mhurhangee/ep-ind-claims huggingface dataset:
A method for gas turbine start-up, the method comprising: a) placing a static starter in a torque control mode, wherein the static starter is an adjustable speed ac drive system to start a gas turbine - synchronous generator set via the synchronous generator; b) sending a torque reference to the static starter to establish a startup torque for the gas turbine; c) calculating an electrical power output required from the static starter to determine the current set points; d) setting current set points for the static starter; e) modulating a current output to achieve the startup torque; f) determining a difference between a calculated static starter current, and an actual static starter current; g) determining if the difference between the calculated static starter current, and the actual static starter current is greater than a predetermined ramp rate of current; and h) in response to the difference between the calculated static starter current, and the actual static starter current being less than the predetermined ramp rate, comparing gas turbine torque request with the output torque generated by the static starter and repeating steps b) through g). a) placing a static starter in a torque control mode, wherein the static starter is an adjustable speed ac drive system to start a gas turbine - synchronous generator set via the synchronous generator; b) sending a torque reference to the static starter to establish a startup torque for the gas turbine; c) calculating an electrical power output required from the static starter to determine the current set points; d) setting current set points for the static starter; e) modulating a current output to achieve the startup torque; f) determining a difference between a calculated static starter current, and an actual static starter current; g) determining if the difference between the calculated static starter current, and the actual static starter current is greater than a predetermined ramp rate of current; and h) in response to the difference between the calculated static starter current, and the actual static starter current being less than the predetermined ramp rate, comparing gas turbine torque request with the output torque generated by the static starter and repeating steps b) through g).
A computer-implemented method for constructing a seismic image of a subterranean formation, comprising: receiving seismic data obtained by a sensor in response to a sound vibration generated by a source that reflects off of horizons in a subterranean formation; building a wavelet in a time domain using the seismic data, wherein the wavelet includes a number of oscillations per sampling unit, and wherein a length of the wavelet corresponds to the number of oscillations; time-shifting the wavelet; scaling the length of the wavelet after time-shifting the wavelet such that an amplitude on one or more samples of the wavelet proximate the center remains substantially unaltered and the amplitude of the samples proximate one or both ends of the wavelet decay toward zero; performing a Fourier transform on the wavelet to transform the wavelet from the time domain into the frequency domain; scaling the wavelet such that a peak amplitude of the wavelet, when transformed into the frequency domain, is substantially unity; convolving the wavelet with a trace of the seismic data; and generating the seismic image of the subterranean formation based at least partially upon the wavelet. receiving seismic data obtained by a sensor in response to a sound vibration generated by a source that reflects off of horizons in a subterranean formation; building a wavelet in a time domain using the seismic data, wherein the wavelet includes a number of oscillations per sampling unit, and wherein a length of the wavelet corresponds to the number of oscillations; time-shifting the wavelet; scaling the length of the wavelet after time-shifting the wavelet such that an amplitude on one or more samples of the wavelet proximate the center remains substantially unaltered and the amplitude of the samples proximate one or both ends of the wavelet decay toward zero; performing a Fourier transform on the wavelet to transform the wavelet from the time domain into the frequency domain; scaling the wavelet such that a peak amplitude of the wavelet, when transformed into the frequency domain, is substantially unity; convolving the wavelet with a trace of the seismic data; and generating the seismic image of the subterranean formation based at least partially upon the wavelet.
A backlight unit, comprising: a substrate; a reflection sheet positioned on the substrate; a light source mounted on the substrate; a lens disposed over the light source and including a top surface and a bottom surface opposite to the top surface, wherein the top surface includes an inverse-conical groove, and wherein the inverse-conical groove of the top surface of the lens reflects at least a part of light from the light source toward an inverse-conical side part of the lens, and wherein the bottom surface includes a plane surface facing the substrate and a conical groove facing the light source; and characterised in that; a plurality of patterns is positioned between the substrate and the plane surface of the bottom surface of the lens, the plurality of patterns being configured to reduce an amount of the reflected light, wherein the plurality of patterns surrounds the light source. a substrate; a reflection sheet positioned on the substrate; a light source mounted on the substrate; a lens disposed over the light source and including a top surface and a bottom surface opposite to the top surface, wherein the top surface includes an inverse-conical groove, and wherein the inverse-conical groove of the top surface of the lens reflects at least a part of light from the light source toward an inverse-conical side part of the lens, and wherein the bottom surface includes a plane surface facing the substrate and a conical groove facing the light source; and characterised in that; a plurality of patterns is positioned between the substrate and the plane surface of the bottom surface of the lens, the plurality of patterns being configured to reduce an amount of the reflected light, wherein the plurality of patterns surrounds the light source.
A method for utilizing a Diameter proxy agent to communicate SMS messages in a Diameter network, the method comprising: at a Diameter proxy agent located in a home network: receiving, from a mobility management entity, MME, via a Diameter interface, a mobile originated-forward short message, MO-FSM, message directed to a short message service, SMS, service center located in the home network, wherein the MO-FSM message is originated from a sending mobile subscriber; utilizing a SMS service center address contained in the received MO-FSM message to query a local service center database in the Diameter proxy agent, which contains a list of entries that includes valid SMS service center addresses associated with the home network, to determine if the SMS service center is located in or hosted by the home network; if the SMS service center is located in the home network, querying a number portability database to determine whether the sending mobile subscriber has been ported to a foreign network or is otherwise not a subscriber to the home network; in response to determining the sending mobile subscriber is not a subscriber to the home network, sending an error message to the sending mobile subscriber; and in response to determining the sending mobile subscriber is a subscriber to the home network, forwarding the MO-FSM message to the SMS service center associated with the home network. receiving, from a mobility management entity, MME, via a Diameter interface, a mobile originated-forward short message, MO-FSM, message directed to a short message service, SMS, service center located in the home network, wherein the MO-FSM message is originated from a sending mobile subscriber; utilizing a SMS service center address contained in the received MO-FSM message to query a local service center database in the Diameter proxy agent, which contains a list of entries that includes valid SMS service center addresses associated with the home network, to determine if the SMS service center is located in or hosted by the home network; if the SMS service center is located in the home network, querying a number portability database to determine whether the sending mobile subscriber has been ported to a foreign network or is otherwise not a subscriber to the home network; in response to determining the sending mobile subscriber is not a subscriber to the home network, sending an error message to the sending mobile subscriber; and in response to determining the sending mobile subscriber is a subscriber to the home network, forwarding the MO-FSM message to the SMS service center associated with the home network.
A printing assembly for a rotary offset press, comprising a plate cylinder and a loading device for loading a printing plate on the plate cylinder, wherein the loading device comprises a magazine for receiving at least one printing plate and transferring it from the magazine to the plate cylinder, the loading device comprising at least one guide rail to guide a printing plate during transfer thereof by cooperation with a notch of a front edge of the printing plate, the notch sliding along the guide rail during the transfer, characterized in that the plate cylinder comprises at least one fastening slot for inserting and fastening front and rear edges of printing plates, each fastening slot comprising indexing slugs arranged in the fastening slot, each to be inserted into a notch of a front edge of the printing plate for lateral positioning of the printing plate along the plate cylinder, each guide rail being provided to engage with a notch of a front edge designed to engage with an indexing slug provided on the plate cylinder, the magazine being arranged such that the outlet of the magazine extends along the plate cylinder and each guide rail is aligned with a respective indexing slug.
A crystalline pharmaceutically acceptable salt of a compound of Formula I wherein said salt is benzoate, 4-aminobenzoate, 4-hydroxybenzoate, orotate, 4-hydroxybenzenesulfonate or 4-aminobenzenesulfonate.
A radar system comprising: a radar sensor comprising an antenna configured to emit a radar beam towards a predefined region; and a reflector spaced apart from the radar sensor and symmetrical with respect to a line of symmetry or a plane of symmetry, wherein the line of symmetry or the plane of symmetry is parallel to a beam axis of the radar beam, wherein the reflector is configured to: redirect at least part of the radar beam towards a target region different from the predefined region; and redirect a reflection of the radar beam originating from the target region onto the radar sensor; the radar system being characterized by the line of symmetry or the plane of symmetry being displaced with respect to a phase center of the antenna. a radar sensor comprising an antenna configured to emit a radar beam towards a predefined region; and a reflector spaced apart from the radar sensor and symmetrical with respect to a line of symmetry or a plane of symmetry, wherein the line of symmetry or the plane of symmetry is parallel to a beam axis of the radar beam, wherein the reflector is configured to: redirect at least part of the radar beam towards a target region different from the predefined region; and redirect a reflection of the radar beam originating from the target region onto the radar sensor; redirect at least part of the radar beam towards a target region different from the predefined region; and redirect a reflection of the radar beam originating from the target region onto the radar sensor; the radar system being characterized by the line of symmetry or the plane of symmetry being displaced with respect to a phase center of the antenna.
A method for obtaining signalling information in a packet switched network, the method comprising the steps of: a. a first node (401, 501) sending a first request message (413, 423, 521) for setting up a test call, comprising a first request for collecting signalling information towards a second node (407, 507) comprised by the packet switched network; b. the second node sending a call setup request message (415, 515) to the first node (401, 501) on receipt of the request for setting up a test call, the call setup request message (415, 522a) comprising a trace request and trace information; c. routing the call setup request message (415, 515) via at least one third node (302a -d, 402, 502) in the packet switched network between the second node (407, 507) and the first node (401, 501), the at least one third node (302a -d, 402, 502) adding signaling information relating to the third node to the trace information of the call setup request message; d. the first node (401, 501) receiving (417, 416b, 522b) the call setup request message, the call setup request message comprising trace information added by any third node (302a -d, 402, 502) between the second node (407, 507) and the first node (401, 501). a. a first node (401, 501) sending a first request message (413, 423, 521) for setting up a test call, comprising a first request for collecting signalling information towards a second node (407, 507) comprised by the packet switched network; b. the second node sending a call setup request message (415, 515) to the first node (401, 501) on receipt of the request for setting up a test call, the call setup request message (415, 522a) comprising a trace request and trace information; c. routing the call setup request message (415, 515) via at least one third node (302a -d, 402, 502) in the packet switched network between the second node (407, 507) and the first node (401, 501), the at least one third node (302a -d, 402, 502) adding signaling information relating to the third node to the trace information of the call setup request message; d. the first node (401, 501) receiving (417, 416b, 522b) the call setup request message, the call setup request message comprising trace information added by any third node (302a -d, 402, 502) between the second node (407, 507) and the first node (401, 501).
A process for the manufacture of bonded laid structures from yarns, characterized in that during the laying process a thermally fusible material is applied to the yarns over their entire length via a thermal spray process and the yarns are subsequently brought together while the thermally fusible material, applied via the thermal spray process, is still in a plastic or molten state.
A method of operating an aircraft engine (10, 100) of an aircraft, the aircraft engine (10, 100) having a common-rail fuel injection system for injecting fuel into a combustion chamber of the aircraft engine (10, 100), the method comprising: pressurizing fuel for circulation through the common-rail fuel injection system; circulating a portion of the pressurized fuel through a motive flow inlet of an ejector pump, wherein the portion of the pressurized fuel is a backflow of fuel from at least one common-rail injector (106, 110) of the common-rail fuel injection system, connected to a return conduit for receiving the backflow of fuel, the method including circulating the backflow of fuel through the motive flow inlet of the ejector pump; diverting fuel from a plurality of fuel conduits via a bypass conduit, the fuel conduits connecting a high-pressure pump to at least one common-rail injector (106, 110) of the common-rail fuel injection system, the bypass conduit fluidly connected to the fuel conduits, the bypass conduit having a plurality of upstream connection points each being fluidly connected to a respective one of the fuel conduits, the bypass conduit having a downstream connection point connected to the return conduit; and entraining a flow through the ejector pump with both of the backflow of fuel and the diverted fuel circulating through the motive flow inlet. pressurizing fuel for circulation through the common-rail fuel injection system; circulating a portion of the pressurized fuel through a motive flow inlet of an ejector pump, wherein the portion of the pressurized fuel is a backflow of fuel from at least one common-rail injector (106, 110) of the common-rail fuel injection system, connected to a return conduit for receiving the backflow of fuel, the method including circulating the backflow of fuel through the motive flow inlet of the ejector pump; diverting fuel from a plurality of fuel conduits via a bypass conduit, the fuel conduits connecting a high-pressure pump to at least one common-rail injector (106, 110) of the common-rail fuel injection system, the bypass conduit fluidly connected to the fuel conduits, the bypass conduit having a plurality of upstream connection points each being fluidly connected to a respective one of the fuel conduits, the bypass conduit having a downstream connection point connected to the return conduit; and entraining a flow through the ejector pump with both of the backflow of fuel and the diverted fuel circulating through the motive flow inlet.
A press pad (1, 7) for a single- or multi-daylight hot press, containing - a textile sheet material (2, 8) formed from threads or fibres, and - a silicone elastomer produced by crosslinking silicone rubber and/or a copolymer produced by crosslinking silicone rubber and fluorosilicone rubber and/or a copolymer produced by crosslinking silicone rubber and fluoro rubber, characterised in that the silicone elastomer and/or the copolymer is/are addition-crosslinked, wherein silicone polymers that contain vinyl groups, a crosslinker that contains Si-H groups, and a platinum, palladium or rhodium catalyst are present for the addition-crosslinking. - a textile sheet material (2, 8) formed from threads or fibres, and - a silicone elastomer produced by crosslinking silicone rubber and/or a copolymer produced by crosslinking silicone rubber and fluorosilicone rubber and/or a copolymer produced by crosslinking silicone rubber and fluoro rubber,
A method of using transmit time of RTP packet transmissions at a device coupled to a network, the method comprising: requesting one or more transmit time Real-Time-Protocol, RTP, header extensions for streaming media data through the network; receiving the streaming media data and the one or more transmit time RTP header extensions through the network; storing the received streaming media data and the one or more transmit time RTP header extensions; and transmitting through the network the streaming media data at times specified in the one or more transmit time RTP header extensions, wherein each of the one or more transmit time RTP header extensions is a sub-extension in an extensible extended RTP header of a packet of said streaming media data, wherein the sub-extension has a sub-extension name code and data, wherein the sub-extension name code uniquely identifies and describes the type of the data in the sub-extension, and a sub-extension identification, ID, identifying the sub-extension within each RTP packet. requesting one or more transmit time Real-Time-Protocol, RTP, header extensions for streaming media data through the network; receiving the streaming media data and the one or more transmit time RTP header extensions through the network; storing the received streaming media data and the one or more transmit time RTP header extensions; and transmitting through the network the streaming media data at times specified in the one or more transmit time RTP header extensions, wherein each of the one or more transmit time RTP header extensions is a sub-extension in an extensible extended RTP header of a packet of said streaming media data, wherein the sub-extension has a sub-extension name code and data, wherein the sub-extension name code uniquely identifies and describes the type of the data in the sub-extension, and a sub-extension identification, ID, identifying the sub-extension within each RTP packet.
A method for manufacturing a power cable, the method comprising: - providing at least one insulated conductor; - arranging a water barrier around the insulated conductor, said arranging the water barrier comprising: - providing a foil ( 300, 300') having two opposite edges; - wrapping the foil ( 300, 300') around the insulated conductor until the edges of the foil ( 300, 300') are overlapped to each other; - fastening the overlapped edges of the foil ( 300, 300') to each other with a bonding agent to form a corresponding foil seam; - deposing a metal coating on the foil ( 300, 300') at the foil seam by a thermal spray process. - providing at least one insulated conductor; - arranging a water barrier around the insulated conductor, said arranging the water barrier comprising: - providing a foil ( 300, 300') having two opposite edges; - wrapping the foil ( 300, 300') around the insulated conductor until the edges of the foil ( 300, 300') are overlapped to each other; - fastening the overlapped edges of the foil ( 300, 300') to each other with a bonding agent to form a corresponding foil seam; - deposing a metal coating on the foil ( 300, 300') at the foil seam by a thermal spray process. - providing a foil ( 300, 300') having two opposite edges; - wrapping the foil ( 300, 300') around the insulated conductor until the edges of the foil ( 300, 300') are overlapped to each other; - fastening the overlapped edges of the foil ( 300, 300') to each other with a bonding agent to form a corresponding foil seam; - deposing a metal coating on the foil ( 300, 300') at the foil seam by a thermal spray process.
A turbine blade maintenance method, the turbine blade including internal cooling flow channels for circulating a refrigerant, the turbine blade maintenance method comprising: a scale cleaning process where ultrasonic cleaning treatment in which the turbine blade is immersed in a water basin and ultrasonic sound waves are conducted into the water basin to clean the turbine blade, and pressurized-water cleaning treatment in which pressurized water is sprayed into the internal cooling flow channels after performing the ultrasonic cleaning treatment are performed at least once; and a residual-stress removing process where heat treatment is performed so as to remove residual stress in the turbine blade after performing the scale cleaning process, wherein the turbine blade includes a protective layer consisting of a first coating layer applied to an external surface and a second coating layer applied to outside of the first coating layer, and the turbine blade maintenance method comprises a second coating-layer removing process for removing the second coating layer by blast treatment before the residual-stress removing process. a scale cleaning process where ultrasonic cleaning treatment in which the turbine blade is immersed in a water basin and ultrasonic sound waves are conducted into the water basin to clean the turbine blade, and pressurized-water cleaning treatment in which pressurized water is sprayed into the internal cooling flow channels after performing the ultrasonic cleaning treatment are performed at least once; and a residual-stress removing process where heat treatment is performed so as to remove residual stress in the turbine blade after performing the scale cleaning process, wherein the turbine blade includes a protective layer consisting of a first coating layer applied to an external surface and a second coating layer applied to outside of the first coating layer, and the turbine blade maintenance method comprises a second coating-layer removing process for removing the second coating layer by blast treatment before the residual-stress removing process.