mhurhangee/ep-ind-claims huggingface dataset:
A transfer cylinder for a shock strut of an aircraft landing gear system, the transfer cylinder comprising: a cylinder body having a transfer fluid chamber for fluid communication with the shock strut; a piston sealably movable within the cylinder body; and a device coupled to the piston, the device being operable to move the piston between a first position and a second position within the cylinder body; characterised by a locking mechanism actuatable by the piston to lock the piston in a desired position, wherein the locking mechanism includes a block valve and a sensor positioned on an upper portion of the transfer cylinder; and in that the device coupled to the piston is a non-hydraulically actuated device, wherein a motor is operably coupled to the device, and wherein the motor is energizable by an electric system of the aircraft. a cylinder body having a transfer fluid chamber for fluid communication with the shock strut; a piston sealably movable within the cylinder body; and a device coupled to the piston, the device being operable to move the piston between a first position and a second position within the cylinder body; characterised by a locking mechanism actuatable by the piston to lock the piston in a desired position, wherein the locking mechanism includes a block valve and a sensor positioned on an upper portion of the transfer cylinder; and in that the device coupled to the piston is a non-hydraulically actuated device, wherein a motor is operably coupled to the device, and wherein the motor is energizable by an electric system of the aircraft.
A diagnostic method for diagnosing a malfunction in a solenoid valve, wherein the solenoid valve comprises an electromagnet and a valve body wherein one or more orifices (14, 16, 18) are provided for the passage of a pressurized fluid, and wherein the electromagnet comprises a solenoid which is drivable by a solenoid current and a magnetic circuit comprising a movable core situated and slidable in the solenoid, the method comprising the steps of: a) storing in a non-volatile memory register reference features of the waveform of the solenoid current, b) detecting features of the waveform of the solenoid current during the operation of the solenoid valve; c) comparing the reference features with the detected features; d) in the event of a deviation between the value of the detected features and the value of the reference features, generating an alarm signal for malfunction of the solenoid valve, wherein step d) comprises, before the generation of the alarm signal: - a step d1) of comparing the value of the pressure of the fluid entering in the inlet orifice of the solenoid valve with a predetermined pressure value range; - in the event of deviation of the pressure value with respect to said range of predetermined pressure values, a step d2) of adjusting the pressure value and repeating steps b) and c); the alarm being generated in the event of a deviation between the value of the features detected and the value of the reference features and the fluid pressure value being within the range of predetermined pressure values. a) storing in a non-volatile memory register reference features of the waveform of the solenoid current, b) detecting features of the waveform of the solenoid current during the operation of the solenoid valve; c) comparing the reference features with the detected features; d) in the event of a deviation between the value of the detected features and the value of the reference features, generating an alarm signal for malfunction of the solenoid valve, wherein step d) comprises, before the generation of the alarm signal: - a step d1) of comparing the value of the pressure of the fluid entering in the inlet orifice of the solenoid valve with a predetermined pressure value range; - in the event of deviation of the pressure value with respect to said range of predetermined pressure values, a step d2) of adjusting the pressure value and repeating steps b) and c); - a step d1) of comparing the value of the pressure of the fluid entering in the inlet orifice of the solenoid valve with a predetermined pressure value range; - in the event of deviation of the pressure value with respect to said range of predetermined pressure values, a step d2) of adjusting the pressure value and repeating steps b) and c); the alarm being generated in the event of a deviation between the value of the features detected and the value of the reference features and the fluid pressure value being within the range of predetermined pressure values.
A driving direction indicator module for an outside rear view mirror assembly for a motor vehicle, having a light source, a first light guide comprising a plurality of light coupling-out points and a second light guide, characterized in that a light source couples in a first radiation part into the first light guide at a first end and a second radiation part into the second light guide at a first end, and the light decoupling points are distributed over the entire length of the first light guide between the first and second ends (3', 3") thereof and are provided via optic elements, wherein a module casing is formed as an injection-moulded part together with the first light guide and the second light guide, the latter radiating light into a single light coupling-out region which is arranged in a region of the second end (3") of the first light guide opposite the first end of the first light guide, wherein at least one connecting element being provided on at least one edge region (2', 2") of the module casing for connection to the outside rear view mirror assembly and/or an inner casing of the driving direction indicator module, the second light guide radiating light into a single light coupling-out region which is arranged in a region of the second end (3") of the first light guide opposite the first end of the first light guide, wherein light from the one light source, which comprises at least one LED, loses light density at the first end into the first light guide and on its way to the second end (3") opposite the first end via the light coupling-out points, so that in the radiation region at the second end (3") of the first light guide a legally sufficient light density is only ensurable by the second light guide, and the first light guide, the second light guide, the module casing and the optical elements are molded together.
A punch (10, 110) for forming a tablet, the punch (10, 110) including a shaft, a relatively enlarged head (18, 118) extending from the shaft, a cam surface (24, 124) being formed on the head (18, 118), the cam surface (24, 124) which in use contacts a compression surface, the cam surface (24, 124) including a substantially planar flat portion (14, 114), characterized in that, the flat portion (14, 114) has a non-circular shape when viewed along a direction normal to the plane of the flat portion (14, 114), the flat portion (14, 114) is elongate, and has a length along a first axis which is greater than a length along a second axis, the shaft having a longitudinal axis, the longitudinal axis being normal to the plane of the flat portion (14, 114), the punch (10, 110) including a guide formation, which in use fixes the orientation of said punch (10, 110) within a passage defined by apparatus for forming tablets, aligning the first axis substantially along a direction of movement of the punch (10, 110) which is normal to the longitudinal axis.
A method of compensating for misalignment of a print engine of an image forming apparatus, comprising: (a) forwarding a request from a host computer having a printer driver to the image forming apparatus for reference data of the print engine; (b) sending the reference data of the print engine to the printer driver; (c) comparing the reference data of the printable area of the print engine to reference data of a print job; and (d) if the reference data of the print engine is different from the reference data of the printable area of the print job, generating a new reference data of the printable area to adjust for the difference between the reference data of the print job and the reference data of the print engine, characterized in that the reference data is reference data of the printable area; the reference data of the print job is an ideal reference data provided by the printer driver or host application in the host computer; the host computer and the image forming apparatus are connected to one another via a network; wherein the host application or printer driver sends a query reference data checksum to the printing device requesting a checksum on reference data of the printable area of the print engine of the printing device; the printing device replies to the host application or printer driver with a response to the request for the reference data checksum of the printable area of the print engine; the host application or printer driver performs a validation of the reference data checksum of the printable area and if the reference data of the printable area of the print engine requires adjustment of an ideal reference data for a print job within the host application or printer driver, the host application or printer driver requests the reference data of the printable area from the printing device, the printing device returns the reference data of the printable area to the host application or printer driver, the host application or printer driver processes the data and generates the new data reference of the printable area, which is then sent to the printing device, which processes the new data reference data of the printable area and prints a copy of the data in accordance with the new reference data of the printable area. (a) forwarding a request from a host computer having a printer driver to the image forming apparatus for reference data of the print engine; (b) sending the reference data of the print engine to the printer driver; (c) comparing the reference data of the printable area of the print engine to reference data of a print job; and (d) if the reference data of the print engine is different from the reference data of the printable area of the print job, generating a new reference data of the printable area to adjust for the difference between the reference data of the print job and the reference data of the print engine,
A first terminal apparatus, comprising: a communicator which is configured to communicate with other terminal apparatuses, including a second terminal apparatus; an input unit which is configured to receive a user command; a display which is configured to display a list including at least one item which corresponds to the second terminal apparatus; and a controller, wherein: the controller is configured to control the communicator to transmit destination information to the second terminal apparatus which corresponds to a selected item that is selected from among the at least one item included in the displayed list via the input unit; and wherein the destination information is location information related to a user of the first terminal apparatus that a user of the second terminal apparatus has to reach, wherein the destination information is location information selected from a destination list including a plurality of location information related to a user of the first terminal apparatus a communicator which is configured to communicate with other terminal apparatuses, including a second terminal apparatus; an input unit which is configured to receive a user command; a display which is configured to display a list including at least one item which corresponds to the second terminal apparatus; and a controller, wherein: the controller is configured to control the communicator to transmit destination information to the second terminal apparatus which corresponds to a selected item that is selected from among the at least one item included in the displayed list via the input unit; and wherein the destination information is location information related to a user of the first terminal apparatus that a user of the second terminal apparatus has to reach, wherein the destination information is location information selected from a destination list including a plurality of location information related to a user of the first terminal apparatus the controller is configured to control the communicator to transmit destination information to the second terminal apparatus which corresponds to a selected item that is selected from among the at least one item included in the displayed list via the input unit; and wherein the destination information is location information related to a user of the first terminal apparatus that a user of the second terminal apparatus has to reach, wherein the destination information is location information selected from a destination list including a plurality of location information related to a user of the first terminal apparatus
A method for using leftover ice-cream with the production of bakery products such as croissants, brioches, doughnuts or similar characterized by the following operative steps: • formation of a sourdough, croissant flour, salt and malt, ice-cream mixture by addition of 1,600 grams of croissant flour 340-360W (strength) and 1,250 grams of ice-cream to 400 grams of sourdough, 2 grams of malt and 25 grams of salt; • mixing for 20 minutes until fully blended, bringing the final temperature of the mixture to 20-22 degrees C; • leaving to rest at ambient temperature for at least 1.5 hours, keeping in the refrigerator at plus 4 degrees C for 12 hours; • sheeting and portioning as required with 1,000 grams of butter; • placing in a retarder-proofer for at least 12 hours at 26 degrees C; • baking at 200 degrees C in a static oven for 14-16 minutes or fan oven at 180 degrees C for 12-13 minutes. • formation of a sourdough, croissant flour, salt and malt, ice-cream mixture by addition of 1,600 grams of croissant flour 340-360W (strength) and 1,250 grams of ice-cream to 400 grams of sourdough, 2 grams of malt and 25 grams of salt; • mixing for 20 minutes until fully blended, bringing the final temperature of the mixture to 20-22 degrees C; • leaving to rest at ambient temperature for at least 1.5 hours, keeping in the refrigerator at plus 4 degrees C for 12 hours; • sheeting and portioning as required with 1,000 grams of butter; • placing in a retarder-proofer for at least 12 hours at 26 degrees C; • baking at 200 degrees C in a static oven for 14-16 minutes or fan oven at 180 degrees C for 12-13 minutes.
Method for producing porous calcium deficient hydroxyapatite granules comprising the following steps: (a) subjecting granules of calcium sulfate anhydrous, calcium sulfate dihydrate or calcium sulfate hemihydrate to an incubation in an alkaline aqueous solution having a pH-value of less than 10 and containing PO 4 3- ions; whereby the granules of calcium sulfate anhydrous, calcium sulfate dihydrate or calcium sulfate hemihydrate comprise interconnected pores with a minimum mean diameter of 3 microns; (b) washing with water the granules obtained after incubation of step (a); (c) drying the obtained porous granules of calcium deficient hydroxyapatite; whereby (d) the amount of PO 4 3- ions present in the incubation of step (a) is at least as large as the amount of SO 4 2- ions of the granules used for step (a). (a) subjecting granules of calcium sulfate anhydrous, calcium sulfate dihydrate or calcium sulfate hemihydrate to an incubation in an alkaline aqueous solution having a pH-value of less than 10 and containing PO 4 3- ions; whereby the granules of calcium sulfate anhydrous, calcium sulfate dihydrate or calcium sulfate hemihydrate comprise interconnected pores with a minimum mean diameter of 3 microns; (b) washing with water the granules obtained after incubation of step (a); (c) drying the obtained porous granules of calcium deficient hydroxyapatite; whereby (d) the amount of PO 4 3- ions present in the incubation of step (a) is at least as large as the amount of SO 4 2- ions of the granules used for step (a).
A composition comprising: a carrier comprising water; an abrasive particulate contained in the carrier; an accelerant contained in the carrier, the accelerant including free fluoride ions (F -); and a buffer contained in a saturated concentration in the carrier, the buffer including a compound selected from M a F x, N b F x, M a N b F x, or any combination thereof, wherein M represents a metal element or metal compound; N represents a non-metal element; and a, b, and x is 1-6, and wherein the buffer is different than the accelerant. a carrier comprising water; an abrasive particulate contained in the carrier; an accelerant contained in the carrier, the accelerant including free fluoride ions (F -); and a buffer contained in a saturated concentration in the carrier, the buffer including a compound selected from M a F x, N b F x, M a N b F x, or any combination thereof, wherein M represents a metal element or metal compound; N represents a non-metal element; and a, b, and x is 1-6, and wherein the buffer is different than the accelerant.
A protection device for a vehicle or building opening, comprising a flat protective textile, wherein an opening is configured in the protective textile, characterised in that the protection device comprises an actuating attachment, wherein the actuating attachment covers the opening and is movable relative to the protective textile, in a state of the protection device covering the vehicle or building opening, such that a user can reach through the opening in the protective textile and can operate a window arranged behind the protective textile or a door arranged behind the protective textile without a part of the cross section of the vehicle or building opening covered by the protective textile being opened up, since the opening in the protective textile continues to be covered/protected by the actuating attachment.
A method of preparing a catalyst system comprising: combining, in a diluent, a spray-dried activator and one or more first catalyst components to produce the catalyst system, wherein the spray dried activator is methylaluminoxane and the catalyst component comprises at least one of
A method for improving the uniformity of tires in tire manufacture, comprising the steps of: identifying at least one candidate process effect and a corresponding process harmonic number of the at least one candidate process effect; using a measurement machine to measure a given uniformity parameter for each test tire in a set of one or more test tires, wherein the obtained uniformity measurements contain one or more tire harmonics and process harmonics corresponding to each said at least one candidate process effect; wherein the tire harmonics correspond to the component contributions to the obtained uniformity measurements whose sine and cosine terms are integer multiples of 2π/ N, where N is the length of a waveform of the measured uniformity parameter, and wherein the process harmonics correspond to the component contributions to the obtained uniformity measurements whose sine and cosine terms are non-integer multiples of 2π/ N; electronically constructing rectangular coordinate coefficients for the sine and cosine terms associated with each said process harmonic; electronically solving for the rectangular coordinates corresponding to each said process harmonic for each test tire; electronically estimating the magnitude of each said process harmonic; and electronically determining a final magnitude estimate for each said process harmonic by summarizing the respectively estimated magnitudes for each said process harmonic across all test tires; and building one or more new tires with altered manufacturing to account for the final magnitude estimate. identifying at least one candidate process effect and a corresponding process harmonic number of the at least one candidate process effect; using a measurement machine to measure a given uniformity parameter for each test tire in a set of one or more test tires, wherein the obtained uniformity measurements contain one or more tire harmonics and process harmonics corresponding to each said at least one candidate process effect; wherein the tire harmonics correspond to the component contributions to the obtained uniformity measurements whose sine and cosine terms are integer multiples of 2π/ N, where N is the length of a waveform of the measured uniformity parameter, and wherein the process harmonics correspond to the component contributions to the obtained uniformity measurements whose sine and cosine terms are non-integer multiples of 2π/ N; electronically constructing rectangular coordinate coefficients for the sine and cosine terms associated with each said process harmonic; electronically solving for the rectangular coordinates corresponding to each said process harmonic for each test tire; electronically estimating the magnitude of each said process harmonic; and electronically determining a final magnitude estimate for each said process harmonic by summarizing the respectively estimated magnitudes for each said process harmonic across all test tires; and building one or more new tires with altered manufacturing to account for the final magnitude estimate.
An isolated and purified wild strain 05.115 of chikungunya virus (CHIKV) capable of in vitro infecting human cells and wherein its genome consists of the sequence shown in Figure 4.
A choke assembly (15; 200; 300; 500) for provision onto an oven door to seal radio frequency energy within the oven when the door is closed, the choke assembly (15; 200; 300; 500) comprising: a plurality of tuned chokes (210, 220; 310, 320, 330; 420; 510, 520, 530; 600) that are concentrically arranged adjacent to each other, each tuned choke being configured to shield relative to a different predefined frequency, wherein each of the tuned chokes (210, 220; 310, 320, 330; 420; 510, 520, 530; 600) comprises a first wall (540, 550, 560; 612), a second wall (542, 552, 562; 614) extending substantially perpendicular to the first wall, and a third wall (544, 554, 564; 616) extending substantially perpendicular to the second wall and substantially parallel to the first wall, and wherein the first walls (540, 550, 560; 612) of each of the tuned chokes (210, 220; 310, 320, 330; 420; 510, 520, 530; 600) lie in planes that are substantially parallel to each other, characterized in that a sum of lengths of the first, second and third walls of each respective tuned choke (210, 220; 310, 320, 330; 420; 510, 520, 530; 600) is less than or equal to a quarter wavelength of a frequency that each respective choke is configured to attenuate.