mhurhangee/ep-ind-claims huggingface dataset:
An optical communication system, comprising: an optical tunable filter, whose wavelength transmission characteristic varies depending on a control signal, transmitting and extracting signal light with a specific wavelength from signal light multiplexed by a wavelength-division multiplexing, WDM, method; detection means for detecting signal light extracted by the optical tunable filter; and control signal generating means (54,55) for generating the control signal needed to enable the optical tunable filter to extract signal light with a predetermined wavelength by the detection means, based on a detected result obtained by shifting a wavelength transmission characteristic of the optical tunable filter in a wavelength band including all segments of the multiplexed signal light; wherein the control signal generating means (54, 55) determines existence of a signal light where a peak level of a detected light is greater than a given signal light level and a peak point of the detected light at a determined peak width from the peak level of the detected light is less than a predetermined level. an optical tunable filter, whose wavelength transmission characteristic varies depending on a control signal, transmitting and extracting signal light with a specific wavelength from signal light multiplexed by a wavelength-division multiplexing, WDM, method; detection means for detecting signal light extracted by the optical tunable filter; and control signal generating means (54,55) for generating the control signal needed to enable the optical tunable filter to extract signal light with a predetermined wavelength by the detection means, based on a detected result obtained by shifting a wavelength transmission characteristic of the optical tunable filter in a wavelength band including all segments of the multiplexed signal light; wherein the control signal generating means (54, 55) determines existence of a signal light where a peak level of a detected light is greater than a given signal light level and a peak point of the detected light at a determined peak width from the peak level of the detected light is less than a predetermined level.
A plug part for producing an optical and/or electrical plug-in connection with a mating plug part by plugging together the plug part with the mating plug part in at least one plug-assembly direction, wherein the plug part has a plug part housing and at least one optical and/or electrical contact and a resilient opening pretensioning element which acts in a direction parallel to the plug-assembly direction and an opening element for opening a flap on the mating plug part, wherein the opening element in or on the plug part housing in directions parallel to the plug-assembly direction is mounted displaceably relative to the plug part housing and is pretensioned by the opening pretensioning element in one of these directions parallel to the plug-assembly direction, characterised in that the opening element is designed as a one-piece body and has a first contact face for the opening pretensioning element and a second contact face for opening the flap of the mating plug part.
A functionalized support having the following formula: SS-[C -NH-C(R 5)(R 6)-(CH 2) n C -NH-(C(R 1)(R 2)) p -C(R 3)(R 4)(OR 7)] m wherein: SS represents a support material; R 1, R 2, R 3, and R 4 are each independently hydrogen or an organic group with the proviso that at least one of R 3 and R 4 is an aromatic group; R 7 is hydrogen or an organic group; R 5 and R 6 are each independently an organic group; n is 0 to 1; 'p is at least 1; and m is 1 to the resin capacity of the support material, wherein R 1, R 2, R 3, and R 4 are each independently hydrogen, a (C1-C14)alkyl group, a (C3-C14)cycloalkyl group, or a (C5-C12)aryl group with the proviso that at least one of R 3 and R 4 is a (C5-C12)aryl group; R 5 and R 6 are each independently a (C1-C14)alkyl group, a (C3-C14)cycloalkyl group, or a (C5-C12)aryl group, and wherein R 7 is hydrogen, a protecting group, or an organic group capable of being derivatized. SS represents a support material; R 1, R 2, R 3, and R 4 are each independently hydrogen or an organic group with the proviso that at least one of R 3 and R 4 is an aromatic group; R 7 is hydrogen or an organic group; R 5 and R 6 are each independently an organic group; n is 0 to 1; 'p is at least 1; and m is 1 to the resin capacity of the support material, wherein R 1, R 2, R 3, and R 4 are each independently hydrogen, a (C1-C14)alkyl group, a (C3-C14)cycloalkyl group, or a (C5-C12)aryl group with the proviso that at least one of R 3 and R 4 is a (C5-C12)aryl group; R 5 and R 6 are each independently a (C1-C14)alkyl group, a (C3-C14)cycloalkyl group, or a (C5-C12)aryl group, and wherein R 7 is hydrogen, a protecting group, or an organic group capable of being derivatized.
An NMR rotor in which a sample of a target of NMR measurement is contained and which is rotated during the measurement, the NMR rotor comprising: a main body having a tubular shape in which at least one end is opened, and containing the sample; and a cap (14, 16) fitted into an opening of the end of the main body to close the opening of the end, characterized in that the NMR rotor further comprises an insert member disposed in the cap (14, 16)) and having a negative coefficient of linear thermal expansion, wherein the insert member is disposed in the cap (14, 16) so that the insert member expands toward an inner surface of the main body in accordance with temperature drop. a main body having a tubular shape in which at least one end is opened, and containing the sample; and a cap (14, 16) fitted into an opening of the end of the main body to close the opening of the end, characterized in that the NMR rotor further comprises an insert member disposed in the cap (14, 16)) and having a negative coefficient of linear thermal expansion, wherein the insert member is disposed in the cap (14, 16) so that the insert member expands toward an inner surface of the main body in accordance with temperature drop.
A method for manufacturing a combined sensor that is fabricated from a sensor wafer and cap wafer, the sensor having a plurality of sensor chips arranged thereon, each of the sensor chips being composed of an angular velocity sensor using a vibrator to detect angular velocity and an acceleration sensor using a movable member to detect acceleration, the cap wafer having a plurality of cap chips arranged thereon, each of the cap chips being formed with concave gaps at respective positions corresponding to the angular velocity sensor and the acceleration sensor, each cap chip being formed with convex bumps near the gap of the angular velocity sensor, the method being characterized by comprising a process for sequentially performing: an anodic or surface-activated bonding-sealing and bonding-inhibition step in which the sensor wafer and the cap wafer are bonded to each other with the bumps interposed therebetween in an atmospheric pressure environment, the acceleration sensor is bonded and sealed in the atmospheric pressure environment and bonding of the angular velocity sensor is inhibited by the bumps near the gaps formed in the angular velocity sensor in the atmospheric pressure environment; a vacuum atmosphere creation step which under a vacuum atmosphere, saturates the angular velocity sensor with the vacuum atmosphere through a clearance for the bonding-inhibition caused by the bumps; and a bonding-sealing step which subjects the sensor wafer and the cap wafer to heating and puts a load thereon to deform the bumps to bond and seal the angular velocity sensor in the vacuum atmosphere, wherein the bump formed on the cap wafer has a diameter of 10 μm or more and a height of 0.5 μm or more in the case of anodic bonding, or wherein the bump formed on the cap wafer has a height of 0.2 μm or more in the case of surface activated bonding.
A device adapted to: receive a spread-spectrum timing-reference signal from another device; detect a code-phase of the received reference signal; and transmit data to the other device with a timing that is defined relative to the detected code-phase. receive a spread-spectrum timing-reference signal from another device; detect a code-phase of the received reference signal; and transmit data to the other device with a timing that is defined relative to the detected code-phase.
A manufacturing and fixing method of a cover removable from an opening of a metal sheet section comprising the following steps: a. Defining a perimeter of the opening, b. Cutting a first cutting line comprising a first end and a second end and cutting a second cutting line comprising a first end and a second end in such a manner that they cut the perimeter of the opening, a stamping surface being thereby defined between the cutting lines (55, 56), c. Repeating step b) at least three times along the perimeter of the opening, a total of at least four stamping surfaces being thereby defined, d. Stamping the at least four stamping surfaces in a direction perpendicular to the plane defined by the stamping surface in such a manner that there are at least two stamping surfaces stamped in opposite senses of said direction perpendicular to the plane defined by the stamping surface in an alternating manner among the stamping surfaces, e. Cutting the perimeter of the opening, at least four fixing lugs (5, 6) being thereby defined, f. Flattening the fixing lugs (5, 6) located in the section, thereby bringing them back to the starting plane of the stamping surface, g. Flattening the fixing lugs (5, 6) located in the cover, thereby bringing them back to the starting plane of the stamping surface in such a manner that at least four connecting surfaces are defined, or on the cover or on the section or on another fixing lug (5, 6) in such a manner that the cover remains fixed to the section without any additional fixing means a. Defining a perimeter of the opening, b. Cutting a first cutting line comprising a first end and a second end and cutting a second cutting line comprising a first end and a second end in such a manner that they cut the perimeter of the opening, a stamping surface being thereby defined between the cutting lines (55, 56), c. Repeating step b) at least three times along the perimeter of the opening, a total of at least four stamping surfaces being thereby defined, d. Stamping the at least four stamping surfaces in a direction perpendicular to the plane defined by the stamping surface in such a manner that there are at least two stamping surfaces stamped in opposite senses of said direction perpendicular to the plane defined by the stamping surface in an alternating manner among the stamping surfaces, e. Cutting the perimeter of the opening, at least four fixing lugs (5, 6) being thereby defined, f. Flattening the fixing lugs (5, 6) located in the section, thereby bringing them back to the starting plane of the stamping surface, g. Flattening the fixing lugs (5, 6) located in the cover, thereby bringing them back to the starting plane of the stamping surface in such a manner that at least four connecting surfaces are defined, or on the cover or on the section or on another fixing lug (5, 6) in such a manner that the cover remains fixed to the section without any additional fixing means
A system for managing at least two different classes of data, wherein at least one of the classes is a class that comprises a cryptographic key, the system comprising: one or more memory management components that create plural heaps for storing data, there being different sets of rules for different heaps regarding use of data, wherein said plural heaps comprise a first heap, said sets of rules calling for said cryptographic key to be stored on said first heap and further comprising a first rule that data on said first heap is not to be transferred out of the system through an output device, said one or more memory management components exposing functions for use by a program, said functions being configured to store and/or consume data, said functions further being configured to: determine which of said heaps to store data in based on the nature or intended use of the data; and determine whether a requested use of data is consistent with the rules applicable to the data based on which heap the data is located on; and wherein said functions take one or more measures to prevent violation of the rules applicable to each of the heaps. one or more memory management components that create plural heaps for storing data, there being different sets of rules for different heaps regarding use of data, wherein said plural heaps comprise a first heap, said sets of rules calling for said cryptographic key to be stored on said first heap and further comprising a first rule that data on said first heap is not to be transferred out of the system through an output device, said one or more memory management components exposing functions for use by a program, said functions being configured to store and/or consume data, said functions further being configured to: determine which of said heaps to store data in based on the nature or intended use of the data; and determine whether a requested use of data is consistent with the rules applicable to the data based on which heap the data is located on; and wherein said functions take one or more measures to prevent violation of the rules applicable to each of the heaps.
An amide compound of formula: wherein: R 1 is (a) substituted or unsubstituted phenyl; (b) substituted or unsubstituted 2-, 3- or 4-pyridine; (c) substituted or unsubstituted naphthyl or 3-azanaphthyl; (d) substituted or unsubstituted 0-3 heteroatom cyclohexyl or cyclopentyl; or (e) substituted or unsubstituted 0-3 heteroatom cyclopentene or cyclopentadiene; R 2 is substituted or unsubstituted aziridine, azetidine, pyrrolidine, piperidine, oxaziridine, oxazetidine, oxazolidine, oxazinane,thiaziridine, thiazetidine, thiazolidine, thiazinane, diaziridine, diazetidine, diazolidine (pyrazolidine) or diazinane; or R 2 is substituted or unsubstituted pyrrole, dihydropyrrole, pyridine, dihydropyridine, tetrahydropyridine, azole, pyrimidine, oxazine, thiazine, triazine, ozadiazine, thiadiazine; and R 3 is 1,1-dimethylpropyl, 1,1-dimethylprop-2-enyl, or 1,1-dimethylprop-2-ynyl, each optionally fluorinated with 1-4 F atoms, wherein each heteroatom is independently oxygen, phosphorus, sulfur or nitrogen; or a corresponding sulfonamide of the amide compound, or a pharmaceutically acceptable salt, hydrate or stereoisomer of the compound or corresponding sulfonamide. R 1 is (a) substituted or unsubstituted phenyl; (b) substituted or unsubstituted 2-, 3- or 4-pyridine; (c) substituted or unsubstituted naphthyl or 3-azanaphthyl; (d) substituted or unsubstituted 0-3 heteroatom cyclohexyl or cyclopentyl; or (e) substituted or unsubstituted 0-3 heteroatom cyclopentene or cyclopentadiene; (a) substituted or unsubstituted phenyl; (b) substituted or unsubstituted 2-, 3- or 4-pyridine; (c) substituted or unsubstituted naphthyl or 3-azanaphthyl; (d) substituted or unsubstituted 0-3 heteroatom cyclohexyl or cyclopentyl; or (e) substituted or unsubstituted 0-3 heteroatom cyclopentene or cyclopentadiene; R 2 is substituted or unsubstituted aziridine, azetidine, pyrrolidine, piperidine, oxaziridine, oxazetidine, oxazolidine, oxazinane,thiaziridine, thiazetidine, thiazolidine, thiazinane, diaziridine, diazetidine, diazolidine (pyrazolidine) or diazinane; or R 2 is substituted or unsubstituted pyrrole, dihydropyrrole, pyridine, dihydropyridine, tetrahydropyridine, azole, pyrimidine, oxazine, thiazine, triazine, ozadiazine, thiadiazine; and R 3 is 1,1-dimethylpropyl, 1,1-dimethylprop-2-enyl, or 1,1-dimethylprop-2-ynyl, each optionally fluorinated with 1-4 F atoms, wherein each heteroatom is independently oxygen, phosphorus, sulfur or nitrogen; or a corresponding sulfonamide of the amide compound, or a pharmaceutically acceptable salt, hydrate or stereoisomer of the compound or corresponding sulfonamide.
A light emitting diode comprising: a light transmitting substrate (51; 61) having a top surface and a back surface; a semiconductor material layer structure (53, 55, 57; 65, 67) formed on the top surface of the substrate and comprising a light generating active layer (57; 67); and a fluorescent layer (59; 69) formed on the entire back surface of the substrate, characterised in that the substrate has at least one etched hole (56a; 66a) in a region of the back surface of the substrate such that the at least one etched hole is recessed from a peripheral region (56b; 66b) of the back surface of the substrate (51; 81) and the fluorescent layer fills the at least one etched hole such that the fluorescent layer has a plurality of different thicknesses. a light transmitting substrate (51; 61) having a top surface and a back surface; a semiconductor material layer structure (53, 55, 57; 65, 67) formed on the top surface of the substrate and comprising a light generating active layer (57; 67); and a fluorescent layer (59; 69) formed on the entire back surface of the substrate, characterised in that the substrate has at least one etched hole (56a; 66a) in a region of the back surface of the substrate such that the at least one etched hole is recessed from a peripheral region (56b; 66b) of the back surface of the substrate (51; 81) and the fluorescent layer fills the at least one etched hole such that the fluorescent layer has a plurality of different thicknesses.
at least one collecting line coupled between said at least one mobile suction means and said at least one filtration means; at least one return line from said at least one filtration means to said at least one containing means; and at least one water outlet line from said at least one containing means to the at least one system for performing an industrial process, wherein the downstream industrial process comprises reverse osmosis, desalination, algae cultivation, an aquaculture process, a mining process, and combinations thereof, wherein the coordination means is configured to activate the mobile suction means and, simultaneously, the filtration means for filtering the flow suctioned by the mobile suction means, to filter only a small fraction of the entire volume of water, wherein the coordination means is configured to have the chemical application means means-apply the chemicals only when they are needed, and to operate the filtration means and mobile suction means only as needed to maintain the parameters of the water within their limits. at least one collecting line coupled between said at least one mobile suction means and said at least one filtration means; at least one return line from said at least one filtration means to said at least one containing means; and at least one water outlet line from said at least one containing means to the at least one system for performing an industrial process, wherein the downstream industrial process comprises reverse osmosis, desalination, algae cultivation, an aquaculture process, a mining process, and combinations thereof, wherein the coordination means is configured to activate the mobile suction means and, simultaneously, the filtration means for filtering the flow suctioned by the mobile suction means, to filter only a small fraction of the entire volume of water, wherein the coordination means is configured to have the chemical application means means-apply the chemicals only when they are needed, and to operate the filtration means and mobile suction means only as needed to maintain the parameters of the water within their limits.
A holding device of at least one rim-like body for the surface treatment of the at least one rim-like body, in particular for varnishing by means of a spraying device, comprising a stand frame, at least one bearing element, and at least one holding element, characterized in that the at least one bearing element is arranged on the stand frame such that it can be rotated or pivoted around a rotation axis and is essentially U-shaped, wherein the U-shape comprises two free legs and a connecting leg, and that the at least one holding element is arranged on the bearing element such that it can be rotated or pivoted around a rotation axis and on which holding element the at least one rim-like body can be fastened, such that the surface treatment of the rim-like body can be carried out from all sides without having to reposition the rim-like body on the holding element.
A hydraulic system for a mobile construction vehicle, comprising: a variable displacement track motor (60a, 60b) configured to be coupled to a track of the mobile construction vehicle to drive the track; an accumulator for storing pressurized hydraulic fluid for use as a power supply to a non-track load implement; a pump (54, 56) dedicated to the track motor (60a, 60b); and control valving (58a, 58b) that is operable between a first position at which the control valving (58a, 58b) directs hydraulic fluid from the dedicated pump (54, 56) to the variable displacement track motor (60a, 60b) to drive the variable displacement track motor (60a, 60b), and a second position at which the control valving (58a, 58b) directs hydraulic fluid from the dedicated pump (54, 56) to the accumulator. a variable displacement track motor (60a, 60b) configured to be coupled to a track of the mobile construction vehicle to drive the track; an accumulator for storing pressurized hydraulic fluid for use as a power supply to a non-track load implement; a pump (54, 56) dedicated to the track motor (60a, 60b); and control valving (58a, 58b) that is operable between a first position at which the control valving (58a, 58b) directs hydraulic fluid from the dedicated pump (54, 56) to the variable displacement track motor (60a, 60b) to drive the variable displacement track motor (60a, 60b), and a second position at which the control valving (58a, 58b) directs hydraulic fluid from the dedicated pump (54, 56) to the accumulator.