation-source operation with the taint-source operation; storing taint data associating the taint-source operation with the speculation source operation; and based on the stored taint data, blocking the taint-source operation until its associated speculation-source operation is resolved; classifying the identified operation as a taint-source operation; associating the speculation-source operation with the taint-source operation; storing taint data associating the taint-source operation with the speculation source operation; and based on the stored taint data, blocking the taint-source operation until its associated speculation-source operation is resolved; if the identified operation is not dependent on speculative data: classifying the identified operation as safe; and allowing the safe operation to proceed. classifying the identified operation as safe; and allowing the safe operation to proceed.
An arrangement having an external cardiac pacemaker and having an output device, wherein the external cardiac pacemaker has first means for generating impulses for a regular stimulation of the myocardium in the VV mode and second means for generating a current pulse or a cardioversion shock for the purpose of cardioversion, wherein furthermore recording means are provided for determining the electrocardiogram or one or more portions of the electrocardiogram, as well as third means which are connected to the output device and which are configured such that they supply one or more signals to the output device, said signal or signals comprising both the electrocardiogram or its at least one portion and, in the VVT mode, pulses generated by the cardiac pacemaker, characterised in that the arrangement has evaluation means which determine the time relationship between the R wave of the electrocardiogram and the pulses generated by the cardiac pacemaker in the VVT mode.
Backplane for electrically connecting electrical components (3 to 7), the backplane comprising - a carrier plate, - an electrical supply network for electrically connecting the electrical components (3 to 7), which is arranged on and/or in the carrier plate and which has network nodes and connection lines connecting in each case two network nodes, and - actuatable circuit units for controllably interrupting and disconnecting a respective connecting line, characterized in that the circuit units can be actuated wirelessly. - a carrier plate, - an electrical supply network for electrically connecting the electrical components (3 to 7), which is arranged on and/or in the carrier plate and which has network nodes and connection lines connecting in each case two network nodes, and - actuatable circuit units for controllably interrupting and disconnecting a respective connecting line,
A probe card for a wafer comprising: a substrate; an insulating layer formed on the substrate; a plurality of first pads and a plurality of second pads formed on the insulating layer; and a plurality of rear pads connected to the plurality of first pads and the second pads, respectively, via through silicon vias, TSVs, wherein the plurality of first pads and the plurality of second pads are configured to transfer electrical signals to electrode pads of a light emitting diode, LED, wafer, wherein the plurality of first pads are connected to each other in a line-by-line manner by an electric wiring in a first direction, the electric wiring connecting the first pads being connected to the TSVs connecting the first pads and rear pads, characterised in that the plurality of second pads are connected to each other in a line-by-line manner by an electric wiring in a second direction, the electric wiring connecting the second pads being connected to the TSVs connecting the second pads and rear pads, and wherein the plurality of first pads are formed by etching the insulating layer provided with the plurality of first pads and re-depositing the plurality of first pads after depositing the plurality of second pads. a substrate; an insulating layer formed on the substrate; a plurality of first pads and a plurality of second pads formed on the insulating layer; and a plurality of rear pads connected to the plurality of first pads and the second pads, respectively, via through silicon vias, TSVs, wherein the plurality of first pads and the plurality of second pads are configured to transfer electrical signals to electrode pads of a light emitting diode, LED, wafer, wherein the plurality of first pads are connected to each other in a line-by-line manner by an electric wiring in a first direction, the electric wiring connecting the first pads being connected to the TSVs connecting the first pads and rear pads, characterised in that the plurality of second pads are connected to each other in a line-by-line manner by an electric wiring in a second direction, the electric wiring connecting the second pads being connected to the TSVs connecting the second pads and rear pads, and wherein the plurality of first pads are formed by etching the insulating layer provided with the plurality of first pads and re-depositing the plurality of first pads after depositing the plurality of second pads.
Road milling machine, recycler, or stabilizer, with - a machine frame units having preferably vertically arranged lateral outer walls carried by a chassis with four crawler track units or wheel, - a milling drum supported in the machine frame for working a ground surface or traffic surface, said milling drum extending transversely to the travelling direction between the crawler track units or wheel units of the front and rear axles, and - an operator's platform with an operating and indicating panel and a seat for a machine driver, which is integrated into the operator's platform, wherein the operator's platform is moveable on the machine frame transversely to the direction of travel, and the machine frame is provided with a guide for the operator's platform acting transversely to the direction of travel, characterized in that operator's platform is moveable outwards on either side beyond the lateral outer walls of the machine frame, that the guide projects laterally either not at all or just slightly beyond the outer walls, and that the operator's platform is mounted to swivel around a vertical axis at least when in the outer positions. - a machine frame units having preferably vertically arranged lateral outer walls carried by a chassis with four crawler track units or wheel, - a milling drum supported in the machine frame for working a ground surface or traffic surface, said milling drum extending transversely to the travelling direction between the crawler track units or wheel units of the front and rear axles, and - an operator's platform with an operating and indicating panel and a seat for a machine driver, which is integrated into the operator's platform, wherein the operator's platform is moveable on the machine frame transversely to the direction of travel, and the machine frame is provided with a guide for the operator's platform acting transversely to the direction of travel, characterized in that operator's platform is moveable outwards on either side beyond the lateral outer walls of the machine frame, that the guide projects laterally either not at all or just slightly beyond the outer walls, and that the operator's platform is mounted to swivel around a vertical axis at least when in the outer positions.
An apparatus for forming plastic preforms into plastic containers, with at least one blowing station arranged on a moving carrier, wherein the blowing station has a blow mould carrier for holding a blow mould (4a, 4b) and the blow mould carrier has a first blow mould carrier part and a second blow mould carrier part, wherein the second blow mould carrier part can be moved away from the first blow mould carrier part in order to open the blow mould (4a, 4b) for removal of a plastic container and/or for insertion of a preform, and wherein the second blow mould carrier part can be moved towards the first blow mould carrier part in order to transfer the blow mould (4a, 4b) into a close state for forming the preform, characterized in that the second blow mould carrier part has a lower density than the first blow mould carrier part.
A system for heating a shape memory alloy actuator, the system comprising: an SMA actuator having at least one layup (32,34), the SMA actuator selectively heated to a transition temperature; a smart susceptor in thermal contact with the at least one layup of the SMA actuator; a plurality of induction heating coils configured to receive an alternating current and generate a magnetic field based on the alternating current, the magnetic field creating an eddy current in at least one of the SMA actuator and the smart susceptor to heat the SMA actuator to the transition temperature; and a control module configured to drive the alternating current supplied to the induction heating coils. an SMA actuator having at least one layup (32,34), the SMA actuator selectively heated to a transition temperature; a smart susceptor in thermal contact with the at least one layup of the SMA actuator; a plurality of induction heating coils configured to receive an alternating current and generate a magnetic field based on the alternating current, the magnetic field creating an eddy current in at least one of the SMA actuator and the smart susceptor to heat the SMA actuator to the transition temperature; and a plurality of induction heating coils configured to receive an alternating current and generate a magnetic field based on the alternating current, the magnetic field creating an eddy current in at least one of the SMA actuator and the smart susceptor to heat the SMA actuator to the transition temperature; and a control module configured to drive the alternating current supplied to the induction heating coils.
A cutter tool comprising: a handle, a blade rack, and a blade set, wherein the handle and the blade rack are installed on the blade set, wherein said blade set has a peripheral protection plate and several blades or thin threads, wherein each of the thin threads or a sharp face of each of the blades is lower than a low end of the protection plate, wherein each of the thin threads or the blades has capability of elastic deformation, wherein said sharp face has an elasticity of less than 5 mm to ensure that the protection plate protects the blade edge or the thin thread, wherein said elasticity is large enough so that said sharp face may be in a shadow of said protection plate, when the cutter tool is used on a surface of a chopping board which is not absolutely flat.
A recombinant expression vector comprising an inducible promoter by 3-hydroxypropionic acid (3-HP) or a derivative thereof, the inducible promoter comprising a binding site to a LysR protein which is reactive to 3-HP or a derivative thereof, wherein the derivative is selected from 3-hydroxyisobutyrate or 3-hydroxybutyrate(3-HB), and the binding site is consisting of i) a base sequence selected from SEQ ID NOs: 5 to 43 and ii) an inverted repeat sequence consisting of a base sequence selected from SEQ ID NOs: 5 to 43, wherein i) and ii) are repeated once.
Ceramic sensor element comprising a supporting foot and a ceramic support, wherein the ceramic support is formed as a cantilever membrane suspended at one end, on which sensitive layers and contact areas are provided, wherein the thickness of the membrane lies in the range between 10 and 50 μm and the sensitive layers and the contact areas have been applied to the ceramic support, wherein meandering conductor structures and the contact areas are arranged on the ceramic support and wherein the ceramic support has a heatsink structure (1.1) on its underside, wherein the supporting foot is securely connectable to a supporting component, wherein the supporting foot is arranged between the ceramic support and the supporting component and wherein the supporting foot is formed in one piece with the ceramic support.