mhurhangee/ep-ind-claims huggingface dataset:
A networked computer system for facilitating centralized management of configuration and propagation of data quality and status behaviors for graphical elements within human machine interface applications distributable across multiple nodes of the system, the networked computer system comprising: a computer node including a computer-readable medium comprising a configuration database for maintaining a global data quality and status behaviors definition in a central configuration storage; a computer node including a computer-readable medium comprising computer-executable instructions for a definition editor including a user interface supporting designation of data quality and status behaviors defined within the global data quality and status behaviors definition; and wherein the computer node including the configuration database comprises further computer-executable instructions for a definition distribution mechanism for propagating changes to the global data quality and status behaviors definition to a set of remote nodes executing HMI applications on a network, wherein the HMI applications include graphics associated with data having associated qualities and statuses. a computer node including a computer-readable medium comprising a configuration database for maintaining a global data quality and status behaviors definition in a central configuration storage; a computer node including a computer-readable medium comprising computer-executable instructions for a definition editor including a user interface supporting designation of data quality and status behaviors defined within the global data quality and status behaviors definition; and wherein the computer node including the configuration database comprises further computer-executable instructions for a definition distribution mechanism for propagating changes to the global data quality and status behaviors definition to a set of remote nodes executing HMI applications on a network, wherein the HMI applications include graphics associated with data having associated qualities and statuses.
A computer-implemented method for protecting objects in a computer system, comprising determining whether an object is infected by malware, and if the object is infected: determining an infection point in time at which the object became infected by monitoring the object and backup copies of the object for changes; using the infection point in time to select a first backup copy of the object in a backup of the objects, wherein selecting the first backup copy includes selecting a backup copy made prior to the infection point; determining whether the first backup copy is infected by malware; replacing the object with the first backup copy if the first backup copy is not infected by malware; locating a second backup copy of the same object in a backup of the objects if the first backup copy is infected, wherein locating a second backup copy includes comparing a candidate backup copy to the first backup copy to determine whether the second backup copy is different from the first copy; and replacing the object with the second backup copy if the first backup copy is infected and if the second backup copy is different from the first copy. determining an infection point in time at which the object became infected by monitoring the object and backup copies of the object for changes; using the infection point in time to select a first backup copy of the object in a backup of the objects, wherein selecting the first backup copy includes selecting a backup copy made prior to the infection point; determining whether the first backup copy is infected by malware; replacing the object with the first backup copy if the first backup copy is not infected by malware; locating a second backup copy of the same object in a backup of the objects if the first backup copy is infected, wherein locating a second backup copy includes comparing a candidate backup copy to the first backup copy to determine whether the second backup copy is different from the first copy; and replacing the object with the second backup copy if the first backup copy is infected and if the second backup copy is different from the first copy.
A hybrid vehicle, comprising: an internal combustion engine and a motor as a driving source; a transmission that changes a speed of rotation of the internal combustion engine or motor and transmits the rotation to driving wheels of the vehicle; a high-voltage battery that supplies power to the motor through an inverter; a cooling mechanism equipped with a pump to circulate a coolant and thereby cool the inverter; a coolant temperature measurement device that detects or estimates a temperature of the coolant; a low-voltage battery that supplies power to the pump; and a converter through which power is supplied from the high-voltage battery to the pump, characterized in that, in a high-coolant-temperature start-up condition that the temperature of the coolant is higher than or equal to a predetermined temperature value at power-on of the vehicle by driver's key operation, the pump is started before the supply of the power from the high-voltage battery to the inverter and to the converter. an internal combustion engine and a motor as a driving source; a transmission that changes a speed of rotation of the internal combustion engine or motor and transmits the rotation to driving wheels of the vehicle; a high-voltage battery that supplies power to the motor through an inverter; a cooling mechanism equipped with a pump to circulate a coolant and thereby cool the inverter; a coolant temperature measurement device that detects or estimates a temperature of the coolant; a low-voltage battery that supplies power to the pump; and a converter through which power is supplied from the high-voltage battery to the pump, characterized in that, in a high-coolant-temperature start-up condition that the temperature of the coolant is higher than or equal to a predetermined temperature value at power-on of the vehicle by driver's key operation, the pump is started before the supply of the power from the high-voltage battery to the inverter and to the converter.
A matching structure for use in an ultrasonic transducer, comprising: a mini-horn array (506, 606, 806, 1006, 1106, 1206, 1306) comprising: a back plate (508, 608, 808, 1308); a plurality of horns (510, 610, 8010, 1010, 1110, 1210, 1310) extending from the back plate (508, 608, 808, 1308), each of the horns (510, 610, 8010, 1010, 1110, 1210, 1310) comprising: a base (614, 814, 1314) adjacent the back plate (508, 608, 808, 1308); and a neck (616, 816, 1316) extending from the base (614, 814, 1314), wherein transverse area of the base (614, 814, 1314) is larger than transverse area of the neck; a front plate (512, 612, 812, 1312) adjacent the neck (616, 816, 1316) of each of the horns (510, 610, 8010, 1010, 1110, 1210, 1310); wherein the back plate (508, 608, 808, 1308), the front plate (512, 612, 812, 1312), and the array of horns (510, 610, 8010, 1010, 1110, 1210, 1310) are formed in a monolithic body. a back plate (508, 608, 808, 1308); a plurality of horns (510, 610, 8010, 1010, 1110, 1210, 1310) extending from the back plate (508, 608, 808, 1308), each of the horns (510, 610, 8010, 1010, 1110, 1210, 1310) comprising: a base (614, 814, 1314) adjacent the back plate (508, 608, 808, 1308); and a neck (616, 816, 1316) extending from the base (614, 814, 1314), wherein transverse area of the base (614, 814, 1314) is larger than transverse area of the neck; a base (614, 814, 1314) adjacent the back plate (508, 608, 808, 1308); and a neck (616, 816, 1316) extending from the base (614, 814, 1314), wherein transverse area of the base (614, 814, 1314) is larger than transverse area of the neck; a front plate (512, 612, 812, 1312) adjacent the neck (616, 816, 1316) of each of the horns (510, 610, 8010, 1010, 1110, 1210, 1310); wherein the back plate (508, 608, 808, 1308), the front plate (512, 612, 812, 1312), and the array of horns (510, 610, 8010, 1010, 1110, 1210, 1310) are formed in a monolithic body.
A granulate or profile made of a reinforced polyvinyl chloride polymer comprising at least 40 weight parts, preferably at least 60 weight parts, most preferably at least 80 weight parts of naturally occurring mineral filler for every 100 weight parts of polyvinyl chloride, and PVC with a K-value of 50-68, characterized in that said granulate or profile has a flexural modulus of at least 5 GPa, preferably at least 8 GPa, more preferably at least 10 GPa, wherein the naturally occurring mineral filler is selected from a group including wollastonite, vermiculite, talc, mica, and/or combinations thereof.
A vane structure (64A, 64B) for a gas turbine engine: the vane structure (64A, 64B) comprises: a CMC outer ring; a CMC inner ring; and a multiple of CMC airfoil sections integrated between said CMC outer ring and said CMC inner ring, characterised in that each of said CMC outer ring and said CMC inner ring is a full uninterrupted hoop. the vane structure (64A, 64B) comprises: a CMC outer ring; a CMC inner ring; and a multiple of CMC airfoil sections integrated between said CMC outer ring and said CMC inner ring, characterised in that each of said CMC outer ring and said CMC inner ring is a full uninterrupted hoop. a CMC outer ring; a CMC inner ring; and a multiple of CMC airfoil sections integrated between said CMC outer ring and said CMC inner ring, characterised in that each of said CMC outer ring and said CMC inner ring is a full uninterrupted hoop.
An ink drying apparatus comprising a hot air dryer, a hot air supplying part having an air supplying blower, a heating unit and a hot air supplying pipe, and an exhausting part having an exhausting blower and an exhausting pipe; wherein the hot air dryer is provided with a drying furnace, a substrate conveying path formed as a spirally shaped path provided in the drying furnace, and a plurality of substrate drying ducts each provided with a hot air blowing duct for blowing hot air to a surface of a substrate on which ink is ejected conveyed along the substrate conveying path to heat ink and an exhausting duct for exhausting air containing water vapor generated by heating of ink, the hot air supplying part is provided at an outside of the drying furnace and configured to supply hot air into the substrate drying ducts, the exhausting part is provided at the outside of the drying furnace and configured to exhaust air from the drying furnace through the substrate drying ducts, and both the hot air supplying pipe and the exhausting pipe are spirally shaped. wherein the hot air dryer is provided with a drying furnace, a substrate conveying path formed as a spirally shaped path provided in the drying furnace, and a plurality of substrate drying ducts each provided with a hot air blowing duct for blowing hot air to a surface of a substrate on which ink is ejected conveyed along the substrate conveying path to heat ink and an exhausting duct for exhausting air containing water vapor generated by heating of ink, the hot air supplying part is provided at an outside of the drying furnace and configured to supply hot air into the substrate drying ducts, the exhausting part is provided at the outside of the drying furnace and configured to exhaust air from the drying furnace through the substrate drying ducts, and both the hot air supplying pipe and the exhausting pipe are spirally shaped.
Pneumatic control valve, for example dual-circuit brake transducer in a compressed air brake system of a vehicle for adjusting a brake pressure which corresponds to a desired brake action, having a first valve system (10, 14) which is arranged in a housing upper part with a first valve piston which can be actuated by pedal or electrically and with a first annular plate valve which interacts with the said first valve piston, and a second valve system (30, 37) which is arranged in a housing lower part with a coaxially arranged second valve piston which can be actuated pneumatically and/or mechanically by way of the first valve system (10, 14) and with a second annular plate valve which interacts with the said second valve piston, the housing upper part having a first cylindrical receiving space for the first valve piston, which receiving space is accessible from a side which faces away from the housing lower part, and a second receiving space for the first plate valve, which receiving space is accessible from a side which faces the housing lower part, and in which pneumatic control valve the housing lower part has a first receiving space (42, 43) for the second valve piston, which receiving space (42, 43) is accessible from a side which faces the housing upper part, and a second receiving space for the second plate valve, characterized in that the first plate valve is arranged in an axially displaceable and sealed manner on a support which can be inserted into the housing lower part and also comprises the receiving space (42, 43) for the second valve piston, and in that the second plate valve is arranged in an axially displaceable and sealed manner on a venting piece which can be inserted into the second receiving space which is accessible from the side which faces the housing upper part, with a venting passage which is routed out of the housing lower part.
A wetting mechanism for wetting a tube of a catheter, the wetting mechanism comprising: a housing configured to be positioned initially at or proximal to the tip end of the catheter tube, and wherein the housing comprises: a holding chamber for containing a volume of fluid therein; and a wetting chamber into which at least a portion of the catheter tube is able to be introduced and be moved therethrough to move at least a portion of the catheter tube through the wetting chamber, in use; and wherein the wetting mechanism comprises a fluid release control component for controlling release of the fluid from the holding chamber to the wetting chamber, the fluid release control component comprises a first configuration wherein it prevents release of the fluid from the holding chamber to the wetting chamber and a second configuration wherein it allows release of the fluid from the holding chamber to the wetting chamber, characterised in that the fluid release control component comprises a plug which is linearly moveable within the wetting mechanism between first and second positions corresponding to first and second configurations of the fluid release control component, the plug is configured to be at least partly withdrawn from the wetting mechanism to cause release of fluid from the holding chamber into the wetting chamber and the plug is configured such that it cannot be fully withdrawn from the wetting mechanism. a housing configured to be positioned initially at or proximal to the tip end of the catheter tube, and wherein the housing comprises: a holding chamber for containing a volume of fluid therein; and a wetting chamber into which at least a portion of the catheter tube is able to be introduced and be moved therethrough to move at least a portion of the catheter tube through the wetting chamber, in use; and a holding chamber for containing a volume of fluid therein; and a wetting chamber into which at least a portion of the catheter tube is able to be introduced and be moved therethrough to move at least a portion of the catheter tube through the wetting chamber, in use; and wherein the wetting mechanism comprises a fluid release control component for controlling release of the fluid from the holding chamber to the wetting chamber, the fluid release control component comprises a first configuration wherein it prevents release of the fluid from the holding chamber to the wetting chamber and a second configuration wherein it allows release of the fluid from the holding chamber to the wetting chamber, characterised in that the fluid release control component comprises a plug which is linearly moveable within the wetting mechanism between first and second positions corresponding to first and second configurations of the fluid release control component, the plug is configured to be at least partly withdrawn from the wetting mechanism to cause release of fluid from the holding chamber into the wetting chamber and the plug is configured such that it cannot be fully withdrawn from the wetting mechanism.
A device comprising: a flexible substrate; a conductive trace disposed on the substrate; an electronic component mounted to the substrate in a flexible region of the substrate; a liquid metal interconnect bridging between a pad on the component and the trace on the substrate; and an encapsulant covering the interconnect. a flexible substrate; a conductive trace disposed on the substrate; an electronic component mounted to the substrate in a flexible region of the substrate; a liquid metal interconnect bridging between a pad on the component and the trace on the substrate; and an encapsulant covering the interconnect.
A method to play a video data stream, comprising: parsing the video data stream to extract constituent intra-frames (I-frames) and inter-frames; storing a sequence of I-frames in an I-frame file, each I-frame of the sequence including information to generate a corresponding presentable video frame; storing a set of inter-frames in an inter-frame file, each inter-frame of the set including a reference to at least one I-frame and information to generate a respective presentable frame; and storing a set of index values in an index file, the index file including information to coordinate a pre-parsed position of each I-frame with at least one adjacent inter-frame. parsing the video data stream to extract constituent intra-frames (I-frames) and inter-frames; storing a sequence of I-frames in an I-frame file, each I-frame of the sequence including information to generate a corresponding presentable video frame; storing a set of inter-frames in an inter-frame file, each inter-frame of the set including a reference to at least one I-frame and information to generate a respective presentable frame; and storing a set of index values in an index file, the index file including information to coordinate a pre-parsed position of each I-frame with at least one adjacent inter-frame.
An arrangement for determining the phase distribution in multiphase fluids having at least one highly conductive phase with the additional presence of nonconductive components and/or other conductive components, comprising three electrode levels of wire-type electrodes situated one above the other and spread out in a sensor frame, a. wherein the electrodes in each level are arranged in parallel at a slight distance from one another, b. wherein two of the electrode levels are separated galvanically from the test medium by an insulating layer, and one of these two electrode levels functions as a transmitter level and another electrode level functions as a receiver level, and the orientation of the electrodes in these two levels is rotated at an angle to the other, wherein the levels are arranged parallel to one another, c. characterized in that, however, the third electrode level is not insulated and is at ground potential and therefore is also at ground potential with these highly conductive phase components that are in contact, and d. wherein the arrangement is connected to an electronic measuring device to measure the electrical capacitance or permittivity of the medium in the individual points of intersection formed by the transmitter electrodes and the receiver electrodes, and wherein the electronic measuring device is designed to apply an alternating voltage to the respective transmitter electrodes one after the other in succession, and meanwhile to switch all the other transmitter electrodes to ground and to measure the step function response of the current signal simultaneously on all receiver electrodes in parallel and to determine from this the permittivity of the test medium. a. wherein the electrodes in each level are arranged in parallel at a slight distance from one another, b. wherein two of the electrode levels are separated galvanically from the test medium by an insulating layer, and one of these two electrode levels functions as a transmitter level and another electrode level functions as a receiver level, and the orientation of the electrodes in these two levels is rotated at an angle to the other, wherein the levels are arranged parallel to one another, c. characterized in that, however, the third electrode level is not insulated and is at ground potential and therefore is also at ground potential with these highly conductive phase components that are in contact, and d. wherein the arrangement is connected to an electronic measuring device to measure the electrical capacitance or permittivity of the medium in the individual points of intersection formed by the transmitter electrodes and the receiver electrodes, and wherein the electronic measuring device is designed to apply an alternating voltage to the respective transmitter electrodes one after the other in succession, and meanwhile to switch all the other transmitter electrodes to ground and to measure the step function response of the current signal simultaneously on all receiver electrodes in parallel and to determine from this the permittivity of the test medium.
A rolled foil having on the convex surface of the rolled foil a pharmaceutical composition, wherein the rolled foil and the pharmaceutical composition are comprised inside a covering layer, wherein the convex surface of the rolled foil exerts a radial pressure when unrolled to a diameter of a designated intestine, wherein the convex surface comprises microstructures, and wherein the length of the rolled foil is at least half the length of the inner circumference of the designated intestine.
A device for synchronously actuating and locking elevator doors, which are situated one behind the other in the passage direction - such as a car door and a shaft door; the device includes entraining skids (7, 8, 8a) that are associated with a first driven door and whose spacing relative to one another can be changed in order to be able to couple the first door to the second door and move them together, wherein at least one of the entraining skids is supported in mobile fashion relative to a component, which holds it directly whereby the component is embodied in the form of an entraining skid support, wherein the entraining skid support is coupled directly to the linear drive unit or a belt, and wherein said at least one of the entraining skids is secured toward the end of the closing movement, so that it disengages from the second door, by coming into contact with a stationary actuating element, which forcibly imparts a lifting movement to the at least one entraining skid, wherein the at least one mobile entraining skid is secured to at least two pivoting levers and the pivoting levers are embodied and supported on the at least one mobile entraining skid and the entraining skid support so that when the entraining skids (7, 8, 8a) are completely coupled to the door that is to be entrained by them, then each of the pivoting levers of the entraining skid is oriented so that the forces that are exerted on this entraining skid both in the movement direction of the door and in the opposite direction can be completely transmitted by the pivoting levers, without the occurrence of a torque that acts on the pivoting levers characterized in that the entraining skid support is connected to a carriage of a door panel so that it is able to move in translatory fashion relative to it, so that when the carriage of the door panel has come to a stop after the door has been completely closed, the linear drive unit or its belt can continue moving the entraining skid support a certain distance further into its final closed position whereas this relative movement lifts the at least one entraining skid thus uncoupling the driven door from the door that is entrained by it.