mhurhangee/ep-ind-claims huggingface dataset:
Front element for pieces of furniture (2, 3) or other room regions, comprising two parallel guiding rails (11, 12), pivoting-leaf doors (6, 7, 8, 9) arranged therebetween in a row, and support devices to which the pivoting-leaf doors (6, 7, 8, 9) are hinged by means of pivot joints and which are each pivotable between a closed and an open position, the support devices being mounted so as to be movable along the guiding rails (11, 12) at least in part and being intended to be detachably attached to at least one of the guiding rails (11, 12) in predetermined fixed positions or being movable from the fixed positions to the side by means of the pivoting-leaf doors, at least one end pivoting-leaf door (9, 6) having a support device arranged on the end side forming an end to the row, characterised in that the support device of the end pivoting-leaf door (9, 6) is likewise designed so as to be movable along the guiding rails (11, 12) but to be detachably attached to at least one of the guiding rails (11, 12) and comprises one abutment surface that is aligned so as to be flush on the end with the guiding rails (11, 12) in the direction of the guiding rails (11, 12), points outwards and is intended for connection to a support device of a pivoting-leaf door (6, 7, 8, 9) of an adjacent front element, which door is to be attached so as to be in mirror symmetry.
A mounting press (100, 102, 104) for mounting a sample, comprising: a mounting cylinder for receiving the sample, having a main cylinder axis and a cylinder opening, with the main cylinder axis extending inside the mounting cylinder and out of the cylinder opening, a sliding closure comprising a sliding carriage, an upper piston, and a closing lever operatively connected to the upper piston, wherein the sliding carriage is configured to be displaceable in a direction transverse to the main cylinder axis and, in particular, is displaced by means of the closing lever, and wherein in a position of use of the sliding carriage the upper piston can be driven to or into the cylinder opening of the mounting cylinder, wherein the closing lever has at least one open position and one closed position and can be transferred from the open position to the closed position, wherein the closing lever cooperates with the upper piston such that by guiding the closing lever from the open position to the closed position the upper piston closes the cylinder opening when the sliding carriage is in the position of use, characterized in that the closing lever has a closure shaft and the upper piston is transferred from the open position to the closed position by pivotal movement of the closing lever about the closure shaft. a mounting cylinder for receiving the sample, having a main cylinder axis and a cylinder opening, with the main cylinder axis extending inside the mounting cylinder and out of the cylinder opening, a sliding closure comprising a sliding carriage, an upper piston, and a closing lever operatively connected to the upper piston, wherein the sliding carriage is configured to be displaceable in a direction transverse to the main cylinder axis and, in particular, is displaced by means of the closing lever, and wherein in a position of use of the sliding carriage the upper piston can be driven to or into the cylinder opening of the mounting cylinder, wherein the closing lever has at least one open position and one closed position and can be transferred from the open position to the closed position, wherein the closing lever cooperates with the upper piston such that by guiding the closing lever from the open position to the closed position the upper piston closes the cylinder opening when the sliding carriage is in the position of use, characterized in that the closing lever has a closure shaft and the upper piston is transferred from the open position to the closed position by pivotal movement of the closing lever about the closure shaft.
A multilayer electrode assembly for generating a uniform electric field in a molecular gas laser, the multilayer electrode assembly comprising: a first electrode (4,210); a second electrode (4,210), one of the first electrode and the second electrode configured to act as a drive electrode; characterized in that the electrodes are on opposite sides of a stack of alternating dielectric layers and metal layers and a first dielectric material having an exterior surface and an interior surface, wherein the first dielectric material is shaped so as to form a channel defined by the interior surface; a first metal layer disposed adjacent to a first portion of the exterior surface of the first dielectric material; and a second metal layer disposed adjacent to a second portion of the exterior surface of the first dielectric material, wherein the first metal layer is disposed in a first spaced relationship with the second metal layer; wherein an electric field is generated in the channel of the first dielectric material when a voltage is applied to the multilayer electrode assembly by the drive electrode. a first electrode (4,210); a second electrode (4,210), one of the first electrode and the second electrode configured to act as a drive electrode; characterized in that the electrodes are on opposite sides of a stack of alternating dielectric layers and metal layers and a first dielectric material having an exterior surface and an interior surface, wherein the first dielectric material is shaped so as to form a channel defined by the interior surface; a first metal layer disposed adjacent to a first portion of the exterior surface of the first dielectric material; and a second metal layer disposed adjacent to a second portion of the exterior surface of the first dielectric material, wherein the first metal layer is disposed in a first spaced relationship with the second metal layer; wherein an electric field is generated in the channel of the first dielectric material when a voltage is applied to the multilayer electrode assembly by the drive electrode.
A process for the preparation of polyethylene by polymerizing in a slurry ethylene and optionally one or more C 3 to C 10 alpha-olefins at a temperature from 60°C to 95°C and a pressure from 0.15 MPa to 3 MPa, where the polymerization is carried out in a cylindrical polymerization reactor having a cylindrical reactor wall, a bottom reactor head and a top reactor head, which reactor has an inner diameter D and is equipped with an agitator for mixing the contents of the reactor and inducing a flow of the slurry, wherein the ethylene is fed into the reactor by an ethylene injection system comprising one or more injection nozzles which project through the bottom reactor head or through the reactor wall and extend from 0.02 times to 0.5 times the inner diameter D into the reactor and wherein the ethylene exits the injection nozzle with an exit velocity from 10 m/s to 200 m/s.
A method for continuously verifying an integrity of a memory device within an online computing device, the method comprising: identifying, by a processor coupled to the memory device, a memory block corresponding to at least one memory location within the memory device, the memory block associated with a first portion of a first file to which the memory block is mapped at a first time and a prior checksum representing data within the memory block at the first time; determining, by the processor, whether the memory block is mapped to the first portion of the first file at a second time subsequent to the first time; based at least in part on determining that the memory block is mapped to the first portion of the first file at the second time, indicating, by the processor, that the prior checksum represents expected data within the memory block at the second time; indicating that the prior checksum represents expected data within the memory block at the second time based in part on determining that no write operations corresponding to the first file have been executed between the first time and the second time; and determining that no write operations corresponding to the first file have been executed between the first time and the second time by comparing a first write count associated with the first file at the first time with a second write count associated with the first file at the second time. identifying, by a processor coupled to the memory device, a memory block corresponding to at least one memory location within the memory device, the memory block associated with a first portion of a first file to which the memory block is mapped at a first time and a prior checksum representing data within the memory block at the first time; determining, by the processor, whether the memory block is mapped to the first portion of the first file at a second time subsequent to the first time; based at least in part on determining that the memory block is mapped to the first portion of the first file at the second time, indicating, by the processor, that the prior checksum represents expected data within the memory block at the second time; indicating that the prior checksum represents expected data within the memory block at the second time based in part on determining that no write operations corresponding to the first file have been executed between the first time and the second time; and determining that no write operations corresponding to the first file have been executed between the first time and the second time by comparing a first write count associated with the first file at the first time with a second write count associated with the first file at the second time.
Method for operating a vehicle, comprising: - determining a coasting distance (17, 18) of the vehicle as a function of values for a multiplicity of driving resistance parameters, - sensing a movement of the vehicle at a plurality of times during a coasting process during which a freewheeling operating state or overrun cutoff operating state of the vehicle is present and the vehicle is slowing down to a target speed from an initial speed, - determining an adapted value for at least one driving resistance parameter of the multiplicity of driving resistance parameters as a function of the sensed movement of the vehicle, wherein the adapted value for the at least one driving resistance parameter is used for subsequent determination of a further coasting distance to a further target speed from a further initial speed, characterized in that the adapted value is determined at least for the following driving resistance parameter: - a wind speed component in a driving direction (81, 82) of the vehicle during the coasting process. - determining a coasting distance (17, 18) of the vehicle as a function of values for a multiplicity of driving resistance parameters, - sensing a movement of the vehicle at a plurality of times during a coasting process during which a freewheeling operating state or overrun cutoff operating state of the vehicle is present and the vehicle is slowing down to a target speed from an initial speed, - determining an adapted value for at least one driving resistance parameter of the multiplicity of driving resistance parameters as a function of the sensed movement of the vehicle, wherein the adapted value for the at least one driving resistance parameter is used for subsequent determination of a further coasting distance to a further target speed from a further initial speed, characterized in that the adapted value is determined at least for the following driving resistance parameter: - a wind speed component in a driving direction (81, 82) of the vehicle during the coasting process.
Biodegradable composition for the preparation of a nanostructured biodegradable polymeric material, characterised in that it comprises a mixture of: i) poly(L-, D-lactide) homopolymer and, optionally, poly(ε-caprolactone) homopolymer, and ii) poly(L-lactide) and poly(ε-caprolactone) diblock copolymer, wherein this copolymer has a molar mass of the L-lactide block of between 20,000 g/mol and 200,000 g/mol and a molar mass of the ε-caprolactone block of between 10,000 g/mol and 100,000 g/mol, with the molar ratio between the L-lactide block and the ε-caprolactone block being 2:1. i) poly(L-, D-lactide) homopolymer and, optionally, poly(ε-caprolactone) homopolymer, and ii) poly(L-lactide) and poly(ε-caprolactone) diblock copolymer, wherein this copolymer has a molar mass of the L-lactide block of between 20,000 g/mol and 200,000 g/mol and a molar mass of the ε-caprolactone block of between 10,000 g/mol and 100,000 g/mol, with the molar ratio between the L-lactide block and the ε-caprolactone block being 2:1.
A method for determining a distance between at least one point on an aircraft in flight and at least one projected area off of the aircraft, the method being performed by a control system on board of said aircraft, said method comprising a step of: receiving, by a processor of said control system, sensor signals indicative of LIDAR data for the at least one projected area off the aircraft; said method being characterized by further comprising the steps of: applying, by said processor, a linear estimation algorithm to filter out noise within the LIDAR data and define a surface plane for each of the at least one projected area, wherein each of the at least one projected area is a specific projected area within a landing zone where a landing gear of the aircraft is projected to touch down; evaluating, by said processor, the LIDAR data against an aircraft model depending on aircraft configuration; determining, by said processor, the distance between the at least one point on the aircraft and the defined surface plane for each of the at least one projected area off the aircraft; and commanding a response in aircraft controls. receiving, by a processor of said control system, sensor signals indicative of LIDAR data for the at least one projected area off the aircraft; said method being characterized by further comprising the steps of: applying, by said processor, a linear estimation algorithm to filter out noise within the LIDAR data and define a surface plane for each of the at least one projected area, wherein each of the at least one projected area is a specific projected area within a landing zone where a landing gear of the aircraft is projected to touch down; evaluating, by said processor, the LIDAR data against an aircraft model depending on aircraft configuration; determining, by said processor, the distance between the at least one point on the aircraft and the defined surface plane for each of the at least one projected area off the aircraft; and commanding a response in aircraft controls.
An inhalation device comprising at least one inhalation powder positioned in at least one passage, wherein the at least one passage has at least one exit, at least one inlet and at least two obstructions capable of blocking the movement of or containing the at least one inhalation powder within the inhalation device before use, wherein: - the at least one inhalation powder is set to at least partially aerosolize in response to a pressure change and wherein - the at least two obstructions are breachable upon the application by a user of: a) an under pressure to the at least one exit by an inhalation; or b) an over pressure to the at least one inlet by an exhalation, which is also sufficient to at least partially aerosolize the at least one inhalation powder, causing a pressure differential between the at least one exit and the at least one inlet of the at least one passage of the inhalation device, and characterised in that the at least two obstructions are diaphragms, fabrics, films, foils, membranes, or combinations thereof. - the at least one inhalation powder is set to at least partially aerosolize in response to a pressure change and wherein - the at least two obstructions are breachable upon the application by a user of: a) an under pressure to the at least one exit by an inhalation; or b) an over pressure to the at least one inlet by an exhalation, which is also sufficient to at least partially aerosolize the at least one inhalation powder, causing a pressure differential between the at least one exit and the at least one inlet of the at least one passage of the inhalation device, and characterised in that the a) an under pressure to the at least one exit by an inhalation; or b) an over pressure to the at least one inlet by an exhalation, which is also sufficient to at least partially aerosolize the at least one inhalation powder, causing a pressure differential between the at least one exit and the at least one inlet of the at least one passage of the inhalation device, and characterised in that the
A method for managing consistency of content assets stored in a cache on a client device, the method comprising: a) sending an update token value for the client device to a distribution server; b) identifying one or more content assets stored in the cache using the update token value and an update table stored in a memory associated with the distribution server; c) determining with the distribution server whether a potential conflict exists between any of the one or more assets stored in the cache and any of one or more assets in an update list determined from a current update token value and the update table; and d) if it is determined at c) that a conflict exists, determining a resolution to the conflict that involves deleting one or more potentially conflicting assets from the cache, sending an instruction from the distribution server to the client device to delete the one or more conflicting assets, and deleting one or more potentially conflicting content assets from the cache with the client device in response to the instruction from the distribution server; and e) sending an update signal from the distribution server to the client device if it is determined at c) that no potential conflict exists, wherein the update signal is configured to permit the client device to proceed with an update of the content assets; and f) updating the content assets stored in the cache. a) sending an update token value for the client device to a distribution server; b) identifying one or more content assets stored in the cache using the update token value and an update table stored in a memory associated with the distribution server; c) determining with the distribution server whether a potential conflict exists between any of the one or more assets stored in the cache and any of one or more assets in an update list determined from a current update token value and the update table; and d) if it is determined at c) that a conflict exists, determining a resolution to the conflict that involves deleting one or more potentially conflicting assets from the cache, sending an instruction from the distribution server to the client device to delete the one or more conflicting assets, and deleting one or more potentially conflicting content assets from the cache with the client device in response to the instruction from the distribution server; and e) sending an update signal from the distribution server to the client device if it is determined at c) that no potential conflict exists, wherein the update signal is configured to permit the client device to proceed with an update of the content assets; and f) updating the content assets stored in the cache.
Test apparatus for non-destructive testing of rotationally symmetrical objects, in particular of rotors of gas or steam turbines, the rotationally symmetrical objects being rotatable in a peripheral direction, and extending perpendicularly with respect to the peripheral direction in an axial direction, characterized in that this test apparatus has at least three elongate runner bodies (5, 6, 7) which extend in a peripheral direction and parallel to one another, are connected to one another and define supporting surfaces for setting up on the peripheral surface of the object to be tested, a testing probe receptacle for an ultrasonic testing probe being provided at least on the middle runner body. in particular of rotors of gas or steam turbines, the rotationally symmetrical objects being rotatable in a peripheral direction, and extending perpendicularly with respect to the peripheral direction in an axial direction, characterized in that this test apparatus has at least three elongate runner bodies (5, 6, 7) which extend in a peripheral direction and parallel to one another, are connected to one another and define supporting surfaces for setting up on the peripheral surface of the object to be tested, a testing probe receptacle for an ultrasonic testing probe being provided at least on the middle runner body.
An alignment device for use in marking a surface, the device comprising: first (2,4) and second longitudinal arms (3,5), each rotatably connected to a hub or handle, each arm carrying a scale or an indicator element; and a user-operable locking mechanism configured selectively to prevent and enable rotation of the arms, characterised in that the first and second arms are connected to a mechanism configured such that rotational movement of one arm in a first direction is effective to move the other arm by the same amount in the counter direction. first (2,4) and second longitudinal arms (3,5), each rotatably connected to a hub or handle, each arm carrying a scale or an indicator element; and a user-operable locking mechanism configured selectively to prevent and enable rotation of the arms, characterised in that the first and second arms are connected to a mechanism configured such that rotational movement of one arm in a first direction is effective to move the other arm by the same amount in the counter direction.
A compound having the structure: wherein each n is independently any positive integer selected from 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, and 30.