mhurhangee/ep-ind-claims huggingface dataset:
A thermal transfer sheet comprising at least a substrate and a transfer layer: the transfer layer comprising at least a protective layer provided so as to be peelable from the substrate; wherein the protective layer comprises a (meth)acrylic resin having a glass transition temperature (Tg) of 60°C or lower and a vinyl chloride-vinyl acetate copolymer, wherein the transfer layer has a peel force in a non-heated state of 1 N/m or more; and the transfer layer has a peel force in a heated state of 10 N/m or less, wherein the (meth)acrylic resin is polymers of alkyl acrylate or alkyl methacrylate, copolymer of alkyl acrylate and alkyl methacrylate, copolymer of alkyl acrylate and at least one of other monomer selected from styrene, benzylstyrene, phenoxyethyl methacrylate, acrylamide and methacrylamide, or copolymer of alkyl methacrylate and at least one of other monomer selected from styrene, benzylstyrene, phenoxyethyl methacrylate, acrylamide and methacrylamide, wherein the "peel force in a non-heated state" refers to a 180° peel force of the transfer layer at 40°C which is measured in accordance with JIS-Z-0237, the "peel force in a heated state" refers to a 50° peel force of the transfer layer which is measured according to the method provided in the description, and wherein the "glass transition temperature (Tg)" is obtained by differential scanning calorimetry in accordance with JIS-K-7121. the transfer layer comprising at least a protective layer provided so as to be peelable from the substrate; wherein the protective layer comprises a (meth)acrylic resin having a glass transition temperature (Tg) of 60°C or lower and a vinyl chloride-vinyl acetate copolymer, wherein the transfer layer has a peel force in a non-heated state of 1 N/m or more; and the transfer layer has a peel force in a heated state of 10 N/m or less, wherein the (meth)acrylic resin is polymers of alkyl acrylate or alkyl methacrylate, copolymer of alkyl acrylate and alkyl methacrylate, copolymer of alkyl acrylate and at least one of other monomer selected from styrene, benzylstyrene, phenoxyethyl methacrylate, acrylamide and methacrylamide, or copolymer of alkyl methacrylate and at least one of other monomer selected from styrene, benzylstyrene, phenoxyethyl methacrylate, acrylamide and methacrylamide, wherein the "peel force in a non-heated state" refers to a 180° peel force of the transfer layer at 40°C which is measured in accordance with JIS-Z-0237, the "peel force in a heated state" refers to a 50° peel force of the transfer layer which is measured according to the method provided in the description, and wherein the "glass transition temperature (Tg)" is obtained by differential scanning calorimetry in accordance with JIS-K-7121.
A system for interfacing with an optically-powered sensor in a fuel tank of an aircraft, the system comprising: an optical emitter configured to emit a beam of optical energy so as to provide operating power for the optically-powered sensor; an optical detector configured to detect a time sequence of optical pulses generated by the optically-powered sensor, the time sequence of pulses modulated between first and second optical power levels; an optical feedthrough configured to provide optical communication through a wall of fuel tank between the optical emitter and the optical detector on a first side of the optical feedthrough and the optically-powered sensor on a second side of the optical feedthrough; a parameter extractor configured to determine a value of a sensed parameter based on the time sequence of optical pulses detected by the optical detector; and a power controller configured to control power level of the emitted beam of optical energy based on the first optical power level detected by the optical detector, wherein the first optical power level is a baseline level or DC offset of the time sequence of optical pulses that is a portion of the beam of optical energy emitted from the optical emitter that is reflected by the optical feedthrough and detected by the optical detector, and the second optical power level is the time sequence of optical pulses that is the reflected portion of the beam of optical energy combined with the time sequence of optical pulses indicative of the sensed parameter from the optically-powered sensor which is greater than the first optical power level. an optical emitter configured to emit a beam of optical energy so as to provide operating power for the optically-powered sensor; an optical detector configured to detect a time sequence of optical pulses generated by the optically-powered sensor, the time sequence of pulses modulated between first and second optical power levels; an optical feedthrough configured to provide optical communication through a wall of fuel tank between the optical emitter and the optical detector on a first side of the optical feedthrough and the optically-powered sensor on a second side of the optical feedthrough; a parameter extractor configured to determine a value of a sensed parameter based on the time sequence of optical pulses detected by the optical detector; and a power controller configured to control power level of the emitted beam of optical energy based on the first optical power level detected by the optical detector, wherein the first optical power level is a baseline level or DC offset of the time sequence of optical pulses that is a portion of the beam of optical energy emitted from the optical emitter that is reflected by the optical feedthrough and detected by the optical detector, and the second optical power level is the time sequence of optical pulses that is the reflected portion of the beam of optical energy combined with the time sequence of optical pulses indicative of the sensed parameter from the optically-powered sensor which is greater than the first optical power level.
A light emitting device comprising: a plate-shaped member that is provided with a light emitting unit which emits light; a concave member that has a concave surface portion which is a concave surface to cover the light emitting unit, and that receives the light from the light emitting unit using the concave surface portion; and a storage unit that stores the plate-shaped member and the concave member in a state where a part of the concave member is exposed, wherein the concave member allows the light from the light emitting unit to penetrate to a part of the concave member exposed from the storage unit by diffusing the light received using the concave surface portion, characterized in that a bottom surface of the concave surface portion is a plate-shaped member formed in a semicircular shape, and in that the plate-shaped member and the concave member are stored in the storage unit in a state of exposing a first portion that is formed as a part of the concave member in a portion which corresponds to a chord of a semicircle on the bottom surface, and exposing a second portion that is formed as a part of the concave member in a portion which corresponds to an arc of the semicircle on the bottom surface. a plate-shaped member that is provided with a light emitting unit which emits light; a concave member that has a concave surface portion which is a concave surface to cover the light emitting unit, and that receives the light from the light emitting unit using the concave surface portion; and a storage unit that stores the plate-shaped member and the concave member in a state where a part of the concave member is exposed, wherein the concave member allows the light from the light emitting unit to penetrate to a part of the concave member exposed from the storage unit by diffusing the light received using the concave surface portion, characterized in that a bottom surface of the concave surface portion is a plate-shaped member formed in a semicircular shape, and in that the plate-shaped member and the concave member are stored in the storage unit in a state of exposing a first portion that is formed as a part of the concave member in a portion which corresponds to a chord of a semicircle on the bottom surface, and exposing a second portion that is formed as a part of the concave member in a portion which corresponds to an arc of the semicircle on the bottom surface.
High-recoverability resin particles having a mean particle size of 1 to 100 μm containing a cross-linked (meth)acrylic acid ester-based resin, wherein the high-recoverability resin particles have a recovery rate of 22% or greater, and a 30% compression strength of 1.5 to 5.0 kgf/mm 2, as measured according to the methods in the description; wherein the cross-linked (meth)acrylic acid ester-based resin contains a resin derived from a crosslinkable oligomer having two or more radical-polymerizable groups obtained by reacting (a) polyol, (b) polyisocyanate and (c) (meth)acrylic acid esters having an OH group, and a (meth)acrylic acid ester-based monofunctional monomer.
A method for geographic area based interception of data transmissions through a land based network, characterized by: receiving a command to intercept at least one transmission associated with at least one of a plurality of mobile stations located in a geographic area within an area covered by the land based network; identifying the geographic area, wherein the geographic area is an area that overlaps a portion of at least two cell coverage areas associated with at least one base station corresponding to the land based network, and wherein the geographic area is less than each of the at least two cell coverage areas; detecting the plurality of mobile stations, each of the plurality of mobile stations located in the geographic area; detecting a transmission associated with the at least one of the plurality of mobile stations in the geographic area; intercepting the transmission at an intercept access point as the transmission passes through the land based network; and transmitting at least a portion of the transmission to at least one authorized entity. receiving a command to intercept at least one transmission associated with at least one of a plurality of mobile stations located in a geographic area within an area covered by the land based network; identifying the geographic area, wherein the geographic area is an area that overlaps a portion of at least two cell coverage areas associated with at least one base station corresponding to the land based network, and wherein the geographic area is less than each of the at least two cell coverage areas; detecting the plurality of mobile stations, each of the plurality of mobile stations located in the geographic area; detecting a transmission associated with the at least one of the plurality of mobile stations in the geographic area; intercepting the transmission at an intercept access point as the transmission passes through the land based network; and transmitting at least a portion of the transmission to at least one authorized entity.
Spacer for road safety barrier of the type comprising a post and a rail connected to the post via the intermediary of the spacer and a connector, the spacer comprising a rail support comprising: - a front face designed to be fastened to the rail, - a rear face designed to be fastened to the post and - a flange connecting the front face to the rear face, characterised by the front face comprising a notch emerging on the upper edge of the front face, the notch comprising a connector housing, located in the lower portion of the notch and two convergent lateral edges (12, 12') connecting the connector housing to the upper edge of the front face so that the connector which provides a connection between the rail and the rail support can force passage along the length of the notch when it is subjected to an upward force greater than a threshold value. - a front face designed to be fastened to the rail, - a rear face designed to be fastened to the post and - a flange connecting the front face to the rear face,
A temperature-controlled container in cabinet form or chest form having a cooled or heated inner space; and a thermoelectric element, in particular having a Peltier element, that is arranged such that the inner space is cooled or heated by means of the thermoelectric element, wherein a plurality of thermoelectric elements that are arranged at a spatial distance from one another are present for the temperature control of the inner space, the container has main surfaces that in the case of a container in cabinet form comprise the two side walls, the top wall, the bottom and the rear wall and in the case of a container in chest form comprise the two side walls, the front wall, the rear wall, and the bottom; two of the thermoelectric elements are arranged at different main surfaces; and the outer skin and the inner wall bounding the inner wall consist completely of sheet metal, characterized in that the inner wall bounding the inner space has a smaller wall thickness than the outer skin of the container.
Shuttle assembly designed and adapted for being arranged inside a guide tube of an NMR spectrometer with at least two coaxially arranged NMR magnet systems (11'; 11") and with a drive system for shuttling an NMR sample in the guide tube between the NMR magnet systems (11'; 11"), the guide tube being comprised in a transfer device and configured to be positioned in a central bore of the coaxial magnet systems (11'; 11"), wherein the shuttle assembly comprises a sample container for containing the NMR sample, wherein the shuttle assembly has a piston design for enabling movement along the common axis of the coaxial magnet systems (11'; 11") under the influence of gas pressure generated by a pneumatic pressurizing arrangement being part of the transfer device, and wherein the shuttle assembly comprises a plug positioned in the sample container for limiting the liquid NMR sample volume in the sample container to an active volume area of the magnet systems (11'; 11") in an operational state of the spectrometer, characterized in that the plug has a central bore in axial direction for filling NMR sample material into the sample container, preferably by means of an injection needle, the bore being closed by a rod, which is at least partly extending into the sample container with its lower end.
A computer system operation method for allowing end-users to define at run-time of an application software program the way an object displayed by the system on a graphical user interface will react to events performed on the object during the design process of said object, wherein said computer system utilizes an application software program to create and manipulate said object, the application software program being one of a computer-aided design, a computer-aided manufacturing and a computer-aided engineering program, the method comprising: - selecting an object; - specifying, through behavioral code, behavior the object is to exhibit when a particular event is performed on the object; and - storing the behavioral code in a data structure associated with the object; wherein said step of specifying behavior is performed while the application software is running, wherein the step of specifying behavior comprises writing executable computer instructions in the form of a scripting language. - selecting an object; - specifying, through behavioral code, behavior the object is to exhibit when a particular event is performed on the object; and - storing the behavioral code in a data structure associated with the object; wherein said step of specifying behavior is performed while the application software is running,
A razor cartridge (100, 110) comprising: a blade housing; and a plurality of blades (10a-e) comprising a first blade and a second blade, wherein a thickness of an edge portion of the first blade is less than a thickness of an edge portion of the second blade, and wherein a first span for the first blade is less than a second span for the second blade. a blade housing; and a plurality of blades (10a-e) comprising a first blade and a second blade, wherein a thickness of an edge portion of the first blade is less than a thickness of an edge portion of the second blade, and wherein a first span for the first blade is less than a second span for the second blade.
A method for performing predictive maintenance of an amplifier module, with the following steps: - Acquiring at least one parameter of at least one amplifier module via a measurement data acquisition unit, and - Analyzing the at least one parameter acquired via a measurement data analyzing unit, wherein the probability and/or time of default of the at least one amplifier module is predicted by taking at least one parameter of the amplifier module into account that has been acquired previously so that a predictive maintenance for the amplifier module is provided, wherein the at least one parameter is a transistor parameter directly assigned to a transistor of the amplifier module, wherein the transistor parameter is an input level, a drain current and/or a gate current, wherein a model and/or a look-up table based on stored empirical data is used that predicts the probability and/or time of default by taking the actual operating hours of the amplifier module into account, and wherein a notification is output when the analysis yields an upcoming default so as to inform the user of the system with regard to the upcoming failure of the amplifier module as well as the remaining time and/or the probability of the upcoming failure. - Acquiring at least one parameter of at least one amplifier module via a measurement data acquisition unit, and - Analyzing the at least one parameter acquired via a measurement data analyzing unit, wherein the probability and/or time of default of the at least one amplifier module is predicted by taking at least one parameter of the amplifier module into account that has been acquired previously so that a predictive maintenance for the amplifier module is provided, wherein the at least one parameter is a transistor parameter directly assigned to a transistor of the amplifier module, wherein the transistor parameter is an input level, a drain current and/or a gate current, wherein a model and/or a look-up table based on stored empirical data is used that predicts the probability and/or time of default by taking the actual operating hours of the amplifier module into account, and wherein a notification is output when the analysis yields an upcoming default so as to inform the user of the system with regard to the upcoming failure of the amplifier module as well as the remaining time and/or the probability of the upcoming failure.
A nail comprising: a head; a penetrating tip; a shank extending from the head to the penetrating tip and having a circumference and a longitudinal axis (A10, A110, A210, A310, A410); a plurality of spiral pattern rows of deformations in the shank extending outwardly of the shank, the rows formed configured to impart a rotating motion to the nail as the nail is driven into a substrate, the deformation including an inwardly tapered leading end (18, 118, 218, 318, 418, 518) and an interference face trailing end (20, 120, 220, 320, 420, 520) to provide a resistance to withdrawal of the nail after being driven into the substrate, wherein the deformations are formed as teeth extending outwardly from the shank, characterized in that the teeth abut and do not overlap one another at adjacent leading ends (18, 118, 218, 318, 418, 518) and trailing ends (20, 120, 220, 320, 420, 520). a head; a penetrating tip; a shank extending from the head to the penetrating tip and having a circumference and a longitudinal axis (A10, A110, A210, A310, A410); a plurality of spiral pattern rows of deformations in the shank extending outwardly of the shank, the rows formed configured to impart a rotating motion to the nail as the nail is driven into a substrate, the deformation including an inwardly tapered leading end (18, 118, 218, 318, 418, 518) and an interference face trailing end (20, 120, 220, 320, 420, 520) to provide a resistance to withdrawal of the nail after being driven into the substrate, wherein the deformations are formed as teeth extending outwardly from the shank, characterized in that the teeth abut and do not overlap one another at adjacent leading ends (18, 118, 218, 318, 418, 518) and trailing ends (20, 120, 220, 320, 420, 520).
Print head for parallel extrusion of printing medium, especially for the production of conductor tracks, having a printing medium inlet for the printing medium, which inlet is in fluid-conducting communication with a plurality of discharge openings of the print head, for simultaneous discharge of printing medium from the discharge openings, and having an expansion element which is arranged in the flow path of the printing medium between printing medium inlet and discharge openings in order to expand the flow cross-section in the flow direction of the printing medium to an aspect ratio of at least 3:1, wherein the print head has a base unit having the printing medium inlet and the expansion element, and a discharge unit which is detachably arranged on the base unit, the discharge unit having the plurality of discharge openings and at least one discharge filter for the printing medium, wherein in the operating state, with the discharge unit arranged on the base unit, the discharge filter is arranged in the flow path of the printing medium between printing medium inlet and discharge openings, characterised in that the print head has a base filter and/or a pre-filter, the base filter being arranged on the base unit in such a way that in the operating state the base filter is arranged in the flow path of the printing medium between printing medium inlet and discharge filter, the pre-filter being arranged on the discharge unit in such a way that in the operating state the pre-filter is arranged in the flow path of the printing medium before the discharge filter. having a printing medium inlet for the printing medium, which inlet is in fluid-conducting communication with a plurality of discharge openings of the print head, for simultaneous discharge of printing medium from the discharge openings, and having an expansion element which is arranged in the flow path of the printing medium between printing medium inlet and discharge openings in order to expand the flow cross-section in the flow direction of the printing medium to an aspect ratio of at least 3:1, wherein the print head has a base unit having the printing medium inlet and the expansion element, and a discharge unit which is detachably arranged on the base unit, the discharge unit having the plurality of discharge openings and at least one discharge filter for the printing medium, wherein in the operating state, with the discharge unit arranged on the base unit, the discharge filter is arranged in the flow path of the printing medium between printing medium inlet and discharge openings, characterised in that the print head has a base filter and/or a pre-filter, the base filter being arranged on the base unit in such a way that in the operating state the base filter is arranged in the flow path of the printing medium between printing medium inlet and discharge filter, the pre-filter being arranged on the discharge unit in such a way that in the operating state the pre-filter is arranged in the flow path of the printing medium before the discharge filter.