mhurhangee/ep-ind-claims huggingface dataset:
Test device (100, 200) for analyzing data communication of an electronic device (101, 201), the test device (100, 200) comprising: a protocol analyzer (109, 209) configured to analyze a protocol conformance of data to an application protocol, characterized by a data encoder (104, 204) configured to encode outgoing data (103, 203) according to a predefined physical protocol and output a respective outgoing physical signal (105, 205) to the electronic device (101, 201), a data analyzer (106, 206) configured to receive an incoming physical signal (107, 207) from the electronic device (101, 201) and provide incoming data (108, 208) encoded in the incoming physical signal (107, 207), and a protocol emulator (102, 202) that is coupled to the data encoder (104, 204) and the data analyzer (106, 206) and that is configured to generate the outgoing data (103, 203) and decode the incoming data (108, 208) according to a predetermined application protocol, wherein the protocol analyzer (109, 209) is coupled to the protocol emulator (102, 202) and is configured to analyze the protocol conformance of the incoming data (108, 208) to the predefined application protocol. a protocol analyzer (109, 209) configured to analyze a protocol conformance of data to an application protocol, characterized by a data encoder (104, 204) configured to encode outgoing data (103, 203) according to a predefined physical protocol and output a respective outgoing physical signal (105, 205) to the electronic device (101, 201), a data analyzer (106, 206) configured to receive an incoming physical signal (107, 207) from the electronic device (101, 201) and provide incoming data (108, 208) encoded in the incoming physical signal (107, 207), and a protocol emulator (102, 202) that is coupled to the data encoder (104, 204) and the data analyzer (106, 206) and that is configured to generate the outgoing data (103, 203) and decode the incoming data (108, 208) according to a predetermined application protocol, wherein the protocol analyzer (109, 209) is coupled to the protocol emulator (102, 202) and is configured to analyze the protocol conformance of the incoming data (108, 208) to the predefined application protocol.
Cosmetic formulation comprising at least one methionyl-methionine stereoisomer selected from the group D-methionyl-L-methionine, L-methionyl-D-methionine and D-methionyl-D-methionine, characterized in that it has a weight ratio of DL- and LD-methionyl-methionine to DD- and LL-methionyl-methionine of 9:1 to 3:2.
Capsule (1, 11, 41) for preparing beverages, comprising: - a closed housing (2, 12, 22, 32, 42) which is at least partly filled with a substance to be extracted and/or to be dissolved, such as ground coffee, for preparing a beverage, in which the housing (2, 12, 22, 32, 42) is closed, in which the housing (2, 12, 22, 32, 42) is at least defined by a peripheral wall (3, 13, 23, 33, 43), an end side connected to the peripheral wall (3, 13, 23, 33, 43), and a laterally projecting engagement edge (4, 14, 24, 34, 44) which is connected to the peripheral wall (3, 13, 23, 33, 43) at a distance from the end side for enabling the capsule (1, 11, 41) to be clamped in a capsule holder of a device for preparing beverages; and - at least one closed closing element (8, 18) which is connected to the laterally projecting engagement edge (4, 14, 24, 34, 44) for enclosing the substance in the capsule (1, 11, 41) in a preserving manner, characterized in that the capsule (1, 11, 41) is completely compostable, and in that the housing (2, 12, 22, 32, 42) comprises at least one barrier layer (7, 17, 27, 37), which barrier layer (7, 17, 27, 37) is impermeable to oxygen, and in that the housing (2, 12, 22, 32, 42) comprises at least one material layer (5, 6, 15, 16, 25, 26, 35) surrounding the barrier layer (7, 17, 27, 37), and in that the at least one surrounding material (5, 6, 15, 16, 25, 26, 35) completely protects the barrier layer (7, 17, 27, 37) from the atmosphere surrounding the capsule (1, 11, 41). - a closed housing (2, 12, 22, 32, 42) which is at least partly filled with a substance to be extracted and/or to be dissolved, such as ground coffee, for preparing a beverage, in which the housing (2, 12, 22, 32, 42) is closed, in which the housing (2, 12, 22, 32, 42) is at least defined by a peripheral wall (3, 13, 23, 33, 43), an end side connected to the peripheral wall (3, 13, 23, 33, 43), and a laterally projecting engagement edge (4, 14, 24, 34, 44) which is connected to the peripheral wall (3, 13, 23, 33, 43) at a distance from the end side for enabling the capsule (1, 11, 41) to be clamped in a capsule holder of a device for preparing beverages; and - at least one closed closing element (8, 18) which is connected to the laterally projecting engagement edge (4, 14, 24, 34, 44) for enclosing the substance in the capsule (1, 11, 41) in a preserving manner,
A method at a network node in a wireless communication network, for dynamically controlling a Transmission Time Interval, "TTI", bundle size used by a wireless device for a bundled transmission by the wireless device, the method comprising: determining a desired TTI bundle size to be used by the wireless device for the bundled transmission; selecting a signaling option to be used for triggering the bundled transmission by the wireless device, based on the desired TTI bundle size and a defined mapping between different signaling options among a number of signaling options and different TTI bundle sizes in a defined set of TTI bundle sizes, wherein the defined mapping is known at the network node and at the wireless device, and characterised in that selecting the signaling option includes choosing which Redundancy Version Indicator, "RVI", value to include in an uplink scheduling grant used for triggering the bundled transmission, wherein different RVI values indicate different TTI bundle sizes, according to the defined mapping; and indicating the desired TTI bundle size to the wireless device by triggering the bundled transmission using the selected signaling option. determining a desired TTI bundle size to be used by the wireless device for the bundled transmission; selecting a signaling option to be used for triggering the bundled transmission by the wireless device, based on the desired TTI bundle size and a defined mapping between different signaling options among a number of signaling options and different TTI bundle sizes in a defined set of TTI bundle sizes, wherein the defined mapping is known at the network node and at the wireless device, and characterised in that selecting the signaling option includes choosing which Redundancy Version Indicator, "RVI", value to include in an uplink scheduling grant used for triggering the bundled transmission, wherein different RVI values indicate different TTI bundle sizes, according to the defined mapping; and indicating the desired TTI bundle size to the wireless device by triggering the bundled transmission using the selected signaling option.
A reception device comprising: - a content reception unit (101, 103) configured to receive encrypted content; - an interface unit configured to transmit the received encrypted content to a conditional access module and configured to receive from the conditional access module content decrypted by the conditional access module, wherein a) a digital watermark is embedded by the conditional access module either i) into intra-frames of the video encoded content or ii) into intra-frames of the video encoded content and other frames of the video encoded content or b) information to create a digital watermark, said information comprising information identifying the conditional access module, is embedded by the conditional access module into the decrypted content; and - a content output unit configured to output the decrypted content and to embed the digital watermark in the decrypted content before it is output, if information to create a digital watermark has been embedded by the conditional access module into the decrypted content. - a content reception unit (101, 103) configured to receive encrypted content; - an interface unit configured to transmit the received encrypted content to a conditional access module and configured to receive from the conditional access module content decrypted by the conditional access module, wherein a) a digital watermark is embedded by the conditional access module either i) into intra-frames of the video encoded content or ii) into intra-frames of the video encoded content and other frames of the video encoded content or b) information to create a digital watermark, said information comprising information identifying the conditional access module, is embedded by the conditional access module into the decrypted content; and a) a digital watermark is embedded by the conditional access module either i) into intra-frames of the video encoded content or ii) into intra-frames of the video encoded content and other frames of the video encoded content or b) information to create a digital watermark, said information comprising information identifying the conditional access module, is embedded by the conditional access module into the decrypted content; and - a content output unit configured to output the decrypted content and to embed the digital watermark in the decrypted content before it is output, if information to create a digital watermark has been embedded by the conditional access module into the decrypted content.
A method for operating a local area data network comprising a plurality of network nodes (Ni), wherein the network nodes (Ni) can direct requests into the data network using query values (Ki), and a unique identifier from a key space is assigned to each of the network nodes (Ni), in which method: a) one or more table entries from a value table distributed to the network nodes (Ni) are assigned to each of a plurality of network nodes (Ni), each table entry comprising a query value (Ki) from the key space and data allocated to the query value (Ki), and the network node (Ni) being responsible for a query value (Ki), the identifier of which is less than or equal to the query value (Ki); b) for each of the plurality of network nodes (Ni), the frequency with which requests for the query values assigned to a respective network node (Ni) are directed to the respective network node (Ni) is monitored, c) and if it is ascertained in step b) that the frequency of the requests for one or more query values to a respective network node (Ni) exceeds a predetermined threshold value, at least the table entry or entries for this or these query values are assigned to at least one other network node (Ni) which is situated in a request path for the request. a) one or more table entries from a value table distributed to the network nodes (Ni) are assigned to each of a plurality of network nodes (Ni), each table entry comprising a query value (Ki) from the key space and data allocated to the query value (Ki), and the network node (Ni) being responsible for a query value (Ki), the identifier of which is less than or equal to the query value (Ki); b) for each of the plurality of network nodes (Ni), the frequency with which requests for the query values assigned to a respective network node (Ni) are directed to the respective network node (Ni) is monitored, c) and if it is ascertained in step b) that the frequency of the requests for one or more query values to a respective network node (Ni) exceeds a predetermined threshold value, at least the table entry or entries for this or these query values are assigned to at least one other network node (Ni) which is situated in a request path for the request.
Accommodating device for a removable filter, which is disposed in a process air duct of a domestic appliance, with an accommodating opening to at least partly accommodate the filter and with a seal which, with the filter inserted, seals the accommodating opening in relation to the filter, characterised in that the seal is disposed on the accommodating opening side and has at least one sealing element which, during removal of the filter, passes from a sealing operating position into a screening position, in which it surrounds at least one part of the accommodating opening in the manner of a screen, so that lint, hair or other contaminations or small items to be handled in the domestic appliance are securely prevented from falling into the accommodating opening.
A trunk piston engine lubricating oil composition comprising: (a) a major amount of a basestock selected from the group consisting of at least one Group III basestock, at least one Group IV basestock and mixtures thereof; (b) at least one detergent additive; and (c) at least one dispersant additive; wherein the concentration of the at least one dispersant additive in the trunk piston engine lubricating oil composition is at least 0.1 wt. % on an actives basis, based on the total weight of the lubricating oil composition; wherein the trunk piston engine lubricating oil composition has a total base number of at least 12 measured according to ASTM D2896; and wherein the at least one detergent additive comprises at least one salt of an alkyl-substituted hydroxybenzoic acid. (a) a major amount of a basestock selected from the group consisting of at least one Group III basestock, at least one Group IV basestock and mixtures thereof; (b) at least one detergent additive; and (c) at least one dispersant additive;
Valve with a housing, a solenoid which is arranged in the housing, a pin which can be moved by the solenoid, and a piston which is connected to the pin, a second housing part being provided which bears against the housing and partially surrounds the piston, and a seal for sealing the valve, characterized in that the second housing part is composed of metal, in that the second housing part is a deep-drawn part, in that the seal which seals the valve is arranged on its side which faces the housing, in that the second housing part has a radially outwardly projecting edge on its side which faces the housing, in that the seal is arranged on the edge, by the seal surrounding at least one region of the edge, and in that the edge has recesses and the seal penetrates these recesses.
A processor-implemented method for adjustable depth anatomical shell editing, the method comprising: outputting, to a display device, an anatomical shell of a cardiac structure, the cardiac structure comprising a heart chamber, wherein the anatomical shell (400A, 400B) is based on a plurality of electrical signals sensed by one or more electrodes of a mapping probe; receiving, from a user input device, a selection of a region of the surface of the anatomical shell (400A, 400B); generating a modified anatomical shell (500A, 500B) by removing a portion of the anatomical shell (400A, 400B) and generating a new surface region on the modified anatomical shell (500A, 500B), the removed portion of the anatomical shell (400A, 400B) comprising the selected region of the surface and extending inward from the surface to an editing depth below the surface, the editing depth comprising at least one finite depth, and wherein the new surface region corresponds to the selected region disposed at the editing depth and comprises at least one electrical signal of the plurality of electrical signals sensed below an endocardium surface inside the heart chamber of the cardiac structure at the editing depth; and outputting, to the display device, the modified anatomical shell (500A, 500B). outputting, to a display device, an anatomical shell of a cardiac structure, the cardiac structure comprising a heart chamber, wherein the anatomical shell (400A, 400B) is based on a plurality of electrical signals sensed by one or more electrodes of a mapping probe; receiving, from a user input device, a selection of a region of the surface of the anatomical shell (400A, 400B); generating a modified anatomical shell (500A, 500B) by removing a portion of the anatomical shell (400A, 400B) and generating a new surface region on the modified anatomical shell (500A, 500B), the removed portion of the anatomical shell (400A, 400B) comprising the selected region of the surface and extending inward from the surface to an editing depth below the surface, the editing depth comprising at least one finite depth, and wherein the new surface region corresponds to the selected region disposed at the editing depth and comprises at least one electrical signal of the plurality of electrical signals sensed below an endocardium surface inside the heart chamber of the cardiac structure at the editing depth; and outputting, to the display device, the modified anatomical shell (500A, 500B).
An apparatus comprising: a) an assay unit comprising: a packed bed; porous bed supports mounted in the assay unit at opposite ends of the packed bed; solid phase support beads located in the packed bed and having a selective- binding or reaction reagent mounted on their surface; an outlet from the assay unit having an outer perimeter and located below the packed bed; an inlet sealing surface located above and adjacent to the packed bed, wherein the outer perimeter of the outlet from the assay unit is dimensioned to form a fluid-tight, friction seal with the inlet sealing surface when two assay units are nested; an upper section; the apparatus further comprising: b) a multi-function probe comprising: a hub; a needle with a lumen disposed within the hub and extending from it; wherein the upper section of the assay unit is dimensioned to form a vented friction contact with the hub of the probe, and wherein the needle is dimensioned and configured to aspirate and dispense liquid directly and to form a fluid-tight liquid seal with the inlet sealing surface of the assay unit. a) an assay unit comprising: a packed bed; porous bed supports mounted in the assay unit at opposite ends of the packed bed; solid phase support beads located in the packed bed and having a selective- binding or reaction reagent mounted on their surface; an outlet from the assay unit having an outer perimeter and located below the packed bed; an inlet sealing surface located above and adjacent to the packed bed, wherein the outer perimeter of the outlet from the assay unit is dimensioned to form a fluid-tight, friction seal with the inlet sealing surface when two assay units are nested; an upper section; the apparatus further comprising: a packed bed; porous bed supports mounted in the assay unit at opposite ends of the packed bed; solid phase support beads located in the packed bed and having a selective- binding or reaction reagent mounted on their surface; an outlet from the assay unit having an outer perimeter and located below the packed bed; an inlet sealing surface located above and adjacent to the packed bed, wherein the outer perimeter of the outlet from the assay unit is dimensioned to form a fluid-tight, friction seal with the inlet sealing surface when two assay units are nested; an upper section; the apparatus further comprising: b) a multi-function probe comprising: a hub; a needle with a lumen disposed within the hub and extending from it; wherein the upper section of the assay unit is dimensioned to form a vented friction contact with the hub of the probe, and wherein the needle is dimensioned and configured to aspirate and dispense liquid directly and to form a fluid-tight liquid seal with the inlet sealing surface of the assay unit. a hub; a needle with a lumen disposed within the hub and extending from it; wherein the upper section of the assay unit is dimensioned to form a vented friction contact with the hub of the probe, and wherein the needle is dimensioned and configured to aspirate and dispense liquid directly and to form a fluid-tight liquid seal with the inlet sealing surface of the assay unit.
A conveyor arrangement for conveying containers in a container treatment system, comprising a conveyor track, at least one conveyor element (100; 200-1 - 200-3; 300-1, 300-2; 400-1 - 400-12; 800a, 800b) movably arranged on the conveyor track and used for conveying one or a plurality of containers, a conveyor element servicing device (270; 370; 470) connected to the conveyor track, an open-loop and/or closed-loop control unit, and an examination device, wherein the conveyor track and the conveyor element are configured such that the conveyor element can be guided along the conveyor track in an individually controllable manner by means of the open-loop and/or closed-loop control unit, wherein the open-loop and/or closed-loop control unit is configured to supply the conveyor element to the servicing device (270; 370; 470) depending on at least one state parameter of the conveyor element, wherein the examination device is configured for determining the at least one state parameter of the conveyor element, and wherein the conveyor element (100; 200-1 - 200-3; 300-1, 300-2; 400-1 - 400-12; 800a, 800b) is supported on the conveyor track in an at least partially mechanical manner, characterized in that the at least one state parameter comprises a degree of wear of a bearing element of the conveyor element, wherein the examination device comprises a part of the conveyor track, which includes a plurality of interaction elements and a plurality of sensors, in particular magnetic field sensors, arranged along the conveyor track and used for determining a position of the conveyor element along the conveyor track, and a measurement device, and wherein the measurement device is configured for determining, by means of the interaction elements and/or sensors, a coefficient of friction for a movement of the conveyor element along the conveyor track.
A modified carbon material, characterized in that: the modified carbon material is used as a heat source of carbon-heated non-combustible cigarettes for reducing ignition temperature of a carbonaceous material, for increasing peak thermal power of a carbonaceous material and/or for reducing peak thermal power temperature of a carbonaceous material; the modified carbon material consists of a carbonaceous material and a water-insoluble modifier combined with the carbonaceous material; the modifier being CuO, the CuO is 1% by weight of the carbonaceous material; the carbonaceous material being carbon black; the modified carbon material is prepared by method comprising the following steps: soaking the carbonaceous material in a copper sulfate solution for from 5 to 36 h, the copper sulfate solution has a concentration of from 0.5 to 3 wt%; adding an alkali solution into the solution obtained in the step to provide a pH value ≥12, and after keeping the pH value for 0.5 to 2 h, filtering and drying to obtain a solid, the solid just being the modified carbon material; the alkali solution is a sodium hydroxide solution or a potassium hydroxide solution, with a concentration of from 1 to 50 wt%; the drying temperature is in the range from 80 to 95 °C.
Rail for conveying goods comprising a substantially U-shaped profile to support a plurality of rollers, each of the side walls of the aforesaid profile including a plurality of holes to receive the ends of the spindles of said rollers, said rollers being capable of rolling in respect of said profile in order to allow the conveying of said goods over the rail wherein said U-shaped profile is a profile made of an extruded polymer material characterised in that said rail 1 comprises means (5,6,7) for preventing the longitudinal displacement of the spindles of said rollers, inside said holes said means (5,6,7) comprising, for each end of said spindles, an upper portion of a side wall of said profile that is configured in the form of tab so that it can fold outwards over the ends of said spindles, sind tab being made of extruded polymer material, each of said tabs comprising means (6,7) for detachable joining to a lower portion of the same side wall, said detachable means (6,7) being able to secure the retracted position of each extruded tab when these act a stopper element by remaining folded over the ends of said spindle.