mhurhangee/ep-ind-claims huggingface dataset:
An electronic lighting device simulating real fire comprises a flame sheet, a supporting frame, a light emitting element and a drive mechanism; the flame sheet comprises a flame section (1.1), a balance section (1.2) and a supporting point (1.3); the supporting point (1.3) is positioned between the flame section (1.1) and the balance section (1.2); the drive mechanism comprises an electromagnetic coil and a permanent magnet/magnetic medium; characterized in that: the drive mechanism is positioned corresponding to a middle part of the flame sheet near to and above the supporting point (1,3) or near to and below the supporting point (1.3); the drive mechanism exerts driving force to the middle part of the flame sheet near to and above the supporting point (1,3) or near to and below the supporting point (1.3) the permanent magnet/magnetic medium is mounted on a middle part along a vertical axis of the flame sheet near to and above the supporting point (1,3) or near to and below the supporting point (1.3); the electromagnetic coil is also positioned corresponding to the permanent magnet/magnetic medium at the said middle part along the vertical axis of the flame sheet to exert driving force to the permanent magnet/magnetic medium on the flame sheet.
An amplifier device with at least one microwave tube (16, 16A, 16B), intended to be mounted on a satellite panel supporting the payload, including a high electrical voltage section directly connected to said microwave tube or tubes (16, 16A, 16B), a low electrical voltage section, and a low electrical voltage cabling assembly (21, 22) provided with low electrical voltage connectors at the ends thereof connecting said low and high voltage sections (14, 15), said high voltage section being arranged on the same base plate as the microwave tube or tubes (16, 16A, 16B) so as to ensure an appropriate contact surface allowing optimum heat exchange with the panel.
Method for operating a shunting hump system, wherein for the respective humps (100, 101) in the form of cut humped carriages or groups of carriages - at least one value for a curve resistance in at least one track curve lying in the route of the respective hump (100, 101) is determined taking into consideration at least one running gear type of the respective hump (100, 101) and - at least one rail brake (60, 70) of the hump system is controlled taking into consideration the at least one determined value for the curve resistance. - at least one value for a curve resistance in at least one track curve lying in the route of the respective hump (100, 101) is determined taking into consideration at least one running gear type of the respective hump (100, 101) and - at least one rail brake (60, 70) of the hump system is controlled taking into consideration the at least one determined value for the curve resistance.
A draft device comprising: a first supporting section adapted to rotatably support a front bottom roller, a second supporting section adapted to rotatably support a middle bottom roller, a tensor bar adapted to regulate tension and position of an apron belt wound around the middle bottom roller, characterized by a third supporting section arranged on and projecting from at least one of the first supporting section and the second supporting section, and adapted to support the tensor bar, wherein the third supporting section is adapted to support the tensor bar by being fitted in a concave formed in the tensor bar. a first supporting section adapted to rotatably support a front bottom roller, a second supporting section adapted to rotatably support a middle bottom roller, a tensor bar adapted to regulate tension and position of an apron belt wound around the middle bottom roller, characterized by a third supporting section arranged on and projecting from at least one of the first supporting section and the second supporting section, and adapted to support the tensor bar, wherein the third supporting section is adapted to support the tensor bar by being fitted in a concave formed in the tensor bar.
A method for winding fiber webs, particularly paper and board webs, in which method, partial web rolls (R1, R2) are wound in a winding device that comprises at least two winding stations (21, 22), where partial webs (W1, W2) are guided to rolls (R1, R2) via a nip between a winding roll (12; 41,42) and the rolls (R1, R2), in which method partial webs (W1, W2) are guided on the surface of the winding roll (12; 41, 42) before entering the nip creating a wrap angle (A1, A2), characterised in, that in the method the wrap angle (A1, A2) that the partial webs are guided on the surface of the winding roll (12; 41,42) is respectively for each winding station (21, 22) at least 120 °and the wrap angle relation, i.e. relation of the larger wrap angle to the smaller wrap angle is at least 1 and at most 1,25.
A method for determining a self-assembly pattern of a block copolymer confined inside a closed outline called the guiding outline, including the following steps, which are implemented by computer: a) choosing in a database a closed outline called the reference outline that is similar to said guiding outline, a self-assembly pattern of said block copolymer, which is called the reference pattern, being associated with said reference outline; b) applying a geometric transformation to a plurality of points (P, P m) of said reference pattern in order to convert them to respective points called image points of the self-assembly pattern to be determined, said geometric transformation being a function of a geometric transformation allowing said reference outline to be converted to said guiding outline, said image points defining said self-assembly pattern. a) choosing in a database a closed outline called the reference outline that is similar to said guiding outline, a self-assembly pattern of said block copolymer, which is called the reference pattern, being associated with said reference outline; b) applying a geometric transformation to a plurality of points (P, P m) of said reference pattern in order to convert them to respective points called image points of the self-assembly pattern to be determined, said geometric transformation being a function of a geometric transformation allowing said reference outline to be converted to said guiding outline, said image points defining said self-assembly pattern.
A method performed by a technician allocation system for allocating a field technician, FT, which technician allocation system operates in a telecommunication network, the method comprising: identifying features f 1... f n of a received new work order, WO, to be executed on equipment in the telecommunication network; obtaining similarity scores for the identified features f 1... f n, wherein the similarity scores are related to how similar the new WO is to previously executed old WOs with respect to the identified features, the old WOs having at least one of the features f 1... f n; obtaining for a set of FT candidates, an FT experience score for each FT candidate with respect to the identified features f 1... f n; matching the FT candidates with the features f 1... f n for the new WO based on the obtained FT experience scores and the similarity scores; and allocating at least one of the FTs for executing the new WO on said equipment, based on the matching, characterized in that the matching comprises assigning a matching score per feature of the features f 1... f n and wherein the allocating comprises selecting the FT(s) with the highest weighted average matching score of the features f 1... f n. identifying features f 1... f n of a received new work order, WO, to be executed on equipment in the telecommunication network; obtaining similarity scores for the identified features f 1... f n, wherein the similarity scores are related to how similar the new WO is to previously executed old WOs with respect to the identified features, the old WOs having at least one of the features f 1... f n; obtaining for a set of FT candidates, an FT experience score for each FT candidate with respect to the identified features f 1... f n; matching the FT candidates with the features f 1... f n for the new WO based on the obtained FT experience scores and the similarity scores; and allocating at least one of the FTs for executing the new WO on said equipment, based on the matching, characterized in that the matching comprises assigning a matching score per feature of the features f 1... f n and wherein the allocating comprises selecting the FT(s) with the highest weighted average matching score of the features f 1... f n.
An arrangement for a node of a Wavelength Division Multiplexed Passive Optical Network, WDM-PON, for supervision of the WDM-PON, the arrangement comprising: - X splitters of splitting ratio 1:Y, each splitter having one input and Y outputs such that X*Y equals N, wherein X, Y, N are integers, wherein the one input of each of the X splitters is configured to receive an Optical Time Domain Reflectometry, OTDR, signal and to split the received OTDR signal into Y OTDR sub-signals such that a total of N OTDR sub-signals are outputted from the X splitters, - an N*N Arrayed Waveguide Grating, AWG, and - a first filter configured to mix a feeder signal comprising data communication from an Optical Line Termination, OLT, with one of the N OTDR sub-signals, wherein one input of the AWG is configured to receive the mix of the feeder signal and the one OTDR sub-signal, and the remaining N-1 inputs of the AWG are each configured to receive a respective one of the N-1 remaining OTDR sub-signals, thereby enabling supervision of the WDM-PON without influencing the data communication. - X splitters of splitting ratio 1:Y, each splitter having one input and Y outputs such that X*Y equals N, wherein X, Y, N are integers, wherein the one input of each of the X splitters is configured to receive an Optical Time Domain Reflectometry, OTDR, signal and to split the received OTDR signal into Y OTDR sub-signals such that a total of N OTDR sub-signals are outputted from the X splitters, - an N*N Arrayed Waveguide Grating, AWG, and - a first filter configured to mix a feeder signal comprising data communication from an Optical Line Termination, OLT, with one of the N OTDR sub-signals, wherein one input of the AWG is configured to receive the mix of the feeder signal and the one OTDR sub-signal, and the remaining N-1 inputs of the AWG are each configured to receive a respective one of the N-1 remaining OTDR sub-signals, thereby enabling supervision of the WDM-PON without influencing the data communication.
Hooking device for hooking a ham to a seasoning frame comprising a first jaw and a second jaw arranged for hooking a shank of said ham; - said first jaw comprising a first end part provided with a first plate provided with a plurality of protruding elements, arranged for engaging portions of said shank, - said second jaw comprising an end zone provided with a second plate provided with a plurality of further protruding elements arranged for engaging further portions of said shank, - a profile of said protruding elements and a profile of said further protruding elements defining a gripping zone for said shank, - said second jaw being provided with engaging elements arranged for engaging respective openings of said first jaw to connect said second jaw to said first jaw, in which said first plate through the force of gravity is rotatable in an oscillation direction, said openings being shaped in such a manner that said second plate slides towards said first plate decreasing a dimension of said gripping zone, when said first plate rotates through the effect of the force of gravity; said hooking device being characterised in that said first jaw further comprises a pair of connecting plates (12a, 12b) provided with respective first ends and opposite second ends, said first ends being mounted to opposite zones of said first plate and said second ends being mounted rotatably on a rotating element. - said first jaw comprising a first end part provided with a first plate provided with a plurality of protruding elements, arranged for engaging portions of said shank, - said second jaw comprising an end zone provided with a second plate provided with a plurality of further protruding elements arranged for engaging further portions of said shank, - a profile of said protruding elements and a profile of said further protruding elements defining a gripping zone for said shank, - said second jaw being provided with engaging elements arranged for engaging respective openings of said first jaw to connect said second jaw to said first jaw,
A downhole system for completing a well, comprising: - a well tubular metal structure arranged in a borehole having a borehole pressure (P B), the well tubular metal structure comprising an inner face and an inside having an inside pressure (P I), an opening and an axial extension, and - a sliding sleeve having an outer face and being movable inside the well tubular metal structure and along the axial extension between a first position in which the sliding sleeve seals off the opening and a second position in which fluid communication between the borehole and the inside of the well tubular metal structure is allowed, characterised in that the sliding sleeve comprises a first sealing element arranged on the outer face on one side of the opening and a second sealing element arranged on the outer face on the other side of the opening in the first position, wherein a pressure-reducing mechanism is arranged in relation to the first sealing element for reducing a pressure exerted on the first sealing element while moving the sliding sleeve from the first position to the second position, and wherein the pressure-reducing mechanism is a labyrinth seal. - a well tubular metal structure arranged in a borehole having a borehole pressure (P B), the well tubular metal structure comprising an inner face and an inside having an inside pressure (P I), an opening and an axial extension, and - a sliding sleeve having an outer face and being movable inside the well tubular metal structure and along the axial extension between a first position in which the sliding sleeve seals off the opening and a second position in which fluid communication between the borehole and the inside of the well tubular metal structure is allowed, characterised in that the sliding sleeve comprises a first sealing element arranged on the outer face on one side of the opening and a second sealing element arranged on the outer face on the other side of the opening in the first position, wherein a pressure-reducing mechanism is arranged in relation to the first sealing element for reducing a pressure exerted on the first sealing element while moving the sliding sleeve from the first position to the second position, and wherein the pressure-reducing mechanism is a labyrinth seal.
A liquid cooled generator comprising: a rotor (104, 200, 300) having a central core (110, 210, 310) and a main stator winding wrapped around the central core; a first laminate (114, 214, 314) at a first end of the central core and having a first orifice (120, 220, 320) defining a first diameter (230, 336); a second laminate (116, 216, 316) at a second end of the central core and having a second orifice (122, 222, 322) defining a second diameter (230, 336) that is the same as the first diameter (230, 336); and a flow line (118, 218, 318) passing through the central core (110, 210) and configured to extend from the first laminate (114, 214, 314) to the second laminate (116, 216, 316), and characterized by the flow line defining a third diameter (232, 332) that is larger than the first and second diameters, wherein the first diameter (230, 336) and the second diameter (230, 336) are configured such that air flow is permitted to pass through the first and second laminates and to restrict the flow of a liquid through the first and second laminates. a rotor (104, 200, 300) having a central core (110, 210, 310) and a main stator winding wrapped around the central core; a first laminate (114, 214, 314) at a first end of the central core and having a first orifice (120, 220, 320) defining a first diameter (230, 336); a second laminate (116, 216, 316) at a second end of the central core and having a second orifice (122, 222, 322) defining a second diameter (230, 336) that is the same as the first diameter (230, 336); and a flow line (118, 218, 318) passing through the central core (110, 210) and configured to extend from the first laminate (114, 214, 314) to the second laminate (116, 216, 316), and characterized by the flow line defining a third diameter (232, 332) that is larger than the first and second diameters, wherein the first diameter (230, 336) and the second diameter (230, 336) are configured such that air flow is permitted to pass through the first and second laminates and to restrict the flow of a liquid through the first and second laminates.
A method of configuring a contactless communication circuit hosting at least two applications compatible with different communication protocols, comprising the steps of: initializing an identifier of a communication protocol to a first value; in case of failure of a transaction with a proximity coupling device, incrementing a counter; and when the counter value reaches a threshold, changing the value of the identifier for a second value. initializing an identifier of a communication protocol to a first value; in case of failure of a transaction with a proximity coupling device, incrementing a counter; and when the counter value reaches a threshold, changing the value of the identifier for a second value.
A method for the re-anticoagulation of platelet rich plasma in a blood apheresis system, the method comprising: collecting a volume of platelet rich plasma within a first collection container; and adding anticoagulant from a separate container into the first collection container as the platelet rich plasma is being collected. collecting a volume of platelet rich plasma within a first collection container; and adding anticoagulant from a separate container into the first collection container as the platelet rich plasma is being collected.
A blood sequestration device comprising; an inlet port; an outlet port; a sequestration chamber (55, 104, 304, 822, 1008, 1108, 1218, 1318, 1408, 1508, 1608, 2102, 2306, 2320, 2418, 2520, 2624, 2720, 2904, 3008) connected with the inlet port via a junction, the sequestration chamber having a vent (1510, 1610, 2514, 2628, 3010) that includes an air permeable blood barrier (20, 106, 824, 1010, 1110, 1310, 1412, 1512, 1612, 2202, 2420, 2506, 2706, 2803, 3012), the vent being defined by an outer wall (2504, 2618, 2704) that at least partially circumscribes the air permeable blood barrier and includes one or more air vents, the vent further including a cap (1208, 1307, 2722, 3032) that at least partially covers the wall and a one-way seal (2508, 3017, 3008) abutting the air permeable blood barrier that inhibits air from entering the sequestration chamber; and a sampling channel (820, 1406, 1506, 1606, 2104, 2308, 2422, 2622, 3006) having a proximal end connected with the inlet port via the junction, and a distal end connected with the outlet port; the sequestration chamber, the sampling channel and the junction being sized and configured such that a first portion of blood flows into and fills the sequestration chamber to displace air therein through the vent, and such that a second portion of blood bypasses the sequestration chamber and the first portion of blood sequestered therein and is directed into the sampling channel toward the outlet port. an inlet port; an outlet port; a sequestration chamber (55, 104, 304, 822, 1008, 1108, 1218, 1318, 1408, 1508, 1608, 2102, 2306, 2320, 2418, 2520, 2624, 2720, 2904, 3008) connected with the inlet port via a junction, the sequestration chamber having a vent (1510, 1610, 2514, 2628, 3010) that includes an air permeable blood barrier (20, 106, 824, 1010, 1110, 1310, 1412, 1512, 1612, 2202, 2420, 2506, 2706, 2803, 3012), the vent being defined by an outer wall (2504, 2618, 2704) that at least partially circumscribes the air permeable blood barrier and includes one or more air vents, the vent further including a cap (1208, 1307, 2722, 3032) that at least partially covers the wall and a one-way seal (2508, 3017, 3008) abutting the air permeable blood barrier that inhibits air from entering the sequestration chamber; and a sampling channel (820, 1406, 1506, 1606, 2104, 2308, 2422, 2622, 3006) having a proximal end connected with the inlet port via the junction, and a distal end connected with the outlet port; the sequestration chamber, the sampling channel and the junction being sized and configured such that a first portion of blood flows into and fills the sequestration chamber to displace air therein through the vent, and such that a second portion of blood bypasses the sequestration chamber and the first portion of blood sequestered therein and is directed into the sampling channel toward the outlet port.
A method for operating a light grid having a transmitter unit which has a number of transmitters emitting transmitted light beams, and having a receiver unit which is electrically decoupled from the transmitter unit and has a number of receivers, in each case one transmitter forming a beam axis with one receiver, and the transmitters and receivers of the individual beam axes being activated cyclically individually one after the other for the purpose of detecting objects in a monitoring region, a transmitter control unit being provided in the transmitter unit and being used to control the operation of the transmitters, wherein an activated transmitter emits transmitted light beams in the form of at least one pulse group, wherein a pulse group consists of a sequence of individual pulses or of only one pulse, wherein the synchronisation of all beam axes of the light grid is effected by means of a beam axis, wherein the pulses emitted by the transmitter of this beam axis differ from the pulses of the further beam axes with respect to at least one characteristic variable in the form of the durations of the pulses or in the form of the pauses between the pulses of the pulse groups; and wherein a plurality of beam axes are provided, the transmitters of which emit pulse groups which differ in at least one characteristic quantity, and at least one of these beam axes is selectively used for synchronising the light grid, wherein the transmitters of the beam axes are successively activated for synchronising the light grid and the synchronisation takes place with the aid of the first free beam axis, the transmitter of which emits a pulse group with a unique identifier; or wherein the pulse groups which can be used for synchronisation are successively impressed on the transmitters of different beam axes via the transmitter unit, so that the beam axis used for synchronisation varies in time, wherein the variation takes place according to time patterns which can be predetermined as desired by the transmitter control unit.
A sintered ferrite magnet comprising a main phase of an M type Sr ferrite having a hexagonal crystal structure, characterized in that an amount of Zn is 0.05 to 1.35 mass% in terms of ZnO and M1/M2 is 0.43 or less when an amount of a rare-earth element is M1 in terms of mol and the amount of Zn is M2 in terms of mol, optionally an amount of Mn is less than 0.5 mass% in terms of MnO, optionally an amount of Na is 0.01 to 0.09 mass% in terms of Na 2 O, and optionally a total amount of Sr, R (rare-earth element), Ba and Ca is M3 in terms of mol, a total amount of Fe, Co, Mn, Zn, Cr and Al is M4 in terms of mol, an amount of Si is M5 in terms of mol, and the following expression is satisfied. 0.5≦ {M3-(M4/12)}/M5≦ 1.2