Abstract: A differential camera system for object tracking. The system includes a co-aligned light source camera assembly (LSCA) and a controller. The co-aligned LSCA includes a light source and a differential camera sensor. The light source is configured to emit light along an optical path that is directed towards an eye box including an eye of a user. The differential camera sensor is configured to detect a change in brightness of the eye caused in part by the emitted light, asynchronously output data samples corresponding to the detected change in brightness, wherein the optical path is substantially co-aligned with an optical path of the differential camera sensor. The controller is configured to identify a pupil of the eye based on data samples output from the differential camera sensor resulting from the emitted light, and determine a gaze location of the user based in part on the identified pupil.

Abstract: A metal powder-based manufacturing system is provided and comprises: a sealed vessel defining a manufacturing chamber; a metal transformation/conversion unit contained in the manufacturing chamber and configured to heat a metal-based feedstock for transformation/conversion; an inert gas source in gas communication with the manufacturing chamber to supply inert gas therein, the inert gas source being operatively connected to the manufacturing chamber through an inert gas line; and at least one gas purifying unit in gas communication with the manufacturing chamber to purify the inert gas to obtain a purified inert gas having an oxygen partial pressure below about 100 ppb. A process for transforming/converting metal in a purified inert gas atmosphere.

Abstract: A method for producing a metal-based powder that is used in metal additive manufacturing, the method comprising: melting alloy metal precursors at a temperature above a liquidus temperature thereof until all alloy metal precursors are in liquid state, to produce a molten alloy; casting the molten alloy by transferring the molten alloy into a caster; cooling the molten alloy to a temperature of at least below the solidus temperature, at a cooling rate above about 50° C./s, to produce a cast alloy with a low density of precipitates; remelting the cast alloy with a low density of precipitates to produce a melted alloy; and forming the metal-based powder from the remelted alloy.

Abstract: A payment system automatically determines a confidence measure for each payment transaction initiated between a consumer device and a merchant server, based on data associated with the registered consumer and device that is stored by the payment system, and dynamically determines a transaction processing cost for the transaction based on the confidence measure. The payment system can also dynamically determine a set of credential data elements to be requested from the consumer device.

Abstract: An automatic system and method which creates an alternative Financial Risk Cover configurations using an unpredictable optimization process, simulates and models the alternative configuration against potential or expected transient market events; and outputs the alternative configuration if certain objective conditions are met during the modeling, wherein each configuration represents a plurality of investment instruments, each investment instrument being associated with an initial cash position.

Abstract: An automatic Financial Risk Cover configuration which receives returns behaviors connecting statistical behavior of each potential allocation of a submanager to a resultant statistical behavior of a Financial Risk Cover associated with a client portfolio, creates a total set of Financial Risk Cover configurations using genetic optimization processes to produce unpredictable variations of configurations, simulates and models each configuration in the total set against a set of potential or expected transient market events representative of a plurality of combinations of transient events, removes from the total set each configuration which fails to meet performance objectives during the modelling from the total set of configurations; and outputs each remaining configuration in the total set, wherein each configuration represents a plurality of investment instruments, each investment instrument being associated with an initial cash position.

Abstract: An automatic Financial Risk Cover configuration which receives returns behaviors connecting statistical behavior of each potential allocation of a submanager to a resultant statistical behavior of a Financial Risk Cover associated with a client portfolio, creates a total set of Financial Risk Cover configurations using genetic optimization processes to produce unpredictable variations of configurations, simulates and models each configuration in the total set against a set of potential or expected transient market events representative of a plurality of combinations of transient events, removes from the total set each configuration which fails to meet performance objectives during the modelling from the total set of configurations; and outputs each remaining configuration in the total set, wherein each configuration represents a plurality of investment instruments, each investement instrument being associated with an initial cash position.

Abstract: An automatic Financial Risk Cover configuration which receives returns behaviors connecting statistical behavior of each potential allocation of a submanager to a resultant statistical behavior of a Financial Risk Cover associated with a client portfolio, creates a total set of Financial Risk Cover configurations using genetic optimization processes to produce unpredictable variations of configurations, simulates and models each configuration in the total set against a set of potential or expected transient market events representative of a plurality of combinations of transient events, removes from the total set each configuration which fails to meet performance objectives during the modelling from said total set of configurations; and outputs each remaining configuration in the total set, wherein each configuration represents a plurality of investment instruments, each investment instrument being associated with an initial cash position.

Abstract: A signal router, configured to receive information carried by a first signal and transmit the information on a second signal, is described. The signal router, using routing information it gathers, selects the second signal from a number of signals, with the first and the second signals differing in at least one physical characteristic. The signal router operates in a network of a number of such signal routers, and so each one of the signal routers is coupled to at least one of the other signal routers. The routing information is used to create a circuit from a first one of the signal routers to a second one of the signal routers. Once the circuit is created, the information is routed over the circuit. According to one aspect of the present invention, the signals are optical signals.

Abstract: An automatic Financial Risk Cover configuration which receives returns behaviors connecting statistical behavior of each potential allocation of a submanager to a resultant statistical behavior of a Financial Risk Cover associated with a client portfolio, creates a total set of Financial Risk Cover configurations using genetic optimization processes to produce unpredictable variations of configurations, simulates and models each configuration in the total set against a set of potential or expected transient market events representative of a plurality of combinations of transient events, removes from the total set each configuration which fails to meet performance objectives during the modelling from said total set of configurations; and outputs each remaining configuration in the total set, wherein each configuration represents a plurality of investment instruments, each investement instrument being associated with an initial cash position.

Abstract: A method is provided to allocate bandwidth from a first node to a second node in a optical network. The method begins by accepting a request from an end-user, who requests a virtual path between the first node and the second node. The first and second nodes are ones of a number of such nodes. Each one of the nodes is coupled to at least one other node by at least one of a number of optical links. The nodes and links form the optical network. The virtual path has a bandwidth requirement associated therewith. Next, the service provider determines an amount of bandwidth available between the first and the second nodes. The service provider then allocates at least a portion of the amount of bandwidth available between the first and second nodes equal to the bandwidth requirement, so long as the bandwidth requirement is not greater than the amount of bandwidth available between the first and second nodes.

Abstract: A method is provided to allocate bandwidth from a first node to a second node in a optical network. The method begins by accepting a request from an end-user, who requests a virtual path between the first node and the second node. The first and second nodes are ones of a number of such nodes. Each one of the nodes is coupled to at least one other node by at least one of a number of optical links. The nodes and links form the optical network. The virtual path has a bandwidth requirement associated therewith. Next, the service provider determines an amount of bandwidth available between the first and the second nodes. The service provider then allocates at least a portion of the amount of bandwidth available between the first and second nodes equal to the bandwidth requirement, so long as the bandwidth requirement is not greater than the amount of bandwidth available between the first and second nodes.

Abstract: A signal router, configured to receive information carried by a first signal and transmit the information on a second signal, is described. The signal router, using routing information it gathers, selects the second signal from a number of signals, with the first and the second signals differing in at least one physical characteristic. The signal router operates in a network of a number of such signal routers, and so each one of the signal routers is coupled to at least one of the other signal routers. The routing information is used to create a circuit from a first one of the signal routers to a second one of the signal routers. Once the circuit is created, the information is routed over the circuit. According to one aspect of the present invention, the signals are optical signals.

Abstract: A signal router, configured to receive information carried by a first signal and transmit the information on a second signal, is described. The signal router, using routing information it gathers, selects the second signal from a number of signals, with the first and the second signals differing in at least one physical characteristic. The signal router operates in a network of a number of such signal routers, and so each one of the signal routers is coupled to at least one of the other signal routers. The routing information is used to create a circuit from a first one of the signal routers to a second one of the signal routers. Once the circuit is created, the information is routed over the circuit. According to one aspect of the present invention, the signals are optical signals.

Abstract: A method is provided to allocate bandwidth from a first node to a second node in a optical network. The method begins by accepting a request from an end-user, who requests a virtual path between the first node and the second node. The first and second nodes are ones of a number of such nodes. Each one of the nodes is coupled to at least one other node by at least one of a number of optical links. The nodes and links form the optical network. The virtual path has a bandwidth requirement associated therewith. Next, the service provider determines an amount of bandwidth available between the first and the second nodes. The service provider then allocates at least a portion of the amount of bandwidth available between the first and second nodes equal to the bandwidth requirement, so long as the bandwidth requirement is not greater than the amount of bandwidth available between the first and second nodes.