mhurhangee/ep-ind-claims huggingface dataset:
A steel for high heat input welding, characterized in that a composition of the steel comprises: C (carbon) 0.03 to 0.15 mass percent (mass%); Si (silicon) 0.05 to 0.25 mass%; Mn (manganese) 0.5 to 2.0 mass%; P (phosphorus) ≤ 0.01 mass%; S (sulfur) 0.0015 to 0.0030 mass%; Al (aluminium) 0.015 to 0.1 mass%; Ti (titanium) 0.004 to 0.03 mass%; N (nitrogen) 0.0020 to 0.0070 mass%; Ca (calcium) 0.0005 to 0.0030 mass%, B (boron) 0.0004 to 0.0010 mass %; and O (oxygen) ≤ 0.0045 mass %; wherein: individual contents of Ca, O (oxygen), and S satisfy the following expression, and the balance of the composition Fe (iron) and unavoidable impurities. 0.3 ≤ ACR ≤ 0.8 where ACR = (Ca - (0.18 + 130 x Ca) x O)/1.25/S, where Ca, O, and S each represent the content (mass%) thereof; and optionally comprising one or two or more selected from. V (vanadium) 0.2 mass% maximum; Cu (copper) 1.0 mass% maximum; Ni (nickel) 1.5 mass% maximum; Cr (chromium) 0.7 mass% maximum; Nb (niobium) 0.05 mass % maximum; and Mo (molybdenum) 0.7 mass% maximum. individual contents of Ca, O (oxygen), and S satisfy the following expression, and the balance of the composition Fe (iron) and unavoidable impurities. 0.3 ≤ ACR ≤ 0.8 where ACR = (Ca - (0.18 + 130 x Ca) x O)/1.25/S, where Ca, O, and S each represent the content (mass%) thereof; and optionally comprising one or two or more selected from. V (vanadium) 0.2 mass% maximum; Cu (copper) 1.0 mass% maximum; Ni (nickel) 1.5 mass% maximum; Cr (chromium) 0.7 mass% maximum; Nb (niobium) 0.05 mass % maximum; and Mo (molybdenum) 0.7 mass% maximum.
Method of operating a plant having a furnace comprising at least two vertical shafts connected by means of an overflow duct, wherein at least one burner is arranged above the overflow duct in each case such that the burner gases therefrom flow downward in burning operation of the respective shaft, and wherein a cooling gas supply is provided beneath the overflow duct in each case such that, in combination with the operation of a burner in the burner-operated shaft, the burner gas flowing downward is deflected in the direction of the overflow duct by the cooling gas ascending in the burner-operated shaft, characterized in that a supply of cooling gas is adjusted such that the temperature of the burner charge through which the burner gas flows at least in the burner-operated shaft is kept above the deacidification temperature thereof.
A serial communications bus system comprising a plurality of end users arranged to transmit data on a common data bus, each end user provided with a bus arbiter, physically separate from the respective end user, configured to define, for that end user, a cycle of transmission enable intervals whereby the end user may transmit data on the data bus and transmission disable intervals whereby the end user may not transmit data on the data bus; characterized in that the arbiter is configured to monitor data being transmitted on the data bus and to reset the cycle intervals in response to detection of a predetermined identifier in the data being transmitted.
A transportable unit comprising a lifting arrangement for lifting the unit, the lifting arrangement comprising: a first connector element comprising a projection, pin, branch or bar provided on a side wall of the unit and towards or at a top edge of the side wall, the position of the first connector element being fixed relative to the unit; and an elongate lifting member having a proximal end movably connected to the first connector element so as permit lowering and raising of a distal end of the elongate member relative to the proximal end. wherein the elongate lifting member hangs downwardly from the first connector element when the distal end is in a lowered position under its own weight such that the distal end of the elongate lifting member lies within reach of a user standing at or towards the base of the unit; and the first connector element is provided within an elongate groove or channel formed in the side wall of the unit, and the elongate member is suitably dimensioned to fit at least partially within the groove or channel. a first connector element comprising a projection, pin, branch or bar provided on a side wall of the unit and towards or at a top edge of the side wall, the position of the first connector element being fixed relative to the unit; and an elongate lifting member having a proximal end movably connected to the first connector element so as permit lowering and raising of a distal end of the elongate member relative to the proximal end. wherein the elongate lifting member hangs downwardly from the first connector element when the distal end is in a lowered position under its own weight such that the distal end of the elongate lifting member lies within reach of a user standing at or towards the base of the unit; and the first connector element is provided within an elongate groove or channel formed in the side wall of the unit, and the elongate member is suitably dimensioned to fit at least partially within the groove or channel.
A light emitting device comprising: a substrate; first and second electrodes (ELT1, ELT2) disposed on the substrate and spaced apart from each other; an insulating layer disposed on the substrate on which the first and the second electrodes (ELT1, ELT2) are formed, and including a groove extending in a first direction intersecting with the first and the second electrodes (ELT1, ELT2), and first and second contact portions (CNT1, CNT2) configured to respectively expose areas of the first and the second electrodes (ELT1, ELT2); a plurality of light emitting elements disposed on the groove and located between the first and the second electrodes (ELT1, ELT2), and each comprising first and second ends (EP1, EP2) respectively and electrically connected to the first and second electrodes (ELT1, ELT2); a first contact electrode electrically connected to the light emitting elements on the first end, and electrically connected to the first electrode on the first contact portion; and a second contact electrode electrically connected to the light emitting elements on the second end, and electrically connected to the second electrode on the second contact portion. a substrate; first and second electrodes (ELT1, ELT2) disposed on the substrate and spaced apart from each other; an insulating layer disposed on the substrate on which the first and the second electrodes (ELT1, ELT2) are formed, and including a groove extending in a first direction intersecting with the first and the second electrodes (ELT1, ELT2), and first and second contact portions (CNT1, CNT2) configured to respectively expose areas of the first and the second electrodes (ELT1, ELT2); a plurality of light emitting elements disposed on the groove and located between the first and the second electrodes (ELT1, ELT2), and each comprising first and second ends (EP1, EP2) respectively and electrically connected to the first and second electrodes (ELT1, ELT2); a first contact electrode electrically connected to the light emitting elements on the first end, and electrically connected to the first electrode on the first contact portion; and a second contact electrode electrically connected to the light emitting elements on the second end, and electrically connected to the second electrode on the second contact portion.
A method for representing a plurality of multi-coloured image sequences, in particular for at least two observers, wherein a first image sequence intended for an observer is different from a further image sequence intended for another observer, in which the image sequences are projected onto one or more projection screens with at least one image reproduction device, characterized by the following steps: i. receiving images of at least two sequences of multi-coloured images as digital data in parallel at signal inputs (21 1, 21 2, 21 3, 21 4, 21 5, 21 6) provided therefor, wherein each image is assembled by image points and said digital data contains colour information (R i G i B i) for each image point in the form of colour-data bits for at least three basic colours; ii. breaking down said colour information (R i G i B i) of the image points of the images received in parallel to their basic colour components (R i, G i, B i) and image-point-wise merging said basic colour components in one data packet per basic colour respectively, the colour components (R i, G i, B i) being of the image points of at least two images received in parallel; iii. providing the data packet at at least one signal output (22 1, 22 2, 22 3, 22 4, 22 5, 22 6) per basic colour, wherein at each signal output (22 1, 22 2, 22 3, 22 4, 22 5, 22 6) the data packets of one basic colour are output; iv. parallel processing of said data packets of the different basic colours output at the signal outputs (22 1, 22 2, 22 3, 22 4, 22 5, 22 6) in at least one data channel of said projector per basic colour; v. simultaneously displaying all basic colour components (R i, G i, B i) of an image with the at least one projector, wherein images of different image sequences follow one another in sequence. i. receiving images of at least two sequences of multi-coloured images as digital data in parallel at signal inputs (21 1, 21 2, 21 3, 21 4, 21 5, 21 6) provided therefor, wherein each image is assembled by image points and said digital data contains colour information (R i G i B i) for each image point in the form of colour-data bits for at least three basic colours; ii. breaking down said colour information (R i G i B i) of the image points of the images received in parallel to their basic colour components (R i, G i, B i) and image-point-wise merging said basic colour components in one data packet per basic colour respectively, the colour components (R i, G i, B i) being of the image points of at least two images received in parallel; iii. providing the data packet at at least one signal output (22 1, 22 2, 22 3, 22 4, 22 5, 22 6) per basic colour, wherein at each signal output (22 1, 22 2, 22 3, 22 4, 22 5, 22 6) the data packets of one basic colour are output; iv. parallel processing of said data packets of the different basic colours output at the signal outputs (22 1, 22 2, 22 3, 22 4, 22 5, 22 6) in at least one data channel of said projector per basic colour; v. simultaneously displaying all basic colour components (R i, G i, B i) of an image with the at least one projector, wherein images of different image sequences follow one another in sequence.
A method in a first network node for handling traffic tracing of a user equipment, which first network node is comprised in a first Radio Access Technology, RAT, system, the method comprising: starting a handover procedure to handover the user equipment from the first RAT system to a second RAT system, wherein the second RAT system is a different type of RAT than the first RAT system, wherein the user equipment has an active traffic tracing ongoing in the first RAT system, and which traffic tracing relates to tracing associated with communication between the user equipment and the first RAT system, and sending a message to a second network node in the second RAT system, which message is sent directly to the second network node or via one or more intermediate network nodes, which message comprises one or more parameters relating to the ongoing traffic tracing of the user equipment, and which parameters define when the traffic tracing is to continue in the second RAT system, wherein the one or more parameters comprises a trace reference to be used for the UE in the second RAT system, wherein the trace reference to be used for the UE in the second RAT system is paired with a trace reference for the UE in the active traffic tracing ongoing in the first RAT system. starting a handover procedure to handover the user equipment from the first RAT system to a second RAT system, wherein the second RAT system is a different type of RAT than the first RAT system, wherein the user equipment has an active traffic tracing ongoing in the first RAT system, and which traffic tracing relates to tracing associated with communication between the user equipment and the first RAT system, and sending a message to a second network node in the second RAT system, which message is sent directly to the second network node or via one or more intermediate network nodes, which message comprises one or more parameters relating to the ongoing traffic tracing of the user equipment, and which parameters define when the traffic tracing is to continue in the second RAT system, wherein the one or more parameters comprises a trace reference to be used for the UE in the second RAT system, wherein the trace reference to be used for the UE in the second RAT system is paired with a trace reference for the UE in the active traffic tracing ongoing in the first RAT system.
Supply and loading unit provided for supplying and/or removing one or more work pieces (2, 2a, 2b) for machining purposes to the processing station in the machining chamber of a machine tool, wherein the supply and loading unit comprises at least two work piece carriers (5, 5a, 5b) movable on a guide path, and the work piece carriers (5, 5a, 5b) serve for picking-up and conveying of at the least one work piece (2, 2a, 2b), characterized in that the guide path has a guide path sector that is angled or transverse to the conveying direction of the work pieces (2, 2a, 2b) on the guide path, and movable by a drive, and receiving at least one work piece carrier (5, 5a, 5b), and wherein the guide path sector displaces the work piece carrier (5, 5a, 5b) for loading or unloading purposes in the direction of the processing chamber or back, and wherein a pressing device is formed such at the movable guide path sector that it travels along with it.
A washer device comprising - at least one washing chamber wherein the articles to be washed are placed and the washing process is performed; - at least one washing liquid inlet through which washing liquid for washing and/or rinsing processes is received; - at least one collection chamber which is located under the washing chamber and wherein the washing liquid received from the washing liquid inlet is collected; - at least one washing liquid outlet which is connected with the said collection chamber and which discharges the liquid collected in the collection chamber at the end of the washing and/or rinsing process; - at least one steam generator which heats the washing liquid received from the said washing liquid inlet and/or collection chamber and supplies it into the washing chamber through at least one steam inlet connected with the washing chamber; - at least a first T connection which connects a first opening with the washing liquid inlet, a second opening with the collection chamber and a third opening with the steam generator and which supplies the washing liquid received from the washing liquid inlet into the collection chamber and the steam generator; - at least one steam generator pump which is interposed between the said first T connection and the steam generator and which allows the washing liquid in the collection chamber to pass through the steam generator into the washing chamber and - at least one circulation pump that supplies the washing liquid collected in the collection chamber into the washing chamber. - at least one washing chamber wherein the articles to be washed are placed and the washing process is performed; - at least one washing liquid inlet through which washing liquid for washing and/or rinsing processes is received; - at least one collection chamber which is located under the washing chamber and wherein the washing liquid received from the washing liquid inlet is collected; - at least one washing liquid outlet which is connected with the said collection chamber and which discharges the liquid collected in the collection chamber at the end of the washing and/or rinsing process; - at least one steam generator which heats the washing liquid received from the said washing liquid inlet and/or collection chamber and supplies it into the washing chamber through at least one steam inlet connected with the washing chamber; - at least a first T connection which connects a first opening with the washing liquid inlet, a second opening with the collection chamber and a third opening with the steam generator and which supplies the washing liquid received from the washing liquid inlet into the collection chamber and the steam generator; - at least one steam generator pump which is interposed between the said first T connection and the steam generator and which allows the washing liquid in the collection chamber to pass through the steam generator into the washing chamber and - at least one circulation pump that supplies the washing liquid collected in the collection chamber into the washing chamber.
A parameter configuration method, comprising: sending, by a network device, a radio resource control, RRC, signaling to a terminal, wherein the RRC signaling comprises parameters of phase tracking reference signal, PT-RS, and the parameters of PT-RS comprise at least one of resource element, RE, offset parameters and power offset parameters, the at least one of RE offset parameters and power offset parameters being in a one-to-one correspondence with a plurality of bandwidth parts, BWPs, in a carrier, with one RE offset parameter corresponding to one BWP and/or one power offset parameter corresponding to one BWP; and sending, by the network device, downlink control information, DCI, or media access control layer control element, MAC CE, to the terminal, wherein the DCI or the MAC CE is used for indicating an activated BWP, wherein the one-to-one correspondence is used to instruct the terminal to select one of the at least one of RE offset parameters and power offset parameters corresponding to the activated BWP. sending, by a network device, a radio resource control, RRC, signaling to a terminal, wherein the RRC signaling comprises parameters of phase tracking reference signal, PT-RS, and the parameters of PT-RS comprise at least one of resource element, RE, offset parameters and power offset parameters, the at least one of RE offset parameters and power offset parameters being in a one-to-one correspondence with a plurality of bandwidth parts, BWPs, in a carrier, with one RE offset parameter corresponding to one BWP and/or one power offset parameter corresponding to one BWP; and sending, by the network device, downlink control information, DCI, or media access control layer control element, MAC CE, to the terminal, wherein the DCI or the MAC CE is used for indicating an activated BWP, wherein the one-to-one correspondence is used to instruct the terminal to select one of the at least one of RE offset parameters and power offset parameters corresponding to the activated BWP.
A charged particle radiation measuring method using a scintillator comprising a phosphor in which the main component is a SiAION phosphor, wherein the SiAION phosphor is a phosphor in which the main component is a β-type SiAION represented by the general formula: Eu x Si 6-z Al z O z N 8-z, where 0.01 ≤ x ≤ 0.5 and 0 < z ≤ 4.2, and having an Eu luminescence center.
Communication zone comprising two end walls (12, 14) of two successive cars of a rail vehicle and delimiting two passage openings (16, 18) having a vertical section and a communication bellows having a closed contour delimiting an enclosed conduit which allows movement of passengers, said bellows being provided facing the two openings (16, 18) respectively belonging to end walls (12, 14), of the type comprising: - at least one external skin which has a succession of inwardly directed undulations; - at least one internal skin which has a succession of outwardly directed undulations which are provided facing the inwardly directed undulations of the external skin, - the two skins (20, 22) each sensibly having a cross-section equivalent to the cross-section of said openings (16, 18) and together delimiting an acoustic insulation space, the internal skin being connected to at least some of the inwardly directed undulations of the external skin - the external and internal skins having a closed cross-section between the external and internal skins and are connected to each other only by some mutually facing undulations (56, 58), other undulations (56, 58) of the two skins (22, 24) remaining separate from each other. - at least one external skin which has a succession of inwardly directed undulations; - at least one internal skin which has a succession of outwardly directed undulations which are provided facing the inwardly directed undulations of the external skin, - the two skins (20, 22) each sensibly having a cross-section equivalent to the cross-section of said openings (16, 18) and together delimiting an acoustic insulation space, the internal skin being connected to at least some of the inwardly directed undulations of the external skin - the external and internal skins having a closed cross-section between the external and internal skins and are connected to each other only by some mutually facing undulations (56, 58), other undulations (56, 58) of the two skins (22, 24) remaining separate from each other.
A battery, comprising: a battery cell comprising a pressure relief mechanism, the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component configured to accommodate a fluid to adjust a temperature of the battery cell; an avoidance chamber formed between the pressure relief mechanism and the thermal management component, the avoidance chamber being configured to provide a space allowing the pressure relief mechanism to be actuated; and a collection chamber located on an outer side of the avoidance chamber for collecting emissions from the battery cell when the pressure relief mechanism is actuated, wherein the thermal management component is configured such that emissions of the battery cell are capable of passing through the thermal management component when the pressure relief mechanism is actuated, and then entering the collection chamber through the avoidance chamber; wherein the thermal management component is provided between the avoidance chamber and the collection chamber and isolates the avoidance chamber and the collection chamber from each other, and the thermal management component is configured to be capable of being damaged by the emissions of the battery cell, so that the emissions of the battery cell enter the collection chamber from the avoidance chamber. a battery cell comprising a pressure relief mechanism, the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component configured to accommodate a fluid to adjust a temperature of the battery cell; an avoidance chamber formed between the pressure relief mechanism and the thermal management component, the avoidance chamber being configured to provide a space allowing the pressure relief mechanism to be actuated; and a collection chamber located on an outer side of the avoidance chamber for collecting emissions from the battery cell when the pressure relief mechanism is actuated, wherein the thermal management component is configured such that emissions of the battery cell are capable of passing through the thermal management component when the pressure relief mechanism is actuated, and then entering the collection chamber through the avoidance chamber; wherein the thermal management component is provided between the avoidance chamber and the collection chamber and isolates the avoidance chamber and the collection chamber from each other, and the thermal management component is configured to be capable of being damaged by the emissions of the battery cell, so that the emissions of the battery cell enter the collection chamber from the avoidance chamber.