mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting packets over a network to an apparatus configured in an alarm system, the method comprising: determining, with at least one processor, at least one test to be performed by the apparatus that determines a status of the apparatus in the alarm system; generating, with the at least one processor, a payload (200, 300, 400) that includes first information that identifies the test and second information that identifies a category associated with the test, the payload (200, 300, 400) including a first data field (202, 302, 402) and a second data field (204, 304, 404), where the first data field includes the second information identifying the category and the second data field (204, 304, 404) includes one or more identifier fields, where each test corresponds to a particular identifier field in the second data field (204, 304, 404), and where a size or a length of the second data field (204, 304, 404) depends on the number of tests included in the second data field (204, 304, 404); generating, with the at least one processor, a packet that includes the payload (200, 300, 400); and transmitting, with the at least one processor, the packet over the network to the apparatus. generating, with the at least one processor, a payload (200, 300, 400) that includes first information that identifies the test and second information that identifies a category associated with the test, the payload (200, 300, 400) including a first data field (202, 302, 402) and a second data field (204, 304, 404), where the first data field includes the second information identifying the category and the second data field (204, 304, 404) includes one or more identifier fields, where each test corresponds to a particular identifier field in the second data field (204, 304, 404), and where a size or a length of the second data field (204, 304, 404) depends on the number of tests included in the second data field (204, 304, 404); generating, with the at least one processor, a packet that includes the payload (200, 300, 400); and transmitting, with the at least one processor, the packet over the network to the apparatus.
Device for the controlled assistance of the grip, comprising - a first element wearable on a hand, and - a second element electrically connected to the first element characterized in that - the second element comprises o a ferromagnetic core whose opposite poles are connected to a pair of ferromagnetic plates (30,31) inserted in the first element, and o an excitation coil comprising electrical conductors wrapped around said core, and in that the device further comprises - a power supply unit connected to said excitation coil for providing a supply voltage (V out) at the terminals of the excitation coil, - a control unit adapted to control the supply voltage (V out) delivered by said power supply unit. - a first element wearable on a hand, and - a second element electrically connected to the first element characterized in that - the second element comprises o a ferromagnetic core whose opposite poles are connected to a pair of ferromagnetic plates (30,31) inserted in the first element, and o an excitation coil comprising electrical conductors wrapped around said core, o a ferromagnetic core whose opposite poles are connected to a pair of ferromagnetic plates (30,31) inserted in the first element, and o an excitation coil comprising electrical conductors wrapped around said core, - a power supply unit connected to said excitation coil for providing a supply voltage (V out) at the terminals of the excitation coil, - a control unit adapted to control the supply voltage (V out) delivered by said power supply unit.
A process for producing an aqueous resin composition, the process comprising dissolving 100 parts by mass of acid-modified polyolefin and 5 to 60 parts by mass of surfactant in 15 to 1900 parts by mass of polymerizable monomer to obtain a solution, adding water dropwise to the solution while stirring in the presence of a basic compound to perform phase inversion emulsification, and then polymerizing the polymerizable monomer.
A privacy partition (100, 200, 300) comprising: a frame (101, 201) covered in fabric, the frame (101, 201) moveable between a collapsed configuration and an expanded configuration, wherein in the expanded configuration the frame defines a perimeter; a first connector, whereby a portion of the privacy partition is selectively connectable to a seat, and a second connector, wherein the seat connectable by the first connector to the portion of the privacy partition (100, 200,300) is an aft seat and wherein a portion of a fore seat is selectively connectable to a portion of the privacy partition by the second connector, and wherein the fabric covered frame (101, 201), is extendible between the aft seat and the fore seat, wherein the frame (101, 201) covered in the fabric further comprises a back, a top (110, 210), a front, a left side (140, 240), and a right side (150, 250), further comprising at least one selectively closeable opening in the front configured to permit ingress of a tray table from the fore seat. a frame (101, 201) covered in fabric, the frame (101, 201) moveable between a collapsed configuration and an expanded configuration, wherein in the expanded configuration the frame defines a perimeter; a first connector, whereby a portion of the privacy partition is selectively connectable to a seat, and a second connector, wherein the seat connectable by the first connector to the portion of the privacy partition (100, 200,300) is an aft seat and wherein a portion of a fore seat is selectively connectable to a portion of the privacy partition by the second connector, and wherein the fabric covered frame (101, 201), is extendible between the aft seat and the fore seat, wherein the frame (101, 201) covered in the fabric further comprises a back, a top (110, 210), a front, a left side (140, 240), and a right side (150, 250), further comprising at least one selectively closeable opening in the front configured to permit ingress of a tray table from the fore seat.
An air disperser for a spray dryer, comprising an air inlet, a pipe defining an air outlet area equipped with one or more atomizing means, said pipe having a longitudinal axis defining an axial direction and a radial direction extending perpendicularly to said axial direction, an outer wall and a space defined by the pipe wall and the outer wall of the air disperser, said space having a plurality of guide vanes, characterized in that the guide vanes are positioned vertically in the axial direction and on the radii between the pipe wall and the outer wall of the air disperser, and that at least one of said guide vanes is covering at least 90% of the full radius from the pipe wall in the direction towards the outer wall of the air disperser, and the rest of said guide vanes being distributed on radii along the circumference of the pipe.
Motor-vehicle lock comprising a latch mechanism and catch as locking elements, wherein the latch mechanism is mounted such that it can be pivoted about a geometrical latch-mechanism axis by means of a latch-mechanism bearing, wherein the catch is mounted such that it can be pivoted about a geometrical catch axis by means of a catch bearing and it can be brought into arresting engagement with the latch mechanism, as a result of which the latch mechanism, in at least one locking position, can be arrested against adjustment in the opening direction, wherein the catch has an arresting insert, which provides an engagement surface for arresting-action engagement with a mating engagement surface of the latch mechanism, wherein the flow of the arresting force between the latch mechanism and catch runs at least over a portion of the catch, essentially via the arresting insert, and wherein the catch has a plastic carrying structure for the arresting insert, characterised in that the catch is configured in the form of a supporting catch, in the case of which the arresting force between the latch mechanism and catch is accompanied by pressure loading of the arresting insert essentially in the direction of the catch axis.
A method of manufacturing a re-entrant resonant cavity comprising a cylindrical wall with first and second end walls (14, 15) respectively at each end to define a volume, and a re-entrant stub extensive along a first central longitudinal axis X-X from the first end wall into the volume and having an end face that defines [, there being] a capacitive gap between the end face and a facing portion of the second end wall, the method including the steps of: - providing a first cavity part as a metalized plastic component that integrally comprises the re-entrant stub and [a] the first end wall, - providing a second cavity part which comprises the facing portion defining a second central longitudinal axis perpendicular thereto, characterized in that the facing portion is formed by a rostrum and configured such that a central portion lies in one plane and side portions lie in a different parallel plane and the end face of the stub is configured such that a central portion lies in one plane and a side portions lie in a different parallel plane, so that the relative rotation between them about said longitudinal axis X-X change the gap distance of the capacitive gap, the gap distance being defined by the angular position between the rostrum and the stub, and in that the method includes - aligning the second central longitudinal axis with the first central longitudinal axis X-X, - selecting the angular position of the rostrum with respect to the end face of the stub, defined by the relative rotation between the rostrum and the stub about said longitudinal axis X-X, to give a required capacitance in the gap between them, - positioning the first and second cavity parts relative to one another to obtain a gap profile so as to alter the gap capacitance. - providing a first cavity part as a metalized plastic component that integrally comprises the re-entrant stub and [a] the first end wall, - providing a second cavity part which comprises the facing portion defining a second central longitudinal axis perpendicular thereto, characterized in that - aligning the second central longitudinal axis with the first central longitudinal axis X-X, - selecting the angular position of the rostrum with respect to the end face of the stub, defined by the relative rotation between the rostrum and the stub about said longitudinal axis X-X, to give a required capacitance in the gap between them, - positioning the first and second cavity parts relative to one another to obtain a gap profile so as to alter the gap capacitance.
A deposition film-coated iron powder comprising iron particles and deposition films comprising Mg, Fe, P, and O coated on surfaces of the iron particles, wherein Mg-Fe-P-O quaternary-based phosphate compounds and Mg-Fe-O ternary-based oxides included in the deposition films include crystalline Mg-O dissolving wustite type phase.
A method of making a coating on a substrate, for ejecting droplets of a condensate from the substrate, which coating comprises a hydrophobic functional layer coated over a nanostructured coating material, the method comprising: depositing a nanostructured coating layer on a substrate, wherein the nanostructured coating is a metal oxide that is deposited by chemical bath deposition; and wherein the coated substrate is then baked at a temperature ranging from 100 °C to 600 °C for a duration ranging from 5 minutes to 48 hours; the surface is then submerged in a dilute acid rinse solution between the pH of 1 and 7 for a duration ranging from 15 seconds to 24 hours; and depositing a hydrophobic functional layer on the surface of the nanostructured coating material. which coating comprises a hydrophobic functional layer coated over a nanostructured coating material, the method comprising: depositing a nanostructured coating layer on a substrate, wherein the nanostructured coating is a metal oxide that is deposited by chemical bath deposition; and wherein the coated substrate is then baked at a temperature ranging from 100 °C to 600 °C for a duration ranging from 5 minutes to 48 hours; the surface is then submerged in a dilute acid rinse solution between the pH of 1 and 7 for a duration ranging from 15 seconds to 24 hours; and depositing a hydrophobic functional layer on the surface of the nanostructured coating material. depositing a nanostructured coating layer on a substrate, wherein the nanostructured coating is a metal oxide that is deposited by chemical bath deposition; and wherein the coated substrate is then baked at a temperature ranging from 100 °C to 600 °C for a duration ranging from 5 minutes to 48 hours; the surface is then submerged in a dilute acid rinse solution between the pH of 1 and 7 for a duration ranging from 15 seconds to 24 hours; and depositing a hydrophobic functional layer on the surface of the nanostructured coating material.
An axial turbine for an exhaust-gas-driven turbocharger, the turbine being statorless, and comprising: an axial turbine wheel comprising a hub and a plurality of blades extending generally radially outward from the hub, and a turbine housing assembly that houses the turbine wheel; the turbine housing assembly comprising a sector-divided turbine housing, the sector-divided turbine housing defining a plurality of separate exhaust gas inlets into the turbine housing, each exhaust gas inlet for receiving a separate exhaust gas stream from an internal combustion engine, the sector-divided turbine housing further defining a plurality of separate angular sector passageways (219a, 219b) each of which occupies a fractional part of a circumference surrounding the turbine wheel, the angular sector passageways succeeding one another in a circumferential direction, each angular sector passageway being supplied with exhaust gas by a respective one of the plurality of exhaust gas inlets, each angular sector passageway having a convergent cross-section that spirals inward and converges to accelerate the exhaust gas; the turbine housing assembly defining a separate sector outlet for each angular sector passageway through which the respective exhaust gas stream is fed into an inlet side of the turbine wheel generally in an axial direction of the turbine wheel; and being characterised in that the turbine housing assembly comprises the sector-divided turbine housing and a separately formed heat shroud, and the sector outlets are formed at least in part by the heat shroud. an axial turbine wheel comprising a hub and a plurality of blades extending generally radially outward from the hub, and a turbine housing assembly that houses the turbine wheel; the turbine housing assembly comprising a sector-divided turbine housing, the sector-divided turbine housing defining a plurality of separate exhaust gas inlets into the turbine housing, each exhaust gas inlet for receiving a separate exhaust gas stream from an internal combustion engine, the sector-divided turbine housing further defining a plurality of separate angular sector passageways (219a, 219b) each of which occupies a fractional part of a circumference surrounding the turbine wheel, the angular sector passageways succeeding one another in a circumferential direction, each angular sector passageway being supplied with exhaust gas by a respective one of the plurality of exhaust gas inlets, each angular sector passageway having a convergent cross-section that spirals inward and converges to accelerate the exhaust gas; the turbine housing assembly defining a separate sector outlet for each angular sector passageway through which the respective exhaust gas stream is fed into an inlet side of the turbine wheel generally in an axial direction of the turbine wheel; and being characterised in that the turbine housing assembly comprises the sector-divided turbine housing and a separately formed heat shroud, and the sector outlets are formed at least in part by the heat shroud.
A method for double-sided printing, comprising pre-determining a geometric difference between a first printed image printed by a first printer (520, 620, 720, 820) on a first side of a printing material on the basis of a first original and a second printed image to be printed by a second printer (530, 630, 730, 830) on a second side of the printing material on the basis of a second original; and adjusting the second original according to the geometric difference so as to align the first printed image with the second printed image, wherein the pre-determining a geometric difference between a first printed image printed by a first printer (520, 620, 720, 820) on a first side of a printing material on the basis of a first original and a second printed image to be printed by a second printer (530, 630, 730, 830) on a second side of the printing material on the basis of a second original comprises: scanning or photographing the first printed image; and acquiring geometric changing information, relative to the first original, of the first printed image by comparing the first printed image with the first original, so as to pre-determine the geometric difference between the first printed image and the second printed image to be printed. pre-determining a geometric difference between a first printed image printed by a first printer (520, 620, 720, 820) on a first side of a printing material on the basis of a first original and a second printed image to be printed by a second printer (530, 630, 730, 830) on a second side of the printing material on the basis of a second original; and adjusting the second original according to the geometric difference so as to align the first printed image with the second printed image, wherein the pre-determining a geometric difference between a first printed image printed by a first printer (520, 620, 720, 820) on a first side of a printing material on the basis of a first original and a second printed image to be printed by a second printer (530, 630, 730, 830) on a second side of the printing material on the basis of a second original comprises: scanning or photographing the first printed image; and acquiring geometric changing information, relative to the first original, of the first printed image by comparing the first printed image with the first original, so as to pre-determine the geometric difference between the first printed image and the second printed image to be printed. scanning or photographing the first printed image; and acquiring geometric changing information, relative to the first original, of the first printed image by comparing the first printed image with the first original, so as to pre-determine the geometric difference between the first printed image and the second printed image to be printed.
A system for the thermal decomposition of solid waste comprising: a plurality of cylindrical canister sections configured to hold solid waste; a connecting ring structure for connecting cylindrical canister sections at at least one end of each one of the plurality of cylindrical canister sections; a floor structure at the bottom of each one of the plurality of canister sections; a heated air opening for heated air introduction located in the floor structure in the lowest of the plurality of canister sections; a conical structure centrally positioned above the heated air opening; a carbon pillow positioned around the conical structure configured to prevent the heated air from directly contacting the waste material; an autoclave for holding the plurality of cylindrical canister sections; and an exhaust port from the autoclave for removing gases produced during the thermal decomposition of the solid waste. a plurality of cylindrical canister sections configured to hold solid waste; a connecting ring structure for connecting cylindrical canister sections at at least one end of each one of the plurality of cylindrical canister sections; a floor structure at the bottom of each one of the plurality of canister sections; a heated air opening for heated air introduction located in the floor structure in the lowest of the plurality of canister sections; a conical structure centrally positioned above the heated air opening; a carbon pillow positioned around the conical structure configured to prevent the heated air from directly contacting the waste material; an autoclave for holding the plurality of cylindrical canister sections; and an exhaust port from the autoclave for removing gases produced during the thermal decomposition of the solid waste.
A resist composition comprising a base component which exhibits changed solubility in an alkali developing solution under action of acid and an acid-generator component which generates acid upon exposure, said acid-generator component comprising an acid generator consisting of a monomeric compound represented by general formula (b1-1-1) shown below: wherein R x represents a saturated aliphatic hydrocarbon group; Y 1 represents an alkylene group or fluorinated alkylene group of 1 to 4 carbon atoms; R 1 represents a linear alkylene group; and Z + represents an organic cation exclusive of an ion represented by general formula (w-1) shown below: wherein each of R 3 to R 6 independently represents a hydrogen atom or a hydrocarbon group which may have a substituent, with the proviso that at least one of R 3 to R 6 represents a hydrocarbon group; and at least two of R 3 to R 6 may be mutually bonded to form a ring. wherein R x represents a saturated aliphatic hydrocarbon group; Y 1 represents an alkylene group or fluorinated alkylene group of 1 to 4 carbon atoms; R 1 represents a linear alkylene group; and Z + represents an organic cation exclusive of an ion represented by general formula (w-1) shown below:
Method for operating an electronically commutated electric machine, comprising the following steps: - actuating a driver circuit according to a commutation scheme by switching power semiconductor switches (32, 33); - applying a pulse width modulation to the switching of the power semiconductor switches (32, 33); and - limiting a duty cycle of the pulse width modulation to a duty cycle threshold value (T th), characterized in that the duty cycle threshold value (T th) is identified depending on an instantaneous rotational speed of the electric machine, wherein the instantaneous rotational speed of the electric machine is identified with the aid of the position detector or without sensors, wherein the rotational speed (n) is detected by temporal evaluation of the change in the identified rotor position, wherein the duty cycle threshold value (T th) is determined according to a prescribed duty cycle threshold value characteristic map or a prescribed duty cycle threshold value function, a motor current resulting from a current balance of phase currents at phase terminals of the electric machine is limited or overcurrent disconnection is performed when a maximum current is exceeded by the motor current. - actuating a driver circuit according to a commutation scheme by switching power semiconductor switches (32, 33); - applying a pulse width modulation to the switching of the power semiconductor switches (32, 33); and - limiting a duty cycle of the pulse width modulation to a duty cycle threshold value (T th),