mhurhangee/patent-ind-claim-en huggingface dataset:
A method of predicting a location of a satellite, comprising: a) receiving, at an RF antenna of a GNSS device, Broadcast ephemeris data, associated with a satellite from the satellite and valid for an effective period of time, and providing the ephemeris data to a Seed Generator on the device; b) converting, by the Seed Generator, the Broadcast ephemeris data to an initial position and velocity, and computing, by the Seed Generator, a set of force model coefficients based on the Broadcast ephemeris data that will best match future satellite orbit positions and velocities predictions, and assembling, by the Seed Generator, the initial position and velocity and the set of force model coefficients into Seed Data; c) providing the Seed Data to a Propagator on the GNSS device and computing, by the Propagator, predicted Orbit State Vectors for each satellite vehicle in the Seed Data and stores the resulting prediction data in a Prediction Buffer on the device as a set of polynomials, each with its own time tag, from which orbit state vectors can be computed; d) on a configurable interval, by an AGPS Interface Agent of the GNSS device retrieving the applicable polynomial and converting it into an orbit state vector for the current time and converting the orbit state vector into Synthetic Assistance data e) wherein the GNSS device uses the Synthetic Assistance data to determine the location of the satellite past the expiration time of the originally received Broadcast Ephemeris data. a) receiving, at an RF antenna of a GNSS device, Broadcast ephemeris data, associated with a satellite from the satellite and valid for an effective period of time, and providing the ephemeris data to a Seed Generator on the device; b) converting, by the Seed Generator, the Broadcast ephemeris data to an initial position and velocity, and computing, by the Seed Generator, a set of force model coefficients based on the Broadcast ephemeris data that will best match future satellite orbit positions and velocities predictions, and assembling, by the Seed Generator, the initial position and velocity and the set of force model coefficients into Seed Data; c) providing the Seed Data to a Propagator on the GNSS device and computing, by the Propagator, predicted Orbit State Vectors for each satellite vehicle in the Seed Data and stores the resulting prediction data in a Prediction Buffer on the device as a set of polynomials, each with its own time tag, from which orbit state vectors can be computed; d) on a configurable interval, by an AGPS Interface Agent of the GNSS device retrieving the applicable polynomial and converting it into an orbit state vector for the current time and converting the orbit state vector into Synthetic Assistance data e) wherein the GNSS device uses the Synthetic Assistance data to determine the location of the satellite past the expiration time of the originally received Broadcast Ephemeris data.
A method, comprising: obtaining (S601-S603), by a new access and mobility management function, AMF a registration request message from a terminal device, wherein the registration request message comprises identification information of the terminal device and an identifier of a packet data unit, PDU session to-be-activated when the terminal device in mobile initiated connection only, MICO mode needs to send uplink data; determining whether context information of the terminal device is stored locally; if there is no context information of the terminal device stored locally in the new AMF, requesting (S604), by the new AMF, the context information from the old AMF based on the identification information; and sending (S607), by the new AMF, the identifier of the PDU session to-be-activated to a session management network element to activate the PDU session. obtaining (S601-S603), by a new access and mobility management function, AMF a registration request message from a terminal device, wherein the registration request message comprises identification information of the terminal device and an identifier of a packet data unit, PDU session to-be-activated when the terminal device in mobile initiated connection only, MICO mode needs to send uplink data; determining whether context information of the terminal device is stored locally; if there is no context information of the terminal device stored locally in the new AMF, requesting (S604), by the new AMF, the context information from the old AMF based on the identification information; and sending (S607), by the new AMF, the identifier of the PDU session to-be-activated to a session management network element to activate the PDU session.
A tensioner comprising: a base ; a pivot arm pivotally mounted to the base ; a spring disposed between the pivot arm and the base ; an arcuate damping member engaged on one end of the spring , the arcuate damping member frictionally engaged with the base ; a pulley journalled to the pivot arm on a shaft ; the pivot arm comprising stamped metal and one or more reinforcing ribs ; and characterised by : the spring and/or the shaft being laser welded to the pivot arm ; and wherein the pivot arm further comprises dimples or protrusions for locating the spring and the shaft thereupon. a base ; a pivot arm pivotally mounted to the base ; a spring disposed between the pivot arm and the base ; an arcuate damping member engaged on one end of the spring , the arcuate damping member frictionally engaged with the base ; a pulley journalled to the pivot arm on a shaft ; the pivot arm comprising stamped metal and one or more reinforcing ribs ; and characterised by : the spring and/or the shaft being laser welded to the pivot arm ; and wherein the pivot arm further comprises dimples or protrusions for locating the spring and the shaft thereupon. the spring and/or the shaft being laser welded to the pivot arm ; and wherein the pivot arm further comprises dimples or protrusions for locating the spring and the shaft thereupon.
A positioning apparatus for supporting a rotatable arc of a C-arm of a mobile x-ray apparatus , the C-arm being mounted on a mobile cart with a stand and comprising an inner rotatable C-arm and a rigid outer C-arm which is attached to the stand by means of a pivoting mounting structure such that the C-arm can be oriented into a horizontal position said positioning apparatus comprising: - a base configured for positioning said apparatus on a floor and to support a horizontally positioned C-shaped top surface , the shape of the C-shaped top surface being an exact fit of the flat area of the surface of the underside of the horizontally oriented rotatable arc, - a horizontally positioned C-shaped top surface adapted to support said horizontally positioned rotable arc , wherein said top surface comprises: - a friction reduction mechanism embedded in said top surface reducing the friction between said surface and said rotable arc in the direction of a horizontal circular trajectory performed by said arc during the CBCT acquisition. - a base configured for positioning said apparatus on a floor and to support a horizontally positioned C-shaped top surface , the shape of the C-shaped top surface being an exact fit of the flat area of the surface of the underside of the horizontally oriented rotatable arc, - a horizontally positioned C-shaped top surface adapted to support said horizontally positioned rotable arc , - a friction reduction mechanism embedded in said top surface reducing the friction between said surface and said rotable arc in the direction of a horizontal circular trajectory performed by said arc during the CBCT acquisition.
A system for maximizing depth of field, DOF, with respect to an object imaged by a vision system camera and providing low drift, the system comprising: a vision system processor and said vision system camera , wherein the vision system camera comprises: an image sensor that transmits image data to the vision system processor, the image sensor defining a system optical axis (OAS), which extends perpendicularly from the sensor image plane ; a lens assembly arranged to provide a high DOF, the lens assembly defining a lens optical axis (OAO); a variable lens , arranged between the lens assembly and the image sensor, that changes focus in response to the processor; and a tilting mechanism that is configured to automatically vary the lens optical axis relative to the system optical axis while the focus of the variable lens is adjusted to the proper focal distance to image each portion of the overall field of view, FOV, so as to maximize DOF. a vision system processor and said vision system camera , wherein the vision system camera comprises: an image sensor that transmits image data to the vision system processor, the image sensor defining a system optical axis (OAS), which extends perpendicularly from the sensor image plane ; a lens assembly arranged to provide a high DOF, the lens assembly defining a lens optical axis (OAO); a variable lens , arranged between the lens assembly and the image sensor, that changes focus in response to the processor; and a tilting mechanism that is configured to automatically vary the lens optical axis relative to the system optical axis while the focus of the variable lens is adjusted to the proper focal distance to image each portion of the overall field of view, FOV, so as to maximize DOF.
Floating domestic effluent treatment plant, including at least one treatment unit comprising at least one first aerobic treatment tank integrated on a main floating platform so as to extend at least partially below the waterline of the platform, in order, under the effect of Archimedean buoyant force, to reduce the weight supported by the platform due to this aerobic treatment tank , the tank being provided with upstream connection means for supplying it with effluent to be treated and downstream connection means for discharging digested effluent, characterized in that the treatment unit includes at least one buffer storage tank for effluent to be treated, which is connected to the upstream connection means of the aerobic treatment tank and mounted on said main floating platform or a secondary floating platform so as to extend substantially below the waterline of said platform, characterized in that this buffer storage tank is defined as having a variable volume and consists of a liner .
Method for manufacturing a composite part comprising a textile and a thermoplastic resin comprising the following steps: a) providing a mold ; a0) applying a layer of a varnish composition (A0) at the bottom of the mold, b) applying at least a first composition (A, A1, A2), comprising at least one thermoplastic resin, on the layer obtained in the previous step; c) heating the mold obtained in the previous step, d) applying a textile to the heated thermoplastic resin; e) cooling the mold; f) removing the mold, wherein the method further comprises after step b), or after step a0), a step a1) of applying a second composition (B) which is a colored composition and comprises at least one thermoplastic or thermosetting resin, on all or part of the surface of the layer obtained in step b) or a0). a) providing a mold ; a0) applying a layer of a varnish composition (A0) at the bottom of the mold, b) applying at least a first composition (A, A1, A2), comprising at least one thermoplastic resin, on the layer obtained in the previous step; c) heating the mold obtained in the previous step, d) applying a textile to the heated thermoplastic resin; e) cooling the mold; f) removing the mold,
A computer apparatus for facilitating connected messaging between distributed control components comprising: an electronic computer executing a program stored in non-transient memory to: (a) communicate on a network connecting industrial control components storing control level data associated with tag names to provide a directory of tag names linked to route data of industrial control components holding the control level data associated with the tag name; (b) receive a request from a first industrial control component providing a tag name for control level data, wherein the program further executes to: identify if a pre-existing connection is associated with the tag name, and delete the tag name from that connection in case that a pre-existing connection is associated with the tag name; (c) open a connection between the apparatus and a second industrial control component using route data linked to the tag name from the directory and provide the first industrial control component with a pointer to the connection; (d) receive the pointer from the first industrial control component to exchange control level data between the first industrial control component and the second industrial control component associated with the tag name using the connection. (a) communicate on a network connecting industrial control components storing control level data associated with tag names to provide a directory of tag names linked to route data of industrial control components holding the control level data associated with the tag name; (b) receive a request from a first industrial control component providing a tag name for control level data, wherein the program further executes to: identify if a pre-existing connection is associated with the tag name, and delete the tag name from that connection in case that a pre-existing connection is associated with the tag name; identify if a pre-existing connection is associated with the tag name, and delete the tag name from that connection in case that a pre-existing connection is associated with the tag name; (c) open a connection between the apparatus and a second industrial control component using route data linked to the tag name from the directory and provide the first industrial control component with a pointer to the connection; (d) receive the pointer from the first industrial control component to exchange control level data between the first industrial control component and the second industrial control component associated with the tag name using the connection.
A method for booting application servers in parallel in a transaction processing environment, comprising: loading a plurality of server entries and a plurality of group entries into a memory, each of the plurality of server entries associated with one of a plurality of servers, each of the plurality of group entries being associated with one of a plurality of server groups, wherein the server entry of a server that depends on one or more other servers or server groups comprises a dependency attribute designating the servers or server groups on which it depends and wherein the group entry of a server group that depends on one or more other servers or server groups comprises a dependency attribute designating the servers or server groups on which it depends; creating a dependency map among the plurality of server entries and the plurality of group entries based upon the dependencies between the servers and groups according to the dependency attributes; checking for servers among the plurality of servers that have no dependency, wherein a server that has no dependency is a server that is not dependent on another server being booted and initialized to function and has another server or server group depending on the server that has no dependency being booted and initialized to function; booting each of the servers among the plurality that have no dependency in parallel; initializing each of the servers among the plurality that have no dependency; and booting the remaining non-booted servers according to the created dependency map. loading a plurality of server entries and a plurality of group entries into a memory, each of the plurality of server entries associated with one of a plurality of servers, each of the plurality of group entries being associated with one of a plurality of server groups, wherein the server entry of a server that depends on one or more other servers or server groups comprises a dependency attribute designating the servers or server groups on which it depends and wherein the group entry of a server group that depends on one or more other servers or server groups comprises a dependency attribute designating the servers or server groups on which it depends; creating a dependency map among the plurality of server entries and the plurality of group entries based upon the dependencies between the servers and groups according to the dependency attributes; checking for servers among the plurality of servers that have no dependency, wherein a server that has no dependency is a server that is not dependent on another server being booted and initialized to function and has another server or server group depending on the server that has no dependency being booted and initialized to function; booting each of the servers among the plurality that have no dependency in parallel; initializing each of the servers among the plurality that have no dependency; and booting the remaining non-booted servers according to the created dependency map.
A combustion system comprising a furnace with an enclosure and burners having different elevation, a mill for milling solid fuel to be supplied to the burners , a vapour separation system for receiving a non-homogeneous flow of vapour and pulverized fuel and providing a fuel rich flow through first ducting to burners having a lower elevation, and a fuel lean flow through second ducting to burners having a higher elevation, the first ducting and the second ducting branching from a branching area , characterised in that the first ducting comprises an impeller at a position downstream the branching area with reference to the flow (F) of vapour and pulverized fuel, the impeller defining a fuel concentrated content flow (FC) and a fuel reduced content flow (FR), and in that the combustion system further comprises ducting for supplying the fuel concentrated content flow (FC) to at least one first burner of the burners having a lower elevation and ducting for supplying the fuel reduced content flow (FR) to at least one second burner of the burners having a lower elevation, wherein the at least a second burner has a higher elevation than the at least a first burner .
A contoured turbine airfoil assembly including: an end wall formed by platforms located circumferentially adjacent to each other; a row of airfoils integrally joined to the end wall and spaced laterally apart to define flow passages therebetween for channeling gases in an axial direction; each of the airfoils including a concave pressure side and a laterally opposite convex suction side extending in a chordwise direction between opposite leading and trailing edges , the chordwise direction extending generally in the axial direction; and characterized in that , troughs are defined in the end wall and located forward of the leading edges of the airfoils and extending to an axial location at least even with the leading edges of the airfoils , the troughs having a direction of elongation aligned to direct flow into the flow passage centrally between each pair of airfoils , wherein the end wall adjacent to a suction side mid-chord location of each airfoil includes a mid-chord bulge , the mid-chord bulge defining a higher elevation than a circumferentially opposite, pressure side mid-chord location of an adjacent airfoil . an end wall formed by platforms located circumferentially adjacent to each other; a row of airfoils integrally joined to the end wall and spaced laterally apart to define flow passages therebetween for channeling gases in an axial direction; each of the airfoils including a concave pressure side and a laterally opposite convex suction side extending in a chordwise direction between opposite leading and trailing edges , the chordwise direction extending generally in the axial direction; and characterized in that , troughs are defined in the end wall and located forward of the leading edges of the airfoils and extending to an axial location at least even with the leading edges of the airfoils , the troughs having a direction of elongation aligned to direct flow into the flow passage centrally between each pair of airfoils , wherein the end wall adjacent to a suction side mid-chord location of each airfoil includes a mid-chord bulge , the mid-chord bulge defining a higher elevation than a circumferentially opposite, pressure side mid-chord location of an adjacent airfoil .
A user equipment, UE, comprising: a communication interface, configured to perform communication; a processor ; and memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: receive a Downlink Control Information, DCI which includes an uplink resource assignment corresponding to an uplink grant, UL grant and a priority information, determine a logical channel applicable for the UL grant based on the priority information, in a case a MAC CE carries information related to beam forming, set a priority order between a data from the logical channel and the MAC CE, wherein the priority of the MAC CE is higher than the priority of the data from the logical channel if the logical channel is not an uplink common control channel, and assemble, according to the priority order of the data from the logical channel and the MAC CE, the data and the MAC CE into a MAC protocol data unit, PDU a communication interface, configured to perform communication; a processor ; and memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: receive a Downlink Control Information, DCI which includes an uplink resource assignment corresponding to an uplink grant, UL grant and a priority information, determine a logical channel applicable for the UL grant based on the priority information, in a case a MAC CE carries information related to beam forming, set a priority order between a data from the logical channel and the MAC CE, wherein the priority of the MAC CE is higher than the priority of the data from the logical channel if the logical channel is not an uplink common control channel, and assemble, according to the priority order of the data from the logical channel and the MAC CE, the data and the MAC CE into a MAC protocol data unit, PDU receive a Downlink Control Information, DCI which includes an uplink resource assignment corresponding to an uplink grant, UL grant and a priority information, determine a logical channel applicable for the UL grant based on the priority information, in a case a MAC CE carries information related to beam forming, set a priority order between a data from the logical channel and the MAC CE, wherein the priority of the MAC CE is higher than the priority of the data from the logical channel if the logical channel is not an uplink common control channel, and assemble, according to the priority order of the data from the logical channel and the MAC CE, the data and the MAC CE into a MAC protocol data unit, PDU
V-type 4-stroke internal combustion engine having 16 cylinders, having a counter-clockwise or clockwise direction of rotation, comprising a crankshaft, a torsional vibration damper and a flywheel arranged on the crankshaft, wherein the crankshaft has 8 crank throws forming a crank star, wherein in each case the piston rods of the two cylinders of a V-segment are connected to the same crank throw, wherein the crank star is of the lengthwise symmetric or lengthwise quasi-symmetric type, wherein the crank throws C1 to C8 have one of the following angular sequences in the direction of rotation of the engine when seen from the side of the flywheel, with the crank throws numbered as C1 to C8 when starting from the side of the flywheel: i) C1,C8 - C2,C7 - C3,C6 - C4,C5 ii) C1,C8 - C4,C5 - C3,C6 - C2,C7 iii) C1,C8 - C3,C6 - C4,C5 - C2,C7. i) C1,C8 - C2,C7 - C3,C6 - C4,C5 ii) C1,C8 - C4,C5 - C3,C6 - C2,C7 iii) C1,C8 - C3,C6 - C4,C5 - C2,C7.