mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: connecting a first media server of a set of media servers hosted by a network server to a first private network, wherein the first media server is external to the first private network and a second private network, while appearing to be located in the first private network based on a first virtual address mapped to a physical address of the first media server; connecting a second media server of the set of media servers to a second private network, wherein the second media server is external to the first private network and the second private network, while appearing to be located in the second private network based on a second virtual address mapped to a physical address of the second media server; establishing a multicast group comprising the first media server and the second media server; and sharing media content from the first media server with the second media server of the multicast group, wherein the first media server and the second media server are concurrently connected to their respective private networks (405, 403). connecting a first media server of a set of media servers hosted by a network server to a first private network, wherein the first media server is external to the first private network and a second private network, while appearing to be located in the first private network based on a first virtual address mapped to a physical address of the first media server; connecting a second media server of the set of media servers to a second private network, wherein the second media server is external to the first private network and the second private network, while appearing to be located in the second private network based on a second virtual address mapped to a physical address of the second media server; establishing a multicast group comprising the first media server and the second media server; and sharing media content from the first media server with the second media server of the multicast group, wherein the first media server and the second media server are concurrently connected to their respective private networks (405, 403).
An edible composition comprising starch and cellulose ether particles, wherein at least 10 volume percent of the cellulose ether particles have a particle length LEFI of less than 40 micrometers, wherein the particle length LEFI is defined as the longest direct path without loops or branches that connects the ends of the particle within the contour of the particle.
Arm, preferably orientable, of a sawing machine with cutting chain for the cutting of preferably ornamental stones in quarries, in order to execute for example horizontal and/or vertical cuts, comprising a main body, at least one drive pinion of the chain connectable by means of a support to the sawing machine, at least one small idle wheel, preferably placed at a free end of the sawing machine arm, wherein along the external peripheral edge of the main body of the sawing machine arm, on both sides of this elongated flat arm, respective lateral guides of modular type are provided, comprising a plurality of lateral guide pieces mounted on the main body of the sawing machine arm in a removable manner and side-by-side, preferably contiguous at the ends, characterized in that said lateral guide pieces determine, during the assembly on the sawing machine arm, a contact overlap zone (A - B) at their ends and between each pair of contiguous lateral guide pieces, and such zone prevents a lubricating means from exiting between the flanked ends of the pieces, and in that the thickness of the lateral guide is not increased due to these overlaps but remains rather substantially constant.
A method performed in a wireless device, for obtaining resources for device to device, D2D, operation in out-of-network coverage, ONC, the method comprising: - obtaining a first set of resources for D2D operation in ONC on at least one licensed carrier, wherein resources on a licensed carrier are accessed by the wireless device using a contention-free mechanism; - obtaining a second set of resources for D2D operation in ONC on at least one un-licensed carrier, wherein resources on an un-licensed carrier are accessed by the wireless device using a contention-based mechanism; - attempting to determine a location of the wireless device; and - selecting one of the first and second sets of resources for D2D operation in ONC, based on information relating to the determined location of the wireless device, wherein selecting one of the first and second sets of resources comprises: selecting the first set of resources when the location of the wireless device is within a geographical location of the at least one licensed carrier that supports D2D operation in ONC; and selecting the second set of resources when the location of the wireless device is outside the geographical location of the at least one licensed carrier that supports D2D operation in ONC or when failing to determine the location of the wireless device. - obtaining a first set of resources for D2D operation in ONC on at least one licensed carrier, wherein resources on a licensed carrier are accessed by the wireless device using a contention-free mechanism; - obtaining a second set of resources for D2D operation in ONC on at least one un-licensed carrier, wherein resources on an un-licensed carrier are accessed by the wireless device using a contention-based mechanism; - attempting to determine a location of the wireless device; and - selecting one of the first and second sets of resources for D2D operation in ONC, based on information relating to the determined location of the wireless device, wherein selecting one of the first and second sets of resources comprises: selecting the first set of resources when the location of the wireless device is within a geographical location of the at least one licensed carrier that supports D2D operation in ONC; and selecting the second set of resources when the location of the wireless device is outside the geographical location of the at least one licensed carrier that supports D2D operation in ONC or when failing to determine the location of the wireless device. selecting the first set of resources when the location of the wireless device is within a geographical location of the at least one licensed carrier that supports D2D operation in ONC; and selecting the second set of resources when the location of the wireless device is outside the geographical location of the at least one licensed carrier that supports D2D operation in ONC or when failing to determine the location of the wireless device.
An assembly for a turbine engine, the assembly comprising a casing and an impeller rotatably movable in the casing, the impeller including at least one vane having a tip facing the casing, the tip including a magnet and the casing including a first and a second electrical conductors (4, 7), each electrical conductor being adapted to generate between its terminals an electrical voltage induced by the magnet of the facing tip representative of vibrations sustained by the tip of the vane when the impeller is set in rotation, the first electrical conductor comprising a first central part extending around the axis of rotation (z) of the impeller characterized in that the first electrical conductor includes two facing ends (42, 42'), and the second electrical conductor comprises a second central part passing through a space left by the first central part between its two ends (42, 42').
Electric motor comprising a brake and a fan, the fan, which comprises a main body and fan blades provided thereon, being designed in a single piece as an injection moulded part and permanent magnets being provided on the fan, an electronic circuit being provided at an axial spacing from the fan and comprising sensors that are operatively connected to the magnets, the sensors detecting the magnetic field of the magnets rotating past them, the fan being frictionally connected and/or integrally bonded to the motor shaft by means of a shaft support, characterised in that the permanent magnets are provided in the fan in an overmoulded manner, the electronic circuit being at an axial spacing from the fan and being attached by retaining means to the motor flange, which is connected to the stator housing of the motor, the retaining means extending over a larger axial range than the brake and thus bypassing said brake and forming an earth connection for the electronic circuit.
Energy absorbing member for a load carrying, load pulling, load pushing or load stopping assembly or the like, wherein said energy absorbing member includes first and second attachment devices (30, 31) and a shaped body member extending in a longitudinal direction between said first and second attachment devices (30, 31), which shaped body member when applied to a force above a first force level is arranged to enable a predetermined relative elongation (ΔL) between said first and second attachment devices (30, 31) parallelly with said longitudinal direction upon simultaneous absorption of energy reducing the risk of hazard in connection with sudden deceleration, wherein said absorbing member includes a stabilizing control arrangement that extends along said shaped body member arranged to stabilize said shaped body member in relation to forces not exceeding a first force level hindering relative movement between said attachment devices (30, 31) in at least said longitudinal direction, and wherein said stabilizing control arrangement includes at least one longitudinally extending rib,said longitudinally extending rib extending along a centre line between a neighbouring pair of rows of body members (35', 35"), whereby there is a longitudinally extending row of longitudinal ribs extending the whole distance between said attachment parts (30, 31) characterized in that there is arranged a plurality of pairs of transversal ribs, connecting in between the longitudinal ribs and two neighbouring rows (35', 35") of said shaped body member, wherein each transversal rib and each longitudinal rib extend from a hub part that is positioned along said centre line, and wherein there is arranged a plurality of hub parts positioned along said centre line.
A method for testing a control unit for at least one PTC heating element (130A, 130X) or a PTC heater for a vehicle, wherein the method comprises the steps of: - applying a test mode signal to the control unit having a frequency and an application time period that differ from frequencies and time periods of a drive signal in a normal operation mode of the control unit in order to set the control unit into a test mode; - outputting a test signal to an interface to the at least one PTC heating element (130A, 130X) in response to the test mode in order to output a test sequence to the at least one PTC heating element (130A, 130X); - comparing a sensor information received by an interface to a sensor means (140A, 140X) assigned to the at least one PTC heating element (130A, 130X) in response to the test signal with a predefinable reference information; and - determining an error-free functioning of the control unit or of the PTC heater if the sensor information matches the reference information within a tolerance range in order to test the control unit or the PTC heater, characterised in that in the application step, a pulse width modulation signal with a predefinable duty cycle which is constant during the application time period is used as the test mode signal, wherein in the outputting step, a pulse width modulation signal with a variable duty cycle is used as the test signal. - applying a test mode signal to the control unit having a frequency and an application time period that differ from frequencies and time periods of a drive signal in a normal operation mode of the control unit in order to set the control unit into a test mode; - outputting a test signal to an interface to the at least one PTC heating element (130A, 130X) in response to the test mode in order to output a test sequence to the at least one PTC heating element (130A, 130X); - comparing a sensor information received by an interface to a sensor means (140A, 140X) assigned to the at least one PTC heating element (130A, 130X) in response to the test signal with a predefinable reference information; and - determining an error-free functioning of the control unit or of the PTC heater if the sensor information matches the reference information within a tolerance range in order to test the control unit or the PTC heater, characterised in that in the application step, a pulse width modulation signal with a predefinable duty cycle which is constant during the application time period is used as the test mode signal, wherein in the outputting step, a pulse width modulation signal with a variable duty cycle is used as the test signal.
A turbocharger comprising a turbine housing (12, 52) and a bearing housing (30, 54), sealing joint surfaces between the turbine housing (12, 52) and the bearing housing (30, 54) being sealed, wherein the turbocharger comprises: a flange part (32, 70) of the bearing housing (30, 54); an end face of the turbine housing (12, 52) that includes an inner end face (14b, 60b) that makes contact with a flange part (32, 70) of the bearing housing (30, 54) and forms a sealing surface, and an outer end face (14a, 60a) that does not form a sealing surface with the flange part (32, 70) and has a height difference from a bolt receiving surface (32a, 70a) of the flange part (32, 70); and a resiliently deformable sealing ring (48, 72) disposed at the sealing surface, wherein the flange part (32, 70) is sandwiched between the inner end face (14b, 60b) and a bearing surface of a head of a bolt (40, 65) screwed in the end face of the turbine housing (12, 52), characterized in that a compression allowance (h) for the sealing ring (48, 72) to resiliently deform is set by a height difference between the flange part (32, 70) and the outer end face (14a, 60a) formed before the bolt (40, 65) is fastened, and the sealing structure further comprises a heat shielding wall (32c, 76) integrally formed with the flange part (32, 70) on a backside of the flange part (32, 70) to shield the sealing ring (48, 70) from an inner space of the turbine housing (12, 52). an end face of the turbine housing (12, 52) that includes an inner end face (14b, 60b) that makes contact with a flange part (32, 70) of the bearing housing (30, 54) and forms a sealing surface, and an outer end face (14a, 60a) that does not form a sealing surface with the flange part (32, 70) and has a height difference from a bolt receiving surface (32a, 70a) of the flange part (32, 70); and a resiliently deformable sealing ring (48, 72) disposed at the sealing surface, wherein the flange part (32, 70) is sandwiched between the inner end face (14b, 60b) and a bearing surface of a head of a bolt (40, 65) screwed in the end face of the turbine housing (12, 52), characterized in that a compression allowance (h) for the sealing ring (48, 72) to resiliently deform is set by a height difference between the flange part (32, 70) and the outer end face (14a, 60a) formed before the bolt (40, 65) is fastened, and the sealing structure further comprises a heat shielding wall (32c, 76) integrally formed with the flange part (32, 70) on a backside of the flange part (32, 70) to shield the sealing ring (48, 70) from an inner space of the turbine housing (12, 52).
A turbine rotor blade for a gas turbine engine, the turbine rotor blade comprising an airfoil comprising: a tip at an outer radial end; a pressure sidewall and a suction sidewall that join together at a leading edge and a trailing edge of the airfoil, the pressure sidewall and the suction sidewall extending from a root to the tip and defining an airfoil chamber therein; and wherein: the tip includes: a rail that defines a tip cavity; and a tip plate, the rail being disposed near or at a periphery of the tip plate; the rail includes an inner rail surface, which faces inwardly toward the tip cavity, and an outer rail surface, the rail also including a circumscribing rail microchannel that extends around the inner rail surface to surround the tip cavity; characterized in that a feed microchannel extends across the tip plate and a portion of the rail, the feed microchannel comprising an upstream end, which is positioned on the tip plate, and a downstream end, which is positioned on the rail; wherein the upstream end of the feed microchannel connects to a coolant passageway that passes through the tip plate to the airfoil chamber; and the downstream end fluidly connects to the circumscribing rail microchannel. a tip at an outer radial end; a pressure sidewall and a suction sidewall that join together at a leading edge and a trailing edge of the airfoil, the pressure sidewall and the suction sidewall extending from a root to the tip and defining an airfoil chamber therein; and wherein: the tip includes: a rail that defines a tip cavity; and a tip plate, the rail being disposed near or at a periphery of the tip plate; the rail includes an inner rail surface, which faces inwardly toward the tip cavity, and an outer rail surface, the rail also including a circumscribing rail microchannel that extends around the inner rail surface to surround the tip cavity; characterized in that a feed microchannel extends across the tip plate and a portion of the rail, the feed microchannel comprising an upstream end, which is positioned on the tip plate, and a downstream end, which is positioned on the rail; the tip includes: a rail that defines a tip cavity; and a tip plate, the rail being disposed near or at a periphery of the tip plate; the rail includes an inner rail surface, which faces inwardly toward the tip cavity, and an outer rail surface, the rail also including a circumscribing rail microchannel that extends around the inner rail surface to surround the tip cavity; characterized in that a feed microchannel extends across the tip plate and a portion of the rail, the feed microchannel comprising an upstream end, which is positioned on the tip plate, and a downstream end, which is positioned on the rail; wherein the upstream end of the feed microchannel connects to a coolant passageway that passes through the tip plate to the airfoil chamber; and the downstream end fluidly connects to the circumscribing rail microchannel.
A method for fastening slab-shaped objects or packs of slab-shaped objects to a support element using strapping, wherein the support element comprises a base to which a rest element, which rises from the base and which is destined to provide a rest for the slab-shaped objects or the packs of slab-shaped objects, is associated, characterised in that it comprises following steps, which occur in a cyclical way: - arranging a slab-shaped object or a pack of slab-shaped objects, on the base in a vertical position, resting the slab-shaped object or pack of slab-shaped objects, by an edge thereof on the base; - realising at least a binding (17, 18, 19, 20) with a strap ring which fastens the slab-shaped object, or the pack of slab-shaped objects which has just been arranged on the base, the rest element and the slab-shaped objects or packs of slab-shaped objects which have previously been arranged on the base and which have already been fastened to one another and to the rest element; and it comprises a step of cyclically arranging each slab-shaped object or each pack of slab-shaped objects, alternatively on opposite sides of the rest element. - arranging a slab-shaped object or a pack of slab-shaped objects, on the base in a vertical position, resting the slab-shaped object or pack of slab-shaped objects, by an edge thereof on the base; - realising at least a binding (17, 18, 19, 20) with a strap ring which fastens the slab-shaped object, or the pack of slab-shaped objects which has just been arranged on the base, the rest element and the slab-shaped objects or packs of slab-shaped objects which have previously been arranged on the base and which have already been fastened to one another and to the rest element; and it comprises a step of cyclically arranging each slab-shaped object or each pack of slab-shaped objects, alternatively on opposite sides of the rest element.
A method for obtaining information on lung cancer comprising the steps of: preparing a DNA sample from a biological sample collected from a subject; analyzing methylation status of a CpG site located in a promoter region of at least one gene selected from HOXB4 and ZSCAN31 in the DNA sample obtained in the preparing step; and obtaining information on lung cancer in the subject based on an analysis result obtained in the analyzing step; wherein the base sequence of the promoter region of the HOXB4 gene is SEQ ID NO: 1 and wherein the base sequence of the promoter region of the ZSCAN31 gene is SEQ ID NO: 2. preparing a DNA sample from a biological sample collected from a subject; analyzing methylation status of a CpG site located in a promoter region of at least one gene selected from HOXB4 and ZSCAN31 in the DNA sample obtained in the preparing step; and obtaining information on lung cancer in the subject based on an analysis result obtained in the analyzing step; wherein the base sequence of the promoter region of the HOXB4 gene is SEQ ID NO: 1 and wherein the base sequence of the promoter region of the ZSCAN31 gene is SEQ ID NO: 2.
A protease comprising an amino acid sequence that is at least 98% identical over the total length thereof to the amino acid sequence shown in SEQ ID NO. 1 and, in the numbering according to SEQ ID NO. 1, has the amino acid substitution R99E or R99D in combination with the amino acid substitutions S3T, V4I and V1991, wherein the protease in washing and cleaning agents, compared to a protease according to SEQ ID NO. 1, has improved cleaning performance on at least one protease-sensitive stain.