mhurhangee/ep-ind-claims huggingface dataset:
A method of capturing the state of a target program that is running within the environment of an OS, comprising the steps of: identifying threads associated with the target program; suspending threads associated with the target program; preserving data characterising the threads; preserving data accessible by the threads when in operation; detecting whether a thread has been suspended in a protected mode due to a call to a first function implemented in the protected mode; replacing an instruction immediately after the call to the first function in the suspended thread with a breakpoint, the breakpoint operating outside the protected mode; substituting the first function implemented in the protected mode with a function that in turn is operable to implement a loop outside the protected mode, and from within the loop call the first function to operate for a limited period of time. releasing the thread and allowing it to run until it reaches the breakpoint and is re-suspended; and restoring the replaced instruction in the suspended thread and storing the state of the suspended thread. identifying threads associated with the target program; suspending threads associated with the target program; preserving data characterising the threads; preserving data accessible by the threads when in operation; detecting whether a thread has been suspended in a protected mode due to a call to a first function implemented in the protected mode; replacing an instruction immediately after the call to the first function in the suspended thread with a breakpoint, the breakpoint operating outside the protected mode; substituting the first function implemented in the protected mode with a function that in turn is operable to implement a loop outside the protected mode, and from within the loop call the first function to operate for a limited period of time. releasing the thread and allowing it to run until it reaches the breakpoint and is re-suspended; and restoring the replaced instruction in the suspended thread and storing the state of the suspended thread.
Apparatus for loading a cage welding machine, wherein the apparatus has an insertion device, wherein the insertion device has a receiving element for receiving longitudinal wires of a cage to be produced using the cage welding machine, wherein the insertion device has, on the receiving element, a multiplicity of receiving positions for all the longitudinal wires of the cage, wherein the receiving positions are present in a radial direction so as to be spaced apart from an axis of rotation D of the insertion device, wherein the insertion device is configured to simultaneously feed at least two longitudinal wires arranged on the insertion device to the cage welding machine in an insertion operation, wherein the operation of inserting the longitudinal wires onto the cage welding machine is effected by a movement of the insertion device in an axial direction of the axis of rotation D of the insertion device, characterized in that two receiving elements are present, wherein the receiving elements comprise the receiving positions, wherein the two receiving elements are displaceable in an axial direction with respect to the axis of rotation D of the insertion device.
At least one compound chosen among the compounds defined by the following formulae: wherein each R individually is selected from the group consisting of H, aliphatic acyl and aromatic acyl group; and X is selected from the group consisting of hydrogen, halo, alkoxy, alkyl, haloalkyl, alkenyl, haloalkenyl, alkynyl, amino, monoalkylamino, dialkylamino, cyano, aryl and nitro; a pharmaceutically acceptable salt thereof and mixtures thereof for use in inhibiting orthopoxvirus infections in a patient.
A method of monitoring the health of a semiconductor power electronic switch (103; 201; 802; 1102; 1402), having the steps of: measuring one or more parameters selected from the group consisting of: a rate of change of voltage d V d t across the switch; a rate of change of current d i d t through the switch, a charge present on a gate of the switch ( Q G); a peak overshoot voltage ( V PO) across the switch; and a peak overshoot or reverse recovery current ( I RR) through the switch; and estimating the health of the switch based on the measured parameter(s), characterised in that the method further includes a step of estimating a junction temperature of the switch, and wherein the health estimating step includes normalizing one or more of the measured parameter(s) with respect to the estimated junction temperature. measuring one or more parameters selected from the group consisting of: a rate of change of voltage d V d t across the switch; a rate of change of current d i d t through the switch, a charge present on a gate of the switch ( Q G); a peak overshoot voltage ( V PO) across the switch; and a peak overshoot or reverse recovery current ( I RR) through the switch; and estimating the health of the switch based on the measured parameter(s), characterised in that the method further includes a step of estimating a junction temperature of the switch, and wherein the health estimating step includes normalizing one or more of the measured parameter(s) with respect to the estimated junction temperature.
A closure device comprising a lower rail, wherein it further comprises: a lower pivot, fastened to the lower rail, the lower pivot in turn comprising a selective retention element and a guide element that comprises a lower longitudinal passage slot with a width and lower rotation space with a circular shape through which the lower longitudinal passage slot passes, the lower rotation space having a diameter; a fixed door, and a sliding door; wherein the sliding door, in turn, comprises a lower fitting, which, in turn, comprises a lower circular protrusion suitable for being retained by the selective retention element, wherein the selective retention element of the lower pivot comprises a surface and a cavity comprised on said surface, said cavity being open such that it is accessible in a sliding direction, the sliding direction being the longitudinal direction along which the lower rail is extended, therefore being suitable for allowing the entry of the lower protrusion, and said cavity comprising retention means suitable for retaining the lower protrusion when it is located in said cavity; and wherein the cavity has a size equal to or smaller than the width of the longitudinal passage slot. a lower pivot, fastened to the lower rail, the lower pivot in turn comprising a selective retention element and a guide element that comprises a lower longitudinal passage slot with a width and lower rotation space with a circular shape through which the lower longitudinal passage slot passes, the lower rotation space having a diameter; a fixed door, and a sliding door; a lower fitting, which, in turn, comprises a lower circular protrusion suitable for being retained by the selective retention element, wherein the selective retention element of the lower pivot comprises a surface and a cavity comprised on said surface, said cavity being open such that it is accessible in a sliding direction, the sliding direction being the longitudinal direction along which the lower rail is extended, therefore being suitable for allowing the entry of the lower protrusion, and said cavity comprising retention means suitable for retaining the lower protrusion when it is located in said cavity; and wherein the cavity has a size equal to or smaller than the width of the longitudinal passage slot.
Electrical machine having a rotor and having a coolable stator surrounding this coaxially having an annular stator laminated core having stator teeth directed radially inwards, between which stator grooves to receive a field winding wound on the stator teeth are formed, wherein the stator laminated core is formed from a number of stator laminations having passage openings introduced into this on the peripheral side in the stator yoke region surrounding the stator teeth, said passage openings aligning with one another in the stator laminated core and forming cooling channels, characterised in that - winding heads (8a, 8b) of the field winding protrude from the stator laminated core on the front side, said winding heads being flowed around by the coolant which additionally flows via the cooling channels formed by the passage openings of the stator lamination, and - a banjo bolt is inserted on the front side into at least one cooling channel of the stator laminated core, said banjo bolt fastening a potential equalisation cable and maintaining the function of the corresponding cooling channel, wherein the cooling channel additionally assumes the function of receiving the banjo bolt. - winding heads (8a, 8b) of the field winding protrude from the stator laminated core on the front side, said winding heads being flowed around by the coolant which additionally flows via the cooling channels formed by the passage openings of the stator lamination, and - a banjo bolt is inserted on the front side into at least one cooling channel of the stator laminated core, said banjo bolt fastening a potential equalisation cable and maintaining the function of the corresponding cooling channel, wherein the cooling channel additionally assumes the function of receiving the banjo bolt.
A printer device for thermal printing or embossing of a carrier film coated with a coloring matter on a substrate, wherein the printer device has a roller arrangement for accommodating the carrier film and for moving the carrier film along a conveyor path, stepper motors (5a, b) for driving the roller arrangement, a thermal print head for printing or embossing the coloring matter from the carrier film onto the substrate, and a swivel arrangement, which can be deflected over a swivel range, for engaging with a swivel roller of the roller arrangement and for exerting a tensile force on the carrier film, wherein with regard to an engagement with the carrier film, the swivel roller is arranged along the conveyor path, characterized in that the swivel roller is arranged directly adjacent to the thermal print head without any further element between them, and that a swivel path runs along the conveyor path.
An optical device that is configured with a smart optical material that is opaque according to the Opaqueness Test Method 1 at a temperature less than 30 degrees Celsius (° C) and optically transparent at a temperature of from 80° to 200° C and the smart optical material has an elongation-at-break, according to the Elongation-at-Break Test Method, mentioned in the description, before thermal aging at day 0 of at least 15% and after thermal aging in air at 200° C for 7 days at day 7 of at least 12% and the elongation-at-break of the thermally aged smart optical material would decrease from day 0 to day 7 by less than 50%; the device comprising a light emitting element; a heat generating element, which may be the same as or different than the light emitting element and which is in thermal communication with the smart optical material; a wavelength converter in independent optical communication with the light emitting element and the smart optical material; and the smart optical material, which hides the wavelength converter when the smart optical material is at a temperature less than 30° C and transmits light from the light emitting element and/or from the wavelength converter when the smart optical material is at a temperature from 80° to 200° C.
A load driving device comprising: an output transistor and a load connected in series between first and second power supply lines; a discharge transistor provided between a gate and a source of the output transistor, the discharge transistor causing a short circuit between the gate and the source of the output transistor to turn off the output transistor when a polarity of a power supply connected between the first and second power supply lines is normally connected; a protection transistor turning on the output transistor when a polarity of a power supply connected between the first and second power supply lines is reversed, wherein a source or a drain of the protection transistor is connected to the gate of the output transistor, and the other one of the source and drain of the protection transistor is connected to the second power supply line; and the gate of the protection transistor; a back gate control circuit that supplies through a node a voltage corresponding to a voltage of the second power supply line to the back gate of the protection transistor when the power supply connected between the first and second power supply lines is normally connected, and supplies through said node a voltage corresponding to a voltage of the first power supply line to the back gate of the protection transistor when the polarity of the power supply is reversed; and a resistor connected between said node of the back gate control circuit and a back gate of the protection transistor. an output transistor and a load connected in series between first and second power supply lines; a discharge transistor provided between a gate and a source of the output transistor, the discharge transistor causing a short circuit between the gate and the source of the output transistor to turn off the output transistor when a polarity of a power supply connected between the first and second power supply lines is normally connected; a protection transistor turning on the output transistor when a polarity of a power supply connected between the first and second power supply lines is reversed, wherein a source or a drain of the protection transistor is connected to the gate of the output transistor, and the other one of the source and drain of the protection transistor is connected to the second power supply line; and the gate of the protection transistor; a back gate control circuit that supplies through a node a voltage corresponding to a voltage of the second power supply line to the back gate of the protection transistor when the power supply connected between the first and second power supply lines is normally connected, and supplies through said node a voltage corresponding to a voltage of the first power supply line to the back gate of the protection transistor when the polarity of the power supply is reversed; and a resistor connected between said node of the back gate control circuit and a back gate of the protection transistor.
An oscillator having an oscillation circuit for oscillating a resonator, characterized by comprising, as a load of the resonator, a load circuit which is inductive and limits an oscillation amplitude, characterized in that the oscillator has a variable frequency range, the oscillation circuit includes an amplifier and a resistor which are connected in parallel to the resonator, a first load capacitive element (Ca) connected between an input side of the amplifier and ground, and a second load capacitive element (Cb) connected between an output side of the amplifier and the ground, the load circuit includes an NPN bipolar transistor having an emitter connected to a terminal of the resonator and a collector to which a first predetermined voltage is supplied, a resistive component (Rx) having one terminal to which a second predetermined voltage is supplied and the other terminal connected to a base of the NPN bipolar transistor, a capacitive component (Cx) provided between the emitter and the base of the NPN bipolar transistor.
An aircraft comprising: rails in a cabin of the aircraft; and an apparatus comprising: a bracket (302, 502, 1202) positioned between the rails (304, 1302, 1304), the bracket (302, 502, 1202) including: edges (308, 506, 1204, 1216) having first attachment points (314, 510, 1210) to align with second attachment points (306, 1316) of each of the rails (304, 1302, 1304), the bracket (302, 502, 1202) positioned along a length of the rails (304, 1302, 1304) such that the first attachment points (314, 510, 1210) of the bracket (302, 502, 1202) are aligned with a portion of the second attachment points (306, 1316) of the rails (304, 1302, 1304); first flanges (322, 512, 1228) disposed between the edges (308, 506, 1204, 1216), the first flanges (322, 512, 1228) having respective third attachment points (324, 516, 1230) and fourth attachment points (324, 516, 1230), the third and fourth attachment points (324, 516, 1230) being aligned to receive fasteners (326, 1518) for hanging a device (216, 218) used in the cabin of the aircraft; and second flanges (322, 512, 1228) disposed adjacent the first flanges (322, 512, 1228), each of the first and second flanges (322, 512, 1228) including corresponding attachment points (324, 516, 1230) to receive the fasteners (326, 1518) for hanging the device (216, 218). edges (308, 506, 1204, 1216) having first attachment points (314, 510, 1210) to align with second attachment points (306, 1316) of each of the rails (304, 1302, 1304), the bracket (302, 502, 1202) positioned along a length of the rails (304, 1302, 1304) such that the first attachment points (314, 510, 1210) of the bracket (302, 502, 1202) are aligned with a portion of the second attachment points (306, 1316) of the rails (304, 1302, 1304); first flanges (322, 512, 1228) disposed between the edges (308, 506, 1204, 1216), the first flanges (322, 512, 1228) having respective third attachment points (324, 516, 1230) and fourth attachment points (324, 516, 1230), the third and fourth attachment points (324, 516, 1230) being aligned to receive fasteners (326, 1518) for hanging a device (216, 218) used in the cabin of the aircraft; and second flanges (322, 512, 1228) disposed adjacent the first flanges (322, 512, 1228), each of the first and second flanges (322, 512, 1228) including corresponding attachment points (324, 516, 1230) to receive the fasteners (326, 1518) for hanging the device (216, 218).
The use of a one-component laminating adhesive for composite film lamination, the laminating adhesive being present in the form of an aqueous polymer dispersion, and the aqueous polymer dispersion comprising polymer particles in dispersion in water that are preparable by radical emulsion polymerization of monomers comprising a) at least 60 wt%, based on the total amount of monomers, of at least one monomer selected from the group consisting of C1 to C20 alkyl acrylates, C1 to C20 alkyl methacrylates, vinyl esters of carboxylic acids comprising up to 20 carbon atoms, vinylaromatics having up to 20 carbon atoms, vinyl halides, vinyl ethers of alcohols comprising 1 to 10 carbon atoms, aliphatic hydrocarbons having 2 to 8 carbon atoms and one or two double bonds, and mixtures of these monomers, and b) at least 0.1 wt%, based on the total amount of monomers, of at least one monomer having at least one acid group, and c) 0.1 to 5 wt%, preferably 0.5 to 5 wt%, based on the total amount of monomers, of at least one ethylenically unsaturated compound having at least one functional group selected from keto groups and aldehyde groups; where less than 1 part by weight of emulsifier is used per 100 parts by weight of monomers in the emulsion polymerization; where the aqueous polymer dispersion comprises at least one compound A which has at least two functional groups that are able to enter into a crosslinking reaction with the keto groups or with the aldehyde groups; where the molar ratio of the groups of the compound A that are reactive with keto groups or with aldehyde groups to the keto and aldehyde groups of the monomer c) is from 1:10 to 2:1; where, in the composite film lamination, at least two films are bonded to one another with the laminating adhesive so firmly that the peel strength, measured 24 h after laminate production and at 23°C, is 2.5 N/15 mm or more or that the films bonded to one another are partable only with destruction of at least one of the films. a) at least 60 wt%, based on the total amount of monomers, of at least one monomer selected from the group consisting of C1 to C20 alkyl acrylates, C1 to C20 alkyl methacrylates, vinyl esters of carboxylic acids comprising up to 20 carbon atoms, vinylaromatics having up to 20 carbon atoms, vinyl halides, vinyl ethers of alcohols comprising 1 to 10 carbon atoms, aliphatic hydrocarbons having 2 to 8 carbon atoms and one or two double bonds, and mixtures of these monomers, and b) at least 0.1 wt%, based on the total amount of monomers, of at least one monomer having at least one acid group, and c) 0.1 to 5 wt%, preferably 0.5 to 5 wt%, based on the total amount of monomers, of at least one ethylenically unsaturated compound having at least one functional group selected from keto groups and aldehyde groups;
A method of operating an apparatus for cutting printed sheets, the apparatus comprising a flatbed cutting machine, which comprises a work plane with an upper surface for receiving the printed sheets thereon; the apparatus comprising a first camera arranged over the work plane at a first distance above the work plane and configured for imaging part of the upper surface or the entire upper surface of the work plane; the apparatus further comprising an operating group mobile along the work plane at a second distance from the work plane, and the operating group comprising a cutting member mobile together with the operating group for cutting the sheets when placed on the work plane; wherein the first distance is larger than the second distance, and the camera is provided remote and free from the operating group for preventing mechanical collision between the operating group and the first camera when the operating group is moving along the work plane; the apparatus further comprising a computer system functionally connected to the first camera and configured for receiving digital images from the first camera; characterised in that the computer system is programmed to analyse the received digital images with respect to image data resembling characteristics for a fiducial; the fiducial comprising an optically readable two-dimensional code for a numeric or alphanumeric sequence; the method comprising placing a printed sheet on the work plane, the printed sheet comprising the fiducial on its upper side, providing an image of the sheet by the first camera while the sheet is on the work plane; by the computer system, receiving and analysing the image and finding the fiducial in the image, and determining and decoding the two-dimensional code to extract an ID code that identifies the graphics on the sheet and that differentiates it from other sheets with different graphics; by the computer accessing a digital database and extracting stored data uniquely related to the extracted ID code and determining a cutting curve for the graphics on the basis of the extracted stored data, the cutting curve being specific for the ID code; submitting computer instructions to the machine for moving the operating group with the cutting element along the work plane for cutting the sheet along the cutting curve.
Planarity measuring device for measuring a planarity of a hot strip within a hot-rolling mill, comprising at least one deflecting roller at the inlet side for contacting a first large side of the hot strip, at least one deflecting roller at the outlet side for contacting the first large side of the hot strip and at least one middle deflecting roller which with respect to a strip running direction of the hot strip is arranged between the inlet-side deflecting roller and the outlet-side deflecting roller and is adjustable against a second large side of the hot strip opposite the first large side of the hot strip and which serves as a planarity measuring roller, characterised by at least one detecting device for detecting an actual position (L Ist) of the hot strip and at least one adjusting device which is connected with the detecting device and at least one of the deflecting rollers (3, 5, 7) and which is arranged to vary an angle (α) between a longitudinal centre axis of the respective deflecting roller (3, 5, 7) connected with the adjusting device and a longitudinal axis, which extends transversely to the deflecting rollers (3, 5, 7), of the planarity measuring device in dependence on a deviation of the actual position (L Ist) of the hot strip from a predetermined target position (L Soll) of the hot strip.