mhurhangee/ep-ind-claims huggingface dataset:
System comprising a container for the temporary storage of wastewater, an assembly, which has a centrifugal pump that is arranged in the container, component which is part of a flanged bearing end shield, wherein the component is designed as a passage which is used as a pressure line, and wherein the centrifugal pump pumps a medium into a line element forming a pressure branch and the passage adjoining said line element, characterized in that a gap of annular design for evacuation of the centrifugal pump is formed between the line element and the passage.
A computer-implemented method for re-calibrating at least one yaw-angle of a wind turbine starting from an initial yaw-angle calibration of said wind turbine, the method comprising at least the following steps: a. receiving wind data; b. based on at least said wind data: - calculating an appropriate yaw-angle, and - determining a turbulence intensity estimation value related to said appropriate yaw-angle, wherein the turbulence intensity being a ratio of wind speed deviation to average wind speed over a pre-determined period of time; c. instructing said wind turbine to align according to said calculated yaw-angle; d. after attainment of said yaw-angle alignment, retrieving wind turbine specific wind speed data; e. based on said retrieved wind turbine specific wind data, calculating a turbulence intensity detection value; f. comparing said turbulence intensity detection value with said turbulence intensity estimation value and calculating a turbulence intensity deviation value; g. if said turbulence intensity deviation value is above a pre-determined deviation threshold, searching a matching yaw-angle having a turbulence intensity estimation value that matches with said turbulence intensity detection value; h. if a matching yaw-angle is found, instructing said wind turbine to align according to that matching yaw-angle. a. receiving wind data; b. based on at least said wind data: - calculating an appropriate yaw-angle, and - determining a turbulence intensity estimation value related to said appropriate yaw-angle, wherein the turbulence intensity being a ratio of wind speed deviation to average wind speed over a pre-determined period of time; - calculating an appropriate yaw-angle, and - determining a turbulence intensity estimation value related to said appropriate yaw-angle, wherein the turbulence intensity being a ratio of wind speed deviation to average wind speed over a pre-determined period of time; c. instructing said wind turbine to align according to said calculated yaw-angle; d. after attainment of said yaw-angle alignment, retrieving wind turbine specific wind speed data; e. based on said retrieved wind turbine specific wind data, calculating a turbulence intensity detection value; f. comparing said turbulence intensity detection value with said turbulence intensity estimation value and calculating a turbulence intensity deviation value; g. if said turbulence intensity deviation value is above a pre-determined deviation threshold, searching a matching yaw-angle having a turbulence intensity estimation value that matches with said turbulence intensity detection value; h. if a matching yaw-angle is found, instructing said wind turbine to align according to that matching yaw-angle.
A method of controlling an addressed point-to-point call of an Internet telephone service over an addressed packet-based data network (309; 400; 504; 806) between data processing devices (302 to 307; 410,-420; 800, 803 to 805) connected to the network, each such data processing device being arranged to conduct an addressed point-to-point Internet telephone service directly between itself and another such data processing device and being either an end user device or a gateway server giving access to remote telephony devices, the method comprising prior registration, in a register (R10 to R99), of the respective current network address and identifier for each such device connected to the network; and the method being characterised by: additional prior registration of the respective data capacities for the devices; at a source processing device connected to the network, communicating, using addressed packet-based communication, with a call control apparatus, also connected to the network, by packetised instruction signals for identifying a destination processing device and requesting a particular link capacity for a connection to that identified destination processing device; and responding at the call control apparatus to receipt of the instruction signals by determining from the requested link capacity and the registered data capacity for the identified destination processing device whether there was any conflict and if not determining the address of the destination processing device and at least communicating (720, 721) the address of the source processing device to the destination processing device for use by the destination processing device in conducting an addressed point-to-point packet-based telephony call over the network directly between the source and destination processing devices (410, 420). additional prior registration of the respective data capacities for the devices; at a source processing device connected to the network, communicating, using addressed packet-based communication, with a call control apparatus, also connected to the network, by packetised instruction signals for identifying a destination processing device and requesting a particular link capacity for a connection to that identified destination processing device; and responding at the call control apparatus to receipt of the instruction signals by determining from the requested link capacity and the registered data capacity for the identified destination processing device whether there was any conflict and if not determining the address of the destination processing device and at least communicating (720, 721) the address of the source processing device to the destination processing device for use by the destination processing device in conducting an addressed point-to-point packet-based telephony call over the network directly between the source and destination processing devices (410, 420).
A method for adjusting a dynamic scale indicator on a flight display of an aircraft, comprising: receiving an operational status parameter for the aircraft from an avionics unit located onboard the aircraft; generating the dynamic scale indicator that is located on the flight display of the aircraft, where the dynamic scale indicator includes a value range that represents operational status parameter values greater than a selected setting value and a value range that represents operational status parameter values less the selected setting value; translating the operational status parameter into a value that is represented on the dynamic scale indicator; characterised in that the method further comprises adjusting the value ranges shown on the dynamic scale indicator by: fading the value range below the selected setting value from the dynamic scale indicator when the operational status parameter value is above the selected setting value, fading the value range above the selected setting value from the dynamic scale indicator when the operational status parameter value is below the selected setting value, and fading the value range from the dynamic scale indicator to the extent that the value range exceeds the operational status parameter value; and displaying the dynamic scale indicator with the adjusted value ranges on the display. receiving an operational status parameter for the aircraft from an avionics unit located onboard the aircraft; generating the dynamic scale indicator that is located on the flight display of the aircraft, where the dynamic scale indicator includes a value range that represents operational status parameter values greater than a selected setting value and a value range that represents operational status parameter values less the selected setting value; translating the operational status parameter into a value that is represented on the dynamic scale indicator; characterised in that the method further comprises adjusting the value ranges shown on the dynamic scale indicator by: fading the value range below the selected setting value from the dynamic scale indicator when the operational status parameter value is above the selected setting value, fading the value range above the selected setting value from the dynamic scale indicator when the operational status parameter value is below the selected setting value, and fading the value range from the dynamic scale indicator to the extent that the value range exceeds the operational status parameter value; and displaying the dynamic scale indicator with the adjusted value ranges on the display. fading the value range below the selected setting value from the dynamic scale indicator when the operational status parameter value is above the selected setting value, fading the value range above the selected setting value from the dynamic scale indicator when the operational status parameter value is below the selected setting value, and fading the value range from the dynamic scale indicator to the extent that the value range exceeds the operational status parameter value; and displaying the dynamic scale indicator with the adjusted value ranges on the display.
An intake device having a suction hood provided with a flow straightening member convex toward a fluid flow direction, wherein the flow straightening member is arranged to protrude from the inner space of the suction hood and the protruding part of the flow straightening member is convex toward the opposite side of a fluid flow direction.
An attachment device for securing an elongate member to a medical instrument, said attachment device comprising: a liner (16; 22); a base comprising a first base aperture and a second base aperture; an adhesive; wherein said adhesive is disposed at least partially between said base and said liner (16; 22); and wherein said liner (16; 22) is at least one of (i) at least partially between said first base aperture and said second base aperture and is adjacent to said adhesive, and (ii) configured to cover a portion of the adhesive disposed on the base between the first base aperture and a first outer edge of the attachment device, and between the second base aperture and a second outer edge of the attachment device; characterized in that said liner (16; 22) is configured to allow the elongate member to move axially along an axis defined by said first base aperture and said second base aperture when said attachment device is attached to the medical instrument via an exposed portion of the adhesive. a liner (16; 22); a base comprising a first base aperture and a second base aperture; an adhesive; wherein said adhesive is disposed at least partially between said base and said liner (16; 22); and wherein said liner (16; 22) is at least one of (i) at least partially between said first base aperture and said second base aperture and is adjacent to said adhesive, and (ii) configured to cover a portion of the adhesive disposed on the base between the first base aperture and a first outer edge of the attachment device, and between the second base aperture and a second outer edge of the attachment device; (i) at least partially between said first base aperture and said second base aperture and is adjacent to said adhesive, and (ii) configured to cover a portion of the adhesive disposed on the base between the first base aperture and a first outer edge of the attachment device, and between the second base aperture and a second outer edge of the attachment device; characterized in that said liner (16; 22) is configured to allow the elongate member to move axially along an axis defined by said first base aperture and said second base aperture when said attachment device is attached to the medical instrument via an exposed portion of the adhesive.
A gastrointestinal implant device comprising a sleeve (501, 601, 750) configured to extend into the duodenum comprising:- an artificial valve (1, 100, 110, 140, 301, 500, 552, 602) configured for placement at the pylorus to control flow from the stomach into the duodenal sleeve (501, 601, 750); and a support structure (20, 606) configured for the valve, wherein the support structure comprises a luminal prosthesis (20, 606), characterised in that the luminal prosthesis comprises a proximal flare. an artificial valve (1, 100, 110, 140, 301, 500, 552, 602) configured for placement at the pylorus to control flow from the stomach into the duodenal sleeve (501, 601, 750); and a support structure (20, 606) configured for the valve, wherein the support structure comprises a luminal prosthesis (20, 606), characterised in that the luminal prosthesis comprises a proximal flare.
A turbine ring assembly comprising a ring support structure and a plurality of ring sectors made of ceramic matrix composite material, each ring sector having a portion forming an annular base with an inside face relative to the radial direction defining the inside face of the turbine ring, and an outside face relative to the radial direction from which there extends a wall defining an internal housing in which a holder member (10; 10') is present, the holder member (10; 10') being connected to the ring support structure and comprising a body (11; 11') from which elastically deformable holder elements (12; 12') extend inside the internal housing on either side of the body (11; 11'), the holder elements (12; 12') bearing against the wall, the turbine ring assembly being characterized in that the holder elements exert pressure against the ring sector along radial and axial directions (R, A), and in that the holder member is made of metal material.
A method of displaying a three-dimensional navigation map, comprising the steps of: determining a route of a vehicle (902, 1002, 1102); receiving within the vehicle a two-dimensional footprint of a building that is disposed within a geographic area, the geographic area including the route of the vehicle (904, 1104); receiving attribute information, including geometry information, associated with the building, the attribute information being received within the vehicle; rendering a visual representation of the building based upon the two-dimensional footprint and the attribute information; characterized by the steps of: decomposing the two-dimensional footprint into two or more tractable parts, wherein each of the two or more tractable parts comprises a basic unit of the two-dimensional footprint; and modeling each of the two or more tractable parts separately in combination with a respective portion of the geometry information associated with each of the two or more tractable parts, wherein the rendering of the visual representation of the building is based upon a combination of the modelings of each of the two or more tractable parts. determining a route of a vehicle (902, 1002, 1102); receiving within the vehicle a two-dimensional footprint of a building that is disposed within a geographic area, the geographic area including the route of the vehicle (904, 1104); receiving attribute information, including geometry information, associated with the building, the attribute information being received within the vehicle; rendering a visual representation of the building based upon the two-dimensional footprint and the attribute information; characterized by the steps of: decomposing the two-dimensional footprint into two or more tractable parts, wherein each of the two or more tractable parts comprises a basic unit of the two-dimensional footprint; and modeling each of the two or more tractable parts separately in combination with a respective portion of the geometry information associated with each of the two or more tractable parts, wherein the rendering of the visual representation of the building is based upon a combination of the modelings of each of the two or more tractable parts. decomposing the two-dimensional footprint into two or more tractable parts, wherein each of the two or more tractable parts comprises a basic unit of the two-dimensional footprint; and modeling each of the two or more tractable parts separately in combination with a respective portion of the geometry information associated with each of the two or more tractable parts, wherein the rendering of the visual representation of the building is based upon a combination of the modelings of each of the two or more tractable parts.
A genetically modified microorganism producing methionine by fermentation, wherein said microorganism is further genetically modified for - overexpressing the heterologous functional genes coding for the protein thiocarboxylate dependent methionine biosynthetic pathway of Wolinella succinogenes, hcyS, hcyD, hcyF and sir from Wolinella succinogenes, and for expressing functional genes encoding - a polypeptide having an homoserine O-acetyltransferase activity without feedback inhibition by methionine and/or S-adenosylmethionine and, - a polypeptide having O-acetylhomoserine sulfhydrylase activity. - overexpressing the heterologous functional genes coding for the protein thiocarboxylate dependent methionine biosynthetic pathway of Wolinella succinogenes, hcyS, hcyD, hcyF and sir from Wolinella succinogenes, and for expressing functional genes encoding - a polypeptide having an homoserine O-acetyltransferase activity without feedback inhibition by methionine and/or S-adenosylmethionine and, - a polypeptide having O-acetylhomoserine sulfhydrylase activity.
Filter device for filtering particles from an air stream, having an inlet channel through which the air to be purified flows, at least one filter element (8, 8') through which a flow can pass and which is held replaceably in a flow channel, and an outlet channel through which the purified air flows, wherein the filter device has an insertion chamber which can be closed by a door and from which a filter element (8, 8') can be fed to the flow channel, and an output chamber which can be closed by a closure element (17, 19) and into which a filter element (8, 8') can be fed from the flow channel, wherein the closure element (17, 19) of the output chamber is locked in the closed position via a locking mechanism when the door on the insertion chamber is open and the output chamber and the insertion chamber are connected to the same flow channel, characterized in that the closure element (17, 19) of the output chamber can be opened only when the door of the insertion chamber is closed.
A device, comprising: a processor; and a protocol stack to: receive information from the processor; generate one or more transaction layer packets based on the information; generate one or more flits comprising the transaction layer packets, each flit protected by a flit-level cyclic redundancy check, CRC, scheme; and transmit the one or more flits across one or more lanes of a link to a receiving device, wherein each flit comprises one or more flit-level CRC codes, the protocol stack to further transmit the one or more flit-level CRC codes across the one or more lanes, characterized in that each flit is further protected by a forward error correction, FEC, scheme applied on a per-lane basis. a processor; and a protocol stack to: receive information from the processor; generate one or more transaction layer packets based on the information; generate one or more flits comprising the transaction layer packets, each flit protected by a flit-level cyclic redundancy check, CRC, scheme; and transmit the one or more flits across one or more lanes of a link to a receiving device, receive information from the processor; generate one or more transaction layer packets based on the information; generate one or more flits comprising the transaction layer packets, each flit protected by a flit-level cyclic redundancy check, CRC, scheme; and transmit the one or more flits across one or more lanes of a link to a receiving device, wherein each flit comprises one or more flit-level CRC codes, the protocol stack to further transmit the one or more flit-level CRC codes across the one or more lanes, characterized in that each flit is further protected by a forward error correction, FEC, scheme applied on a per-lane basis.
A method for the strand displacement amplification of a population of double stranded nucleic acid sequences comprising: a. modifying the ends of the strands in the population such that at least one of the ends contains a low melting point region of sequence which, at a temperature of 37-80 °C, is at least transiently single stranded; b. copying the population of nucleic acid molecules having low melting point ends using one or more amplification primers which hybridise to the low melting point ends, wherein the primers have a 5' single stranded section beyond the 3' end of the template population of nucleic acid molecules such that the 3' end of the template is extended to form a complete recognition site for an endonuclease, and the 3' end of the primer is extended by strand displacement to copy the template; c. using the complete recognition site for the endonuclease to nick the extended strand, thereby releasing a free 3'-OH group within the primer; and d. extending the freed 3'-OH group by strand displacement to re-copy the template, wherein steps b, c and d are performed isothermally, thereby resulting in the strand displacement amplification of the population of double stranded nucleic acid sequences. a. modifying the ends of the strands in the population such that at least one of the ends contains a low melting point region of sequence which, at a temperature of 37-80 °C, is at least transiently single stranded; b. copying the population of nucleic acid molecules having low melting point ends using one or more amplification primers which hybridise to the low melting point ends, wherein the primers have a 5' single stranded section beyond the 3' end of the template population of nucleic acid molecules such that the 3' end of the template is extended to form a complete recognition site for an endonuclease, and the 3' end of the primer is extended by strand displacement to copy the template; c. using the complete recognition site for the endonuclease to nick the extended strand, thereby releasing a free 3'-OH group within the primer; and d. extending the freed 3'-OH group by strand displacement to re-copy the template,