Abstract: The disclosure provides systems and methods for data analysis of experimental data. The analysis can include reference data that are not directly generated from the present experiment, which reference data may be values of the experimental parameters that were either provided by a user, computed by the system with input from a user, or computed by the system without using any input from a user. Another example of such reference data may be information about the instrument, such as the calibration method of the instrument.

Abstract: The functionality of a C12.22 application layer is overlaid on an IP-based infrastructure, by employing an IP DNS server as the registration host for both IP- and C12.22-based communications. Communication can occur at either the IP layer or the C12.22 application layer. At the IP layer, a host application can interrogate network nodes. To extend this service to C12.22 communications, C12.22 registration and resolve services are implemented on the DNS server. Similar to the manner in which an IP-based service uses a native, IP-based DNS resolve request, a C12.22 host can utilize a C12.22 resolution request against the C12.22-enabled DNS server for C12.

Abstract: The present invention provides for a system and method for data network control. Using a flow control system, embodiments of the present invention can analyze traffic flow volume and performance, incorporate usage, billing, and cost control data to yield an improved data network controller. Efficiency in data routing is improved while costs are decreased by enabling the selection of the optimal performance data route. Cost constraints and costs are minimized for an overall data load. Given a diverse set of cost structures for available transit providers, the overall system cost can be minimized by distributing traffic in a manner that takes advantage of the diverse billing structures and yet maintains acceptable performance levels. Systems and methods in accordance with embodiments of the present invention determine projected flow performance and projected flow volume in relation to the available bandwidth and marginal cost to a destination provider.

Abstract: The functionality of a C12.22 application layer is overlaid on an IP-based infrastructure, by employing an IP DNS server as the registration host for both IP- and C12.22-based communications. Communication can occur at either the IP layer or the C12.22 application layer. At the IP layer, a host application can interrogate network nodes. To extend this service to C12.22 communications, C12.22 registration and resolve services are implemented on the DNS server. Similar to the manner in which an IP-based service uses a native, IP-based DNS resolve request, a C12.22 host can utilize a C12.22 resolution request against the C12.22-enabled DNS server for C12.

Abstract: The present invention provides for a system and method for data network control. Using a flow control system, embodiments of the present invention can analyze traffic flow volume and performance, incorporate usage, billing, and cost control data to yield an improved data network controller. Efficiency in data routing is improved while costs are decreased by enabling the selection of the optimal performance data route. Cost constraints and costs are minimized for an overall data load. Given a diverse set of cost structures for available transit providers, the overall system cost can be minimized by distributing traffic in a manner that takes advantage of the diverse billing structures and yet maintains acceptable performance levels. Systems and methods in accordance with embodiments of the present invention determine projected flow performance and projected flow volume in relation to the available bandwidth and marginal cost to a destination provider.