mhurhangee/ep-ind-claims huggingface dataset:
Anchoring system with an anchoring rod, a locking device (5, 6, 7, 8, 13, 14, 15, 41) and a graduation for producing walls of a desired thickness, the graduation being formed by a plurality of grooves and/or a plurality of bores on or in the anchoring rod, wherein the anchoring system comprises an adjusting member that can be screwed onto an anchoring rod end and a cotter pin or a stop, wherein the adjusting member can be positioned in accordance with the graduation with the cotter pin or the stop, and the anchoring system has a sleeve with a threaded portion and a securing nut that can be screwed onto the threaded portion, wherein screwing the securing nut onto the threaded portion causes a flange of the securing nut to be moved against a flange of the adjusting member.
A method of preparing a flavored beverage using a concentrated acidic liquid flavoring without causing curdling in the flavored beverage, the method comprising: dispensing a jet of concentrated acidic liquid flavoring into a dairy-containing beverage from a container having a nozzle, the nozzle configured to provide a mass flow between 1.0 g/s and 5 g/s and, more preferably between 1.0 g/s and 1.5 g/s, to rapidly mix the concentrated acidic liquid flavoring with the dairy-containing beverage, wherein the concentrated acidic liquid flavoring has a reduced pH and comprises: about 10 to about 45 percent water; about 3 to about 40 percent flavor component; and less than about 2.0 percent acidulant, the amount of acidulant effective to provide the concentrated liquid flavoring with a pH of about 3.8 to about 4.5. dispensing a jet of concentrated acidic liquid flavoring into a dairy-containing beverage from a container having a nozzle, the nozzle configured to provide a mass flow between 1.0 g/s and 5 g/s and, more preferably between 1.0 g/s and 1.5 g/s, to rapidly mix the concentrated acidic liquid flavoring with the dairy-containing beverage, wherein the concentrated acidic liquid flavoring has a reduced pH and comprises: about 10 to about 45 percent water; about 3 to about 40 percent flavor component; and less than about 2.0 percent acidulant, the amount of acidulant effective to provide the concentrated liquid flavoring with a pH of about 3.8 to about 4.5. about 10 to about 45 percent water; about 3 to about 40 percent flavor component; and less than about 2.0 percent acidulant, the amount of acidulant effective to provide the concentrated liquid flavoring with a pH of about 3.8 to about 4.5.
Window blind for mounting to the outside of a window, the window blind comprising slats and a frame with a control device for adjusting the position of the slats, wherein the frame further comprises two vertical parallel mirror-symmetrical guide rails and pulling means, wherein the slats are arranged between said guide rails, wherein each of said guide rails is provided with a side chain slot, a central cam slot and a driving worm, wherein the pulling means are accommodated in each slot (9, 10), wherein the pulling means comprise a chain with links (17, 18) and control arms for positioning of the slats, each control arm comprising a respective cam, wherein there is a space in each guide rail for the links of the chain and for the cams of the control arms, wherein each slat is fixed to a respective control arm, wherein perpendicular lateral slots protrude from the central cam slot at regular intervals and two flexible little sheets (7, 8) are arranged opposite to each lateral slot, wherein each flexible little sheet (7, 8) comprises a fixing part, a press arm (30, 30') and a stop, each flexible little sheet (7, 8) being fixed by its fixing part in the base of the respective guide rail, the press arms (30, 30') being preloaded towards the bottom surface of the central cam slot and being oriented with their stops facing each other, wherein each control arm is placed in the central cam slot through a cam pin of the respective cam, wherein each control arm comprises two fingers, at least one of the fingers is provided at its end with at least one opening for a chain connecting pin which connects the chain links (17, 18) and which connects the respective control arm with the chain links (17, 18), wherein each cam is provided with two wedge sectors whose thickness decreases from the upper to the lower surface of the cam and one rectangular flat sector of the full thickness of the cam, whereby the wedge sectors are oriented against the fingers of the control arm, wherein each driving worm is arranged on the side of each of the guide rails for engagement with a respective chain connecting pin.
Power distribution system for a railbound vehicle, comprising: - a switching module, - a DC distribution bus included in a DC power path and - a power electronic traction converter unit for receiving AC power via one or more AC power paths which is configured to convert the received AC power to DC power which is applied to the DC distribution bus, wherein the switching module comprising: - an input terminal for receiving power from an external power supply; - reconfiguration switches (24, 25) configured either to direct DC power of the external power supply received via the input terminal to the DC power path or to direct AC power of the external power supply received via the input terminal to a respective one of one or more AC power paths; and - an adaptation element for providing AC and DC filtering of the power received via the input terminal, wherein the switching module feeds the DC power directly to the DC distribution bus or to the power electronic traction converter unit 13 via an AC link and wherein the adaptation element includes a plurality of chokes (31, 32, 34) each providing an inductivity, characterized in that, the input terminal is connected to an AC/DC choke and an AC choke in series, wherein a node between the AC/DC choke and the AC choke is connectable to the DC power path via a respective one of the reconfiguration switches (24, 25). - a switching module, - a DC distribution bus included in a DC power path and - a power electronic traction converter unit for receiving AC power via one or more AC power paths which is configured to convert the received AC power to DC power which is applied to the DC distribution bus, wherein the switching module comprising: - an input terminal for receiving power from an external power supply; - reconfiguration switches (24, 25) configured either to direct DC power of the external power supply received via the input terminal to the DC power path or to direct AC power of the external power supply received via the input terminal to a respective one of one or more AC power paths; and - an adaptation element for providing AC and DC filtering of the power received via the input terminal,
Single-shell spring control arm, formed from sheet steel, for a wheel suspension of a motor vehicle, comprising a first end portion (1.1) for attaching to a chassis beam, preferably a rear axle beam, a second end portion (1.2) for attaching on the wheel-side and an increased-width portion (1.3) which is arranged between the two end portions (1.1, 1.2), and which comprises a spine (1.33) having flanks (1.31,1.32) projecting therefrom and which defines a spring seat (1.34) for supporting a spring, characterised in that inwardly deformed surface parts (1.311,1.321) are formed on the flanks (1.31,1.32), the longitudinal edges (1.312, 1.322) of which surface parts are spaced apart from one another along their entire length so that the increased-width portion (1.3) has a C-profile-shaped cross-sectional profile, and in that a connection portion (1.22) for attaching a shock absorber is formed between the spring seat (1.34) and the second end portion (1.2).
A method for preparing a printing form from a photopolymerizable element comprising: a) providing a photopolymerizable element comprising a layer of a composition comprising at least one elastomeric block copolymer having one or more non-elastomeric blocks and one or more elastomeric blocks of polybutadiene having 1,2-coupled units, an ethylenically unsaturated compound and a photoinitiator, wherein the composition layer is capable of being partially liquefied and wherein the element further comprises an actinic radiation opaque layer disposed thereon forming an in-situ mask on the element; b) imagewise exposing the photopolymerizable element to actinic radiation in the presence of atmospheric oxygen; c) heating the element of b) to a temperature sufficient to cause a portion of the layer to liquefy; and d) contacting an exterior surface of the photopolymerizable element with a development medium to allow at least a portion of the liquefied layer to be removed by the development medium; wherein the elastomeric block copolymer is at least 30% by weight, based on the total weight of the composition, and wherein the 1,2-coupled butadiene units comprise less than 15% by weight of the one or more polybutadiene blocks, wherein the composition further comprises a polydiene plasticizer having a vinyl content of greater than 60% by weight of the polydiene and wherein after step d) the photopolymerizable element has a relief surface that is textured, the method further comprising post-exposing the photopolymerizable element by overall exposing the relief surface to the actinic radiation. a) providing a photopolymerizable element comprising a layer of a composition comprising at least one elastomeric block copolymer having one or more non-elastomeric blocks and one or more elastomeric blocks of polybutadiene having 1,2-coupled units, an ethylenically unsaturated compound and a photoinitiator, wherein the composition layer is capable of being partially liquefied and wherein the element further comprises an actinic radiation opaque layer disposed thereon forming an in-situ mask on the element; b) imagewise exposing the photopolymerizable element to actinic radiation in the presence of atmospheric oxygen; c) heating the element of b) to a temperature sufficient to cause a portion of the layer to liquefy; and d) contacting an exterior surface of the photopolymerizable element with a development medium to allow at least a portion of the liquefied layer to be removed by the development medium;
A method of wireless communication, comprising: generating a user equipment-specific reference signal sequence; generating a cell-specific reference signal sequence; mapping the user equipment-specific reference signal sequence to resources of a wireless channel as a function of an identifier, ID, of a cell, wherein the function provides a shift in frequency based on the cell ID for mapping the sequence to the resources of the wireless channel; and mapping the cell-specific reference signal sequence to second resources of the wireless channel as a second function of the cell identifier, wherein the second function provides a second shift in frequency based on the cell identifier for mapping the cell-specific reference signal sequence to the second resources of the wireless channel, wherein the first function is different from the second function. generating a user equipment-specific reference signal sequence; generating a cell-specific reference signal sequence; mapping the user equipment-specific reference signal sequence to resources of a wireless channel as a function of an identifier, ID, of a cell, wherein the function provides a shift in frequency based on the cell ID for mapping the sequence to the resources of the wireless channel; and mapping the cell-specific reference signal sequence to second resources of the wireless channel as a second function of the cell identifier, wherein the second function provides a second shift in frequency based on the cell identifier for mapping the cell-specific reference signal sequence to the second resources of the wireless channel, wherein the first function is different from the second function.
An optical fiber cable (i) that does not use a slotted rod, the optical fiber cable (i) comprising: a cable core at a central portion of optical fiber cable (i) comprising a core part and a wrapping tape, which is longitudinally wound around an outer circumference of the core part, wherein the core part is formed by an assembly of a plurality of the optical fiber units, each of the optical fiber units formed of optical fibers being twisted together; a tension member that is disposed outside the cable core; and a jacket (13,) that is provided on an outer circumference of the cable core and the tension member; wherein the core part and the wrapping tape of the cable core are twisted in a same direction at substantially a same pitch; and wherein a wrap part of the wrapping tape is disposed helically to a longitudinal direction of the cable core. a cable core at a central portion of optical fiber cable (i) comprising a core part and a wrapping tape, which is longitudinally wound around an outer circumference of the core part, wherein the core part is formed by an assembly of a plurality of the optical fiber units, each of the optical fiber units formed of optical fibers being twisted together; a tension member that is disposed outside the cable core; and a jacket (13,) that is provided on an outer circumference of the cable core and the tension member; wherein the core part and the wrapping tape of the cable core are twisted in a same direction at substantially a same pitch; and wherein a wrap part of the wrapping tape is disposed helically to a longitudinal direction of the cable core.
A composition for use in diagnosis, the composition comprising: a metal ion containing compound that comprises at least one iron metal ion and one or more metal ion chelating agents; said one or more metal ion chelating agents comprise at least one first chelating agent comprising curcumin, and at least one second chelating agent comprising oxalate; the iron metal ion binds with said first chelating agent comprising curcumin and said second chelating agent comprising oxalate to form an iron metal ion - curcumin - oxalate complex particle.
A method of severing a tubular within a wellbore comprising: disposing a cutting tool having a cutting member within the wellbore; injecting a lubricant between the cutting member and the inner surface of the tubular; and injecting an isolation material adjacent the lubricant thereby selectively retaining the lubricant between the cutting member and the inner surface; and cutting said tubular within said wellbore. disposing a cutting tool having a cutting member within the wellbore; injecting a lubricant between the cutting member and the inner surface of the tubular; and injecting an isolation material adjacent the lubricant thereby selectively retaining the lubricant between the cutting member and the inner surface; and cutting said tubular within said wellbore.
A device for X-ray analysis of a sample, comprising: ▪ a generation means for the generation of an X-ray beam to irradiate an analysis zone of the sample, said analysis zone defining an analysis mean plane, and the X-ray beam being emitted along a direction of incidence, ▪ a detection means for the detection, in at least one dimension, of X-rays diffracted by the irradiated analysis zone, ▪ an analyser system located between the sample and the detection means, wherein the analyser system comprises a X-ray diffracting surface forming a partial surface of revolution about an axis of revolution intended to be contained in the analysis mean plane, with the axis of revolution being distinct from the direction of incidence and passing through the centre of the analysis zone, and with the diffracting surface being oriented so as to diffract the X-rays toward the detection means, characterized in that the detection means comprises a curved detection surface forming a partial cylindrical surface having an axis of revolution, called detection axis of revolution, and in that the axis of revolution is the same as the detection axis of revolution. ▪ a generation means for the generation of an X-ray beam to irradiate an analysis zone of the sample, said analysis zone defining an analysis mean plane, and the X-ray beam being emitted along a direction of incidence, ▪ a detection means for the detection, in at least one dimension, of X-rays diffracted by the irradiated analysis zone, ▪ an analyser system located between the sample and the detection means,
A terminal apparatus comprises a wireless circuit and a radio resource control circuit, the terminal apparatus communicating with a base station apparatus by carrier aggregation using a plurality of serving cells, each of the plurality of serving cells having a different frequency, wherein the terminal apparatus is characterized in that the wireless circuit is configured to and/or programmed to: receive, from the base station apparatus, a configuration message including a measurement configuration, wherein the measurement configuration includes a measurement object and a reporting configuration, the measurement object and the reporting configuration are linked by a measurement identity, the measurement object indicates a measurement frequency, the reporting configuration includes a criterion related to event triggered reporting of measurements, the event triggered reporting is triggered based on evaluation of the criteria relating to an event, and the event is related to a serving cell of the plurality of serving cells; and the radio resource control circuit is configured to and/or programmed to: delete, in response to a removal of the serving cell of the plurality of serving cells, the measurement identity relevant to the removed serving cell. receive, from the base station apparatus, a configuration message including a measurement configuration, wherein the measurement configuration includes a measurement object and a reporting configuration, the measurement object and the reporting configuration are linked by a measurement identity, the measurement object indicates a measurement frequency, the reporting configuration includes a criterion related to event triggered reporting of measurements, the event triggered reporting is triggered based on evaluation of the criteria relating to an event, and the event is related to a serving cell of the plurality of serving cells; and delete, in response to a removal of the serving cell of the plurality of serving cells, the measurement identity relevant to the removed serving cell.
A medicated module attachable to a drug delivery device comprising a primary reservoir of a first medicament, said medicated module comprising: a connecting body configured for attachment to said drug delivery device; a proximal first needle fixed within said module; a secondary reservoir comprising a capsule containing at least one dose of a second medicament located distally from said first needle; a second needle which is fixed within said module for injection of said second medicament and accommodated distally from the reservoir; and a needle guard operatively coupled to said module; and a biasing element positioned to bias said needle guard; wherein said reservoir is configured for fluid communication with said first and said second needle; and an outer body, characterized in that the second needle is fixed within the outer body and in that the outer body is movable between a first position, wherein in the first position the first needle and the second needle are not in fluid communication with the secondary reservoir, and a second position; and when said outer body is moved from the first position to the second position, said first needle penetrates a first pierceable seal of the capsule and said second needle penetrates a second pierceable seal of the capsule such that the second needle is in fluid communication with the secondary reservoir and the first needle in the second position. a connecting body configured for attachment to said drug delivery device; a proximal first needle fixed within said module; a secondary reservoir comprising a capsule containing at least one dose of a second medicament located distally from said first needle; a second needle which is fixed within said module for injection of said second medicament and accommodated distally from the reservoir; and a needle guard operatively coupled to said module; and a biasing element positioned to bias said needle guard; wherein said reservoir is configured for fluid communication with said first and said second needle; and an outer body, characterized in that the second needle is fixed within the outer body and in that the outer body is movable between a first position, wherein in the first position the first needle and the second needle are not in fluid communication with the secondary reservoir, and a second position; and when said outer body is moved from the first position to the second position, said first needle penetrates a first pierceable seal of the capsule and said second needle penetrates a second pierceable seal of the capsule such that the second needle is in fluid communication with the secondary reservoir and the first needle in the second position.
An apparatus comprising: at least one memory (604, 610, 612) configured to store a virtualization (300, 400) associated with a programming and test platform (100, 200) and a munition, the virtualization (300, 400) including: a virtual machine (304, 404) containing first software or firmware instructions (310, 410) associated with the programming and test platform (100, 200) and second software or firmware instructions (308, 408) that control behavior of the programming and test platform (100, 200) relative to the munition; a virtual representation (312, 418) of the munition; and one or more virtual communication channels (316, 416) configured to communicatively couple the virtual machine (304, 404) and the virtual representation (312, 418) of the munition; and at least one processor configured to execute the virtualization (300, 400) and simulate the operation of the programming and test platform (100, 200) with the munition on the apparatus. at least one memory (604, 610, 612) configured to store a virtualization (300, 400) associated with a programming and test platform (100, 200) and a munition, the virtualization (300, 400) including: a virtual machine (304, 404) containing first software or firmware instructions (310, 410) associated with the programming and test platform (100, 200) and second software or firmware instructions (308, 408) that control behavior of the programming and test platform (100, 200) relative to the munition; a virtual representation (312, 418) of the munition; and one or more virtual communication channels (316, 416) configured to communicatively couple the virtual machine (304, 404) and the virtual representation (312, 418) of the munition; and a virtual machine (304, 404) containing first software or firmware instructions (310, 410) associated with the programming and test platform (100, 200) and second software or firmware instructions (308, 408) that control behavior of the programming and test platform (100, 200) relative to the munition; a virtual representation (312, 418) of the munition; and one or more virtual communication channels (316, 416) configured to communicatively couple the virtual machine (304, 404) and the virtual representation (312, 418) of the munition; and at least one processor configured to execute the virtualization (300, 400) and simulate the operation of the programming and test platform (100, 200) with the munition on the apparatus.