mhurhangee/ep-ind-claims huggingface dataset:
A composition which is stable upon storage, for the formation of coatings on buildings, comprising at least one organic binder, at least one filler and/or pigment, water for producing a pasty consistency in the composition, a buffer system for setting and maintaining a pH of at least 10, as well as conventional additives if appropriate, characterized by a content of a buffer system based on at least one organic amino compound, wherein the content corresponds to between 0.01 % by weight and 20 % by weight of amino compound, respectively with respect to the total weight of the composition, wherein at least one pK a value for the acid of the buffer system is between 10 and 13.5. comprising at least one organic binder, at least one filler and/or pigment, water for producing a pasty consistency in the composition, a buffer system for setting and maintaining a pH of at least 10, as well as conventional additives if appropriate, characterized by a content of a buffer system based on at least one organic amino compound, wherein the content corresponds to between 0.01 % by weight and 20 % by weight of amino compound, respectively with respect to the total weight of the composition, wherein at least one pK a value for the acid of the buffer system is between 10 and 13.5.
Floorboard for a boarded floor consisting of floorboards arranged in parallel next to one another in one plane, comprising a rectangular tubular hollow profile which has two connecting arrangements (12, 13) on board edges (10, 11) facing away from one another and facing adjacent floorboards for connecting adjacent floorboards, a first of the two connecting arrangements (12, 13) having a first upper projection which protrudes from a first of the two board edges (10, 11) and a lower projection which protrudes from the first board edge, and a second of the two connecting arrangements (12, 13) having a second upper projection which protrudes from a second of the two board edges and a central projection which protrudes from the second board edge and is arranged on the floorboard in a lower position than the upper projections (6, 8) and a higher position than the lower projection, the first upper projection having a downward-facing drip moulding, the lower projection having an inclined surface which faces the first upper projection, slopes upwards towards the rectangular tubular hollow profile and has a snap channel which extends in parallel with the board edge, the second upper projection having a water drainage channel which is downwardly offset in parallel with the board edge and with respect to the second upper projection, and the central projection having a snap bead, and, in the case of floorboards arranged next to one another in one plane and connected to one another, the drip moulding of a first floorboard protruding into the water drainage channel of an adjacent floorboard, the water drainage channel of the adjacent floorboard abutting the bottom of the first upper projection of the first floorboard and the snap bead of the first floorboard snapping into the snap channel of the adjacent floorboard, characterised in that the central projection is in the form of a vertically resilient spring bar.
A light and small industrial vehicle, comprising a driving wheel, a handle and a driving mechanism capable of converting a rotation action of the handle into a rotation action of the driving wheel, wherein the driving mechanism comprises a racket wheel (311, 312) having teeth and capable of driving the driving wheel to rotate, a pawl (321, 322) capable of being meshed with the teeth, a pulling plate used for mounting the pawl (321, 322) and capable of serving as a follow-up object of the racket wheel (311, 312) when the pawl (321, 322) is meshed with the teeth, a pressing rod for converting the rotation action of the handle into a rotation action of the pulling plate and a triggering mechanism (351 - 354) used for controlling the pawl (321, 322) to be separated from or meshed with the racket wheel (311, 312), characterized in that the triggering mechanism (351 - 354) comprises a positioning disc rotationally connected with the pulling plate by a rotating shaft, a positioning rod capable of fixing the positioning disc in a current rotating position, a pressing block capable of converting a rotation action of the rotating shaft into the separating or meshing action between the pawl (321, 322) and the racket wheel (311, 312), and a pedal plate relatively fixed with the positioning disc.
Method for transmitting sonar data to an evaluation unit of a sonar system comprising the steps of: - Converting sound waves into hydrophone signals with several hydrophones; - Converting the hydrophone signals into sonar data with at least one microcontroller circuit, - Transmitting the sonar data to an evaluation unit, and - Evaluation of the sonar data in the evaluation unit, the conversion of the hydrophone signals comprising digitizing and compressing the hydrophone signals, characterized in that the sonar system is the sonar system of an underwater vehicle and the compression method currently used during compression is exchanged as a function of the hydrophone signals by the microcontroller circuit as follows: - Use of a compression method in the stationary state, wherein the compression method results in a higher degree of compression than another compression method in the stationary state in which the sonar system and targets in the environment have an unchanged position relative to each other; - Use of the other compression method when the targets are moving quickly, whereby the other compression method results in a higher degree of compression than the compression method in this situation. - Converting sound waves into hydrophone signals with several hydrophones; - Converting the hydrophone signals into sonar data with at least one microcontroller circuit, - Transmitting the sonar data to an evaluation unit, and - Evaluation of the sonar data in the evaluation unit, the conversion of the hydrophone signals comprising digitizing and compressing the hydrophone signals, characterized in that the sonar system is the sonar system of an underwater vehicle and the compression method currently used during compression is exchanged as a function of the hydrophone signals by the microcontroller circuit as follows: - Use of a compression method in the stationary state, wherein the compression method results in a higher degree of compression than another compression method in the stationary state in which the sonar system and targets in the environment have an unchanged position relative to each other; - Use of the other compression method when the targets are moving quickly, whereby the other compression method results in a higher degree of compression than the compression method in this situation. - Use of a compression method in the stationary state, wherein the compression method results in a higher degree of compression than another compression method in the stationary state in which the sonar system and targets in the environment have an unchanged position relative to each other; - Use of the other compression method when the targets are moving quickly, whereby the other compression method results in a higher degree of compression than the compression method in this situation.
A method for use by a wireless device, the method comprising: receiving at least one message comprising configuration parameters of: a plurality of cells; and sounding reference signals (SRSs), an SRS in the SRSs being configured to be transmitted in a last symbol of a first subframe on a first cell in the plurality of cells; transmitting on a second cell in the plurality of cells a packet in a plurality of symbols of the first subframe, the plurality of symbols comprising the last symbol of the first subframe; transmitting the SRS if the following conditions are satisfied: the at least one message causes in the wireless device configuration of a plurality of cell groups; the wireless device has sufficient power to transmit the SRS in parallel with the packet; and the first cell and the second cell are different cells of a same cell group; and, characterized by, dropping the SRS if the following conditions are satisfied: the wireless device is not configured with a plurality of cell groups; the wireless device has sufficient power to transmit the SRS in parallel with the packet; and the first cell and second cell are different cells of the same cell group. receiving at least one message comprising configuration parameters of: a plurality of cells; and sounding reference signals (SRSs), an SRS in the SRSs being configured to be transmitted in a last symbol of a first subframe on a first cell in the plurality of cells; a plurality of cells; and sounding reference signals (SRSs), an SRS in the SRSs being configured to be transmitted in a last symbol of a first subframe on a first cell in the plurality of cells; transmitting on a second cell in the plurality of cells a packet in a plurality of symbols of the first subframe, the plurality of symbols comprising the last symbol of the first subframe; transmitting the SRS if the following conditions are satisfied: the at least one message causes in the wireless device configuration of a plurality of cell groups; the wireless device has sufficient power to transmit the SRS in parallel with the packet; and the first cell and the second cell are different cells of a same cell group; and, characterized by, the at least one message causes in the wireless device configuration of a plurality of cell groups; the wireless device has sufficient power to transmit the SRS in parallel with the packet; and the first cell and the second cell are different cells of a same cell group; and, characterized by, dropping the SRS if the following conditions are satisfied: the wireless device is not configured with a plurality of cell groups; the wireless device has sufficient power to transmit the SRS in parallel with the packet; and the first cell and second cell are different cells of the same cell group. the wireless device is not configured with a plurality of cell groups; the wireless device has sufficient power to transmit the SRS in parallel with the packet; and the first cell and second cell are different cells of the same cell group.
A propulsion assembly comprising an engine nacelle pylon, a turbojet engine mounted on the engine nacelle pylon and having a center-line, and a thrust reverser (20, 120, 220), the thrust reverser (20, 120, 220) comprising a fixed part, designed to be mounted on the turbojet engine so as to encircle the latter, a movable part, coaxial and mounted in translation with respect to the fixed part between a closed state and an extended state, the movable part being sealingly inserted against the fixed part by blocking an air outlet passage in the closed state, whereas the air outlet passage is freed up in the extended state, and a single actuating device including - a beam, secured to the fixed part, extending axially along the outer surface of the fixed part, - a slider, secured to the movable part, mounted in translation on the beam, and - a driving device, configured to drive the movable part in translation with respect to the fixed part, characterized in that the beam or the slider comprises a stop taking the form of a protuberance protruding on a radially outer surface of said beam or slider and configured to have a clearance (j) in the closed state with respect to said engine nacelle pylon. a fixed part, designed to be mounted on the turbojet engine so as to encircle the latter, a movable part, coaxial and mounted in translation with respect to the fixed part between a closed state and an extended state, the movable part being sealingly inserted against the fixed part by blocking an air outlet passage in the closed state, whereas the air outlet passage is freed up in the extended state, and a single actuating device including - a beam, secured to the fixed part, extending axially along the outer surface of the fixed part, - a slider, secured to the movable part, mounted in translation on the beam, and - a driving device, configured to drive the movable part in translation with respect to the fixed part, - a beam, secured to the fixed part, extending axially along the outer surface of the fixed part, - a slider, secured to the movable part, mounted in translation on the beam, and - a driving device, configured to drive the movable part in translation with respect to the fixed part, characterized in that the beam or the slider comprises a stop taking the form of a protuberance protruding on a radially outer surface of said beam or slider and configured to have a clearance (j) in the closed state with respect to said engine nacelle pylon.
An additive manufacturing system comprising: a build chamber; a laser source configured to direct a laser beam into the build chamber thereby forming metal condensate in the build chamber; a halogen vessel connected to the build chamber, wherein the halogen vessel includes a halogen gas source and a heating system; and a dissociation chamber connected to the halogen vessel, wherein the dissociation chamber includes a filament, said filament being heated at a temperature of approximately 1400°C. a build chamber; a laser source configured to direct a laser beam into the build chamber thereby forming metal condensate in the build chamber; a halogen vessel connected to the build chamber, wherein the halogen vessel includes a halogen gas source and a heating system; and a dissociation chamber connected to the halogen vessel, wherein the dissociation chamber includes a filament, said filament being heated at a temperature of approximately 1400°C.
An N 2 -phosphinyl formamidine compound having the formula: wherein: R 1 is a C 1 to C 30 organyl group, R 3 is hydrogen, a C 1 to C 30 organyl group, or a C 1 to C 30 organyl group consisting essentially of inert functional groups, and R 4 and R 5 are each independently a C 1 to C 30 organyl group consisting essentially of inert functional groups, wherein the term "organyl group consisting essentially of inert functional groups" refers to an organyl group wherein the organic functional group(s) and/or atom(s) other than carbon and hydrogen present in the functional group are selected from halo, nitro, hydrocarboxy groups, sulfidyl groups, and/or hydrocarbyl groups. R 1 is a C 1 to C 30 organyl group, R 3 is hydrogen, a C 1 to C 30 organyl group, or a C 1 to C 30 organyl group consisting essentially of inert functional groups, and R 4 and R 5 are each independently a C 1 to C 30 organyl group consisting essentially of inert functional groups, wherein the term "organyl group consisting essentially of inert functional groups" refers to an organyl group wherein the organic functional group(s) and/or atom(s) other than carbon and hydrogen present in the functional group are selected from halo, nitro, hydrocarboxy groups, sulfidyl groups, and/or hydrocarbyl groups.
A case for a timepiece comprising: a case body; and an exterior member with a separation section for separating at least a part of the exterior member in the circumferential direction, said external member arranged on an outer periphery of the case body, wherein the separation section of the exterior member is provided corresponding to a portion of the case body where a switch section is provided, said switch section provided with a head section having an outer peripheral surface, and wherein the separation section comprises a slit for separating the exterior member in the circumferential direction, so as to make the exterior member deformable in the circumferential direction thereof, characterized in that the separation section comprises an insertion hole which comprises an inner peripheral surface and is provided in a central portion of the slit and into which said head section is inserted, wherein the insertion hole is formed having a length in the circumferential direction larger than an outer diameter of said head section, so as to form a gap between the outer peripheral surface of the head section and the inner peripheral surface of the insertion hole, such that the operation head section does not come in contact with the inner peripheral surface of the switch insertion hole by said gap even when the exterior member is displaced in the circumferential direction thereof. a case body; and an exterior member with a separation section for separating at least a part of the exterior member in the circumferential direction, said external member arranged on an outer periphery of the case body, wherein the separation section of the exterior member is provided corresponding to a portion of the case body where a switch section is provided, said switch section provided with a head section having an outer peripheral surface, and wherein the separation section comprises a slit for separating the exterior member in the circumferential direction, so as to make the exterior member deformable in the circumferential direction thereof, characterized in that the separation section comprises an insertion hole which comprises an inner peripheral surface and is provided in a central portion of the slit and into which said head section is inserted, wherein the insertion hole is formed having a length in the circumferential direction larger than an outer diameter of said head section, so as to form a gap between the outer peripheral surface of the head section and the inner peripheral surface of the insertion hole, such that the operation head section does not come in contact with the inner peripheral surface of the switch insertion hole by said gap even when the exterior member is displaced in the circumferential direction thereof.
A method for scalable bitstream extraction suitable for use in video processing, comprising the steps of: receiving an embedded bitstream having at least two refinement layers, at least two temporal levels, and at least two spatial layers; and extracting bits from the embedded bitstream given a bit budget constraint to provide a quality enhancement to a video decoding quality, characterized in that the extraction is first performed from a lower spatial layer to a higher spatial layer for each temporal level in order of lower temporal level to higher temporal level in a given refinement layer and the extraction is repeated for each refinement layer from a lower refinement layer to a higher refinement layer; and the step of extracting bits is stopped before extracting bits from any next spatial layer, temporal level and refinement layer combination if the given bit budget is reached. receiving an embedded bitstream having at least two refinement layers, at least two temporal levels, and at least two spatial layers; and extracting bits from the embedded bitstream given a bit budget constraint to provide a quality enhancement to a video decoding quality, characterized in that the extraction is first performed from a lower spatial layer to a higher spatial layer for each temporal level in order of lower temporal level to higher temporal level in a given refinement layer and the extraction is repeated for each refinement layer from a lower refinement layer to a higher refinement layer; and the step of extracting bits is stopped before extracting bits from any next spatial layer, temporal level and refinement layer combination if the given bit budget is reached.
Compound of the formula I (Sr 1-z-n Ca z Eu n) m M p (SiN 2) m-x (CN 2) x Si 3w N4 w+p where M stands for Al, Ga, Y, Gd or Lu and m stands for a value from the range 0 < m ≤ 3 and n stands for a value from the range 0.005m ≤ n ≤ 0.2m and p stands for a value from the range 0 ≤ p ≤ 3 and w stands for a value from the range 0 ≤ w ≤ 2 and x stands for a value from the range 0 < x ≤ m and z stands for a value from the range 0 ≤ z ≤ 0.4. M stands for Al, Ga, Y, Gd or Lu and m stands for a value from the range 0 < m ≤ 3 and n stands for a value from the range 0.005m ≤ n ≤ 0.2m and p stands for a value from the range 0 ≤ p ≤ 3 and w stands for a value from the range 0 ≤ w ≤ 2 and x stands for a value from the range 0 < x ≤ m and z stands for a value from the range 0 ≤ z ≤ 0.4.
Method for installing a solid-phase resistance welding device, adapted to weld a first part to a second part, the method comprising the instalment of two cylindrical electrodes, each adapted to surround a part (4, 5) to be welded and to allow the passage of a welding current through the first part and the second part, each of the two electrodes comprising a longitudinal slit defining a circumferential adjustment space (e), allowing an adjustment by tightening of each of the electrodes around a part (4, 5) to be welded, the method being characterized in that it comprises the tightening of two means for tightening the electrodes around the first part and the second part, so that, once an electrode has been adjusted around the first part and an electrode adjusted around the second part, - each slit is 180° away from another slit; and - each slit has a circumferential space strictly less than 1mm. - each slit is 180° away from another slit; and - each slit has a circumferential space strictly less than 1mm.
An exhaust gas purification device for a ship having a function of removing soot adhered to a catalyst arranged inside a cylindrical casing (74, 76), comprising a plurality of air injection nozzles arranged on a side wall of the casing (74, 76), which are each configured to generate an impulse wave by injecting pressurized air into the casing (74, 76), wherein force of the impulse wave acts throughout a surface of the catalyst in contact with exhaust gas by propagating, with the exhaust gas as a medium, the impulse wave utilizing the pressurized air, and soot is removed from the catalyst by fluctuation in pressure in the casing (74, 76), wherein the air injection nozzles successively inject one by one an equal flow quantity of pressurized air, for a period t1, at predetermined time t2 intervals, the period t1 is 0.1 to 0.5 second, the time t2 is 30 seconds to 5 minutes.
Process for producing an ignition plug for an internal combustion engine, in particular of a motor vehicle, comprising a main body with a head region, which is intended to be assigned to a combustion chamber of the internal combustion engine, a coating being arranged at least partially on the head region of the main body, said process having at least the following steps: - the head region of the main body and a part of an insulator body situated within the head region are at least partially roughened, - slip is applied to the roughened head region of the main body and of the part of an insulator body situated within the head region, - the applied slip is dried, - the slip applied to the roughened head region of the main body and of the part of an insulator body situated within the head region is heated to form an enamel coating. - the head region of the main body and a part of an insulator body situated within the head region are at least partially roughened, - slip is applied to the roughened head region of the main body and of the part of an insulator body situated within the head region, - the applied slip is dried, - the slip applied to the roughened head region of the main body and of the part of an insulator body situated within the head region is heated to form an enamel coating.