mhurhangee/ep-ind-claims huggingface dataset:
Multiplexing apparatus, said multiplexing apparatus including at least one common connection port (28, 28', 108, 134, C1, C2) and at least one channel connection port (24, 24', 26, 26', 110, 112, 114, 132, P1, P2, P3, P4, P5, P6, P7, P8), one or more radio frequency paths connected between said at least one common connection port (28, 28', 108, 134, C1, C2) and said at least one channel connection port (24, 24', 26, 26', 110, 112, 114, 132, P1, P2, P3, P4, P5, P6, P7, P8) for transmitting and/or receiving one or more radio frequency signals therealong, at least one bypass path (36, 36', 106, 106') provided between said at least one common port (28, 28', 108, 134, C1, C2) and at least one of said channel ports (24, 24', 26, 26', 110, 112, 114, 132, P1, P2, P3, P4, P5, P6, P7, P8) for the passage of direct current power and/or one or more control signals therealong, control means (104, 104')are provided in or associated with the apparatus to allow detection of one or more electrical values at or associated with one or more of the common (28, 28', 108, 134, C1, C2) and/or channel ports (24, 24', 26, 26', 110, 112, 114, 132, P1, P2, P3, P4, P5, P6, P7, P8) and to control whether the at least one bypass path (36, 36' 106, 106') is enabled or disabled according to the one or more electrical values detected, characterised in that the control means (104, 104') are arranged to detect which of the common (28, 28', 108, 134, C1, C2) and/or channel connection ports (24, 24', 26, 26', 110, 112, 114, 132, P1, P2, P3, P4, P5, P6, P7, P8) has direct current or voltage present at the port, and wherein if the common connection port (28, 28', 108, 134, C1, C2) is found to have direct current or voltage present, the control means (104, 104') is able to determine the apparatus is functioning in a de-multiplexing mode (128, Dc-Demux) in a transmission direction or is located at a top of a mast, and wherein if one or more of the channel connection ports (24, 24', 26, 26', 110, 112, 114, 132, P1, P2, P3, P4, P5, P6, P7, P8) is found to have direct current or voltage present, the control means (104, 104') is able to determine the apparatus is functioning in a multiplexing mode (130, Dc-Mux) in a transmission direction or is positioned at a base of a mast.
A map data correcting method for correcting map, data used in a vehicle using a controller, comprising: executing a first correction process of uniformly offsetting and rotating the map data as a whole to reduce a uniform error, the uniform error being a general position error of the map data; and characterized by executing a second correction process of reducing a distorted error in which a position error of the map data increases gradually from a reference point, the distorted error still remaining in the map data even after the first correction process, the second correction process comprising: setting the reference point at a position with a minimum error among positions included in the map data after the first correction process; calculating a correction amount of the distorted error, the correction amount increasing gradually from the set reference point; and correcting each of the positions included in the map data with the calculated correction amount. executing a first correction process of uniformly offsetting and rotating the map data as a whole to reduce a uniform error, the uniform error being a general position error of the map data; and characterized by executing a second correction process of reducing a distorted error in which a position error of the map data increases gradually from a reference point, the distorted error still remaining in the map data even after the first correction process, the second correction process comprising: setting the reference point at a position with a minimum error among positions included in the map data after the first correction process; calculating a correction amount of the distorted error, the correction amount increasing gradually from the set reference point; and correcting each of the positions included in the map data with the calculated correction amount. setting the reference point at a position with a minimum error among positions included in the map data after the first correction process; calculating a correction amount of the distorted error, the correction amount increasing gradually from the set reference point; and correcting each of the positions included in the map data with the calculated correction amount.
An active clearance control system for a gas turbine engine comprising: a structural member configured to be arranged near a blade tip, wherein the structural member comprises first and second structural members (60, 62) having flanges (64, 66) secured to one another by fasteners at a joint; an annular plenum with a C-shaped cross-section including first and second walls (72, 74) respectively providing first, inner and second, outer cavities (73, 75), the first wall including impingement holes, the plenum arranged over the joint; and a fluid source (82, 84) fluidly connected to the second cavity and configured to provide an impingement cooling flow from the second cavity through the impingement holes to the first cavity onto the structural member, wherein the first and second walls (72,74) are secured to one another to provide the first and second cavities. a structural member configured to be arranged near a blade tip, wherein the structural member comprises first and second structural members (60, 62) having flanges (64, 66) secured to one another by fasteners at a joint; an annular plenum with a C-shaped cross-section including first and second walls (72, 74) respectively providing first, inner and second, outer cavities (73, 75), the first wall including impingement holes, the plenum arranged over the joint; and a fluid source (82, 84) fluidly connected to the second cavity and configured to provide an impingement cooling flow from the second cavity through the impingement holes to the first cavity onto the structural member, wherein the first and second walls (72,74) are secured to one another to provide the first and second cavities.
A control device configured to control an AC motor comprising: an inverter configured to drive an AC motor; and a controller configured to control the inverter by pulse width modulation, wherein the controller limits an amplitude of a voltage command in the pulse width modulation to a predetermined upper limit value or less when performing overmodulation control of the inverter, characterized in that the predetermined upper limit value is set according to a carrier frequency fc in the pulse width modulation and a driving frequency f1 of the AC motor, wherein a relationship between the modulation rate Kh, the carrier frequency fc of the pulse width modulation, and the driving frequency f1 of the AC motor is expressed by mathematical Formula: K h ≤ 4 3 π ƒ c ƒ 1 and wherein the limit value V1MAX of the amplitude V1 of the voltage is set so that the modulation rate Kh is equal to or less than a limit value KhMAX, wherein the relationship between V1MAX and KhMAX is expressed by mathematical Formula: V 1 MAXc = K hMAX E DC 3 and wherein KhMAX is expressed by Formula: K hMAX = 4 3 π ƒ c ƒ 1 an inverter configured to drive an AC motor; and a controller configured to control the inverter by pulse width modulation, wherein the controller limits an amplitude of a voltage command in the pulse width modulation to a predetermined upper limit value or less when performing overmodulation control of the inverter, characterized in that the predetermined upper limit value is set according to a carrier frequency fc in the pulse width modulation and a driving frequency f1 of the AC motor, wherein a relationship between the modulation rate Kh, the carrier frequency fc of the pulse width modulation, and the driving frequency f1 of the AC motor is expressed by mathematical Formula: K h ≤ 4 3 π ƒ c ƒ 1 and wherein the limit value V1MAX of the amplitude V1 of the voltage is set so that the modulation rate Kh is equal to or less than a limit value KhMAX, wherein the relationship between V1MAX and KhMAX is expressed by mathematical Formula: V 1 MAXc = K hMAX E DC 3 and wherein KhMAX is expressed by Formula: K hMAX = 4 3 π ƒ c ƒ 1
A computer-implemented method comprising: identifying a first vehicle ahead of an autonomous vehicle; identifying a second vehicle ahead of the first vehicle, the first and second vehicles moving in substantially a same lane as the autonomous vehicle; determining a first buffer distance, the first buffer distance being a minimal distance behind the first vehicle at which the autonomous vehicle is predicted to substantially reach a speed of the first vehicle; determining a second buffer distance, the second buffer distance being a minimal distance behind the second vehicle at which the first vehicle is predicted to substantially reach a speed of the second vehicle; determining a distance behind the second vehicle at which to begin adjusting a speed of the autonomous vehicle based on the first and second buffer distances and the speed of the autonomous vehicle; and providing instructions by a computing device to adjust the speed of the autonomous vehicle based on the distance behind the second vehicle prior to detecting a change of the speed the first vehicle. identifying a first vehicle ahead of an autonomous vehicle; identifying a second vehicle ahead of the first vehicle, the first and second vehicles moving in substantially a same lane as the autonomous vehicle; determining a first buffer distance, the first buffer distance being a minimal distance behind the first vehicle at which the autonomous vehicle is predicted to substantially reach a speed of the first vehicle; determining a second buffer distance, the second buffer distance being a minimal distance behind the second vehicle at which the first vehicle is predicted to substantially reach a speed of the second vehicle; determining a distance behind the second vehicle at which to begin adjusting a speed of the autonomous vehicle based on the first and second buffer distances and the speed of the autonomous vehicle; and providing instructions by a computing device to adjust the speed of the autonomous vehicle based on the distance behind the second vehicle prior to detecting a change of the speed the first vehicle.
A Venturi device comprising: a housing defining a conduit (245, 345) and within the conduit a Venturi gap (210', 310); and a bypass check valve disposed downstream of and bypassing the Venturi gap (210', 310'); wherein the bypass check valve defines an internal cavity having a first seat, a second seat (226, 326), an inlet port, at least two outlet ports (231, 232 or 331, 333), all the ports being in fluid communication with the internal cavity, and a seal member within the internal cavity, the seal member being translatable between a closed position against the first seat and an open position against the second seat (226, 326); wherein the two outlet ports (231, 233 or 331, 333) enter the conduit (245, 345) at opposing positions disposed a distance from a top (250, 350) of the conduit (245, 345), the top (250, 350) of the conduit (245, 345) being located at a midsagittal plane of the housing, and a transition from a tapering section (283, 383) downstream of the Venturi gap (210', 310') and upstream of each of the two outlet ports (231, 233 or 331, 333) to a discharge section (285, 385) downstream of the two outlet ports (231, 233 or 331, 333) forms a gradually, continuously tapering interior surface of the conduit. a housing defining a conduit (245, 345) and within the conduit a Venturi gap (210', 310); and a bypass check valve disposed downstream of and bypassing the Venturi gap (210', 310'); wherein the bypass check valve defines an internal cavity having a first seat, a second seat (226, 326), an inlet port, at least two outlet ports (231, 232 or 331, 333), all the ports being in fluid communication with the internal cavity, and a seal member within the internal cavity, the seal member being translatable between a closed position against the first seat and an open position against the second seat (226, 326); wherein the two outlet ports (231, 233 or 331, 333) enter the conduit (245, 345) at opposing positions disposed a distance from a top (250, 350) of the conduit (245, 345), the top (250, 350) of the conduit (245, 345) being located at a midsagittal plane of the housing, and a transition from a tapering section (283, 383) downstream of the Venturi gap (210', 310') and upstream of each of the two outlet ports (231, 233 or 331, 333) to a discharge section (285, 385) downstream of the two outlet ports (231, 233 or 331, 333) forms a gradually, continuously tapering interior surface of the conduit.
An image sensor comprises a filter array (210, 310), a reading circuit, a controller (220, 320), a converter and an image output interface (250, 350), the controller (220, 320) is coupled to the reading circuit, the converter and the image output interface (250, 350), wherein the filter array (210, 310) comprises a plurality of color filter array (210, 310) patterns, each color filter array (210, 310) pattern comprises multiple-color filters and at least one infrared filter; the multiple-color filters are configured to capture visible rays; the IR filters are configured to capture IR rays; the reading circuit is configured, in an IR mode, to read out IR signals from pixels corresponding to the IR filters and multiple-color signals from pixels corresponding to a part of the multiple-color filters under control of the controller (220, 320), wherein the part of the multiple-color filters does not comprise all of the multiple-color filters; the reading circuit is configured, in an RGB-IR mode, to read out signals from pixels corresponding to all the filters of the image sensor; the converter is configured to convert the IR signals into IR digital signals under the control of the controller (220, 320); the image output interface (250, 350) is configured, in the IR mode, to output the IR digital signals under the control of the controller (220, 320), wherein the reading circuit comprises row selection circuit and column selection circuit, the row selection circuit is configured to skip filter rows in which no IR filter is located and select filter rows in which the IR filters are located when the image sensor enters an IR mode to sample signals from pixels corresponding to the selected filter rows, wherein the filter rows comprise at least one filter row in which no IR filter is located, and the column selection circuit is configured to select all filter columns when the image sensor enters the IR mode to sample signals from pixels corresponding to the selected filter columns.
A method for transmitting and processing an extended backward defection identification BDI message or an extended RDI message, characterized by the method comprising: an end node on a multi-protocol label switching MPLS transmission path generating an extended BDI message or an extended RDI message according to requirements, and transmitting the extended BDI message or the extended RDI message along the MPLS transmission path according to a path identifier ID corresponding to the extended BDI message or the extended RDI message; and when determining that the extended BDI message or the extended RDI message needs to be processed, a node on the MPLS transmission path that has received the extended BDI message or the extended RDI message identifying a type length value TLV message contained in the extended BDI message or the extended RDI message, and analyzing and processing an identifiable TLV message; wherein the step of the end node generating the extended BDI message or an or the extended RDI message according to requirements comprises: the end node encapsulating required operation administration and maintenance OAM function information by a TLV mode to obtain a TLV message, and encapsulating one or more TLV messages having a same processing node into a same extended BDI message or a same extended RDI message. an end node on a multi-protocol label switching MPLS transmission path generating an extended BDI message or an extended RDI message according to requirements, and transmitting the extended BDI message or the extended RDI message along the MPLS transmission path according to a path identifier ID corresponding to the extended BDI message or the extended RDI message; and when determining that the extended BDI message or the extended RDI message needs to be processed, a node on the MPLS transmission path that has received the extended BDI message or the extended RDI message identifying a type length value TLV message contained in the extended BDI message or the extended RDI message, and analyzing and processing an identifiable TLV message; the end node encapsulating required operation administration and maintenance OAM function information by a TLV mode to obtain a TLV message, and encapsulating one or more TLV messages having a same processing node into a same extended BDI message or a same extended RDI message.
A coated component comprising: a ceramic matrix composite substrate comprising silicon carbide and having a surface; a bondcoat on the surface of the substrate, wherein the bondcoat comprises a plurality of discrete particles dispersed within a matrix phase, wherein the matrix phase comprises mullite and defines 60% to 98% by volume of the bondcoat, and wherein the plurality of discrete particles comprises an oxygen getter and has 50% of its volume or greater formed of particles having an average size of 10 μm to 100 μm; and an environmental barrier coating on the bondcoat. a ceramic matrix composite substrate comprising silicon carbide and having a surface; a bondcoat on the surface of the substrate, wherein the bondcoat comprises a plurality of discrete particles dispersed within a matrix phase, wherein the matrix phase comprises mullite and defines 60% to 98% by volume of the bondcoat, and wherein the plurality of discrete particles comprises an oxygen getter and has 50% of its volume or greater formed of particles having an average size of 10 μm to 100 μm; and an environmental barrier coating on the bondcoat.
A system, comprising: a support structure having a surface; a set of optical transmitters perforating the surface of the support structure, wherein each optical transmitter of the set of optical transmitters is oriented in a different direction (125-a, 125-b) relative to each other optical transmitter of the set of optical transmitters; and an optical receiver comprising: a luminescence wavelength-converting fiber disposed on the surface of the support structure, wherein the luminescence wavelength-converting fiber is wrapped at least partially around the support structure and located between at least two pairs of the set of optical transmitters, and wherein the luminescence wavelength-converting fiber is configured to absorb light at a first wavelength and emit light within a channel of the luminescence wavelength-converting fiber at a second wavelength; and a detector coupled with at least one end of the luminescence wavelength-converting fiber, wherein the detector is configured to convert the light at the second wavelength to an electrical signal. a support structure having a surface; a set of optical transmitters perforating the surface of the support structure, wherein each optical transmitter of the set of optical transmitters is oriented in a different direction (125-a, 125-b) relative to each other optical transmitter of the set of optical transmitters; and an optical receiver comprising: a luminescence wavelength-converting fiber disposed on the surface of the support structure, wherein the luminescence wavelength-converting fiber is wrapped at least partially around the support structure and located between at least two pairs of the set of optical transmitters, and wherein the luminescence wavelength-converting fiber is configured to absorb light at a first wavelength and emit light within a channel of the luminescence wavelength-converting fiber at a second wavelength; and a detector coupled with at least one end of the luminescence wavelength-converting fiber, wherein the detector is configured to convert the light at the second wavelength to an electrical signal. a luminescence wavelength-converting fiber disposed on the surface of the support structure, wherein the luminescence wavelength-converting fiber is wrapped at least partially around the support structure and located between at least two pairs of the set of optical transmitters, and wherein the luminescence wavelength-converting fiber is configured to absorb light at a first wavelength and emit light within a channel of the luminescence wavelength-converting fiber at a second wavelength; and a detector coupled with at least one end of the luminescence wavelength-converting fiber, wherein the detector is configured to convert the light at the second wavelength to an electrical signal.
A device (214, 216) for securing a spinal rod to the spine comprising: a head portion having a channel extending therethrough for receiving a spinal rod, the channel in the head portion being bounded by opposed side walls (230, 232) each having a slot (294, 296) formed therein; a locking cap having opposed flanges (284, 286) receivable in the slots (294, 296) of the head portion and having an underside engageable with the exterior surface of the spinal rod; and a fastener portion (214, 226) depending from the head portion for engaging the spine, wherein the locking cap has a first portion and a second portion, the first portion of the locking cap having said opposed flanges (284, 286) receivable in the slots (294, 296) of the head portion, the second portion of the locking cap having said underside engageable with the exterior surface of the spinal rod; wherein the first and second portions of the locking cap being mechanically joined for rotation relative to one another, characterized in that the underside of the second portion of the locking cap has an elongated recess adapted to engage the spinal rod. a head portion having a channel extending therethrough for receiving a spinal rod, the channel in the head portion being bounded by opposed side walls (230, 232) each having a slot (294, 296) formed therein; a locking cap having opposed flanges (284, 286) receivable in the slots (294, 296) of the head portion and having an underside engageable with the exterior surface of the spinal rod; and a fastener portion (214, 226) depending from the head portion for engaging the spine,
A 1-substituted-2-azabicyclo[3.1.1]heptyl derivative represented by the structural formula: or the structural formula: or the structural formula: wherein: - R 0 is a nitrogen-protecting group selected from the group consisting of phenyl substituted in ortho, meta and/or para positions with one to three methoxy or methyl groups, benzyl substituted in ortho and/or para positions with one to three methoxy or methyl groups, pyridin-2-ylmethyl, pyridin-3-ylmethyl, pyridin-4-ylmethyl, methyl, ethyl, isopropyl, n-propyl, n- butyl and isobutyl; - R 1 is hydrogen and R 2 is hydroxyl, or R 1 in combination with R 2 is oxo; - R 3 is chloro; and - n is 0 or 1; and - Aryl is pyridin-2-yl or pyridin-3-yl or a pharmaceutically acceptable salt thereof, or a stereochemically isomeric form thereof, or a solvate thereof. - R 0 is a nitrogen-protecting group selected from the group consisting of phenyl substituted in ortho, meta and/or para positions with one to three methoxy or methyl groups, benzyl substituted in ortho and/or para positions with one to three methoxy or methyl groups, pyridin-2-ylmethyl, pyridin-3-ylmethyl, pyridin-4-ylmethyl, methyl, ethyl, isopropyl, n-propyl, n- butyl and isobutyl; - R 1 is hydrogen and R 2 is hydroxyl, or R 1 in combination with R 2 is oxo; - R 3 is chloro; and - n is 0 or 1; and - Aryl is pyridin-2-yl or pyridin-3-yl