A method for the continual, real-time, in-situ generation of a Kappa number used by a process control system to control the delignification of papermaking pulps is disclosed. The method converts a plurality of analog output signals representing the intensities of spectral bands of light energy reflected by the pulp, and feedback analog output signals representing the intensities of spectral bands of light energy before they are injected into the pulp, into digital output values. The digital output values are then normalized in accordance to a normalization algorithm and stored with a time marker. The normalized values are used along with previously-stored coefficient values that represent a model of the delignification process for any particular point in time, and in accordance to the time marker and configuration data from a configuration computer, a Kappa number representation is calculated in accordance to a Kappa number-generating algorithm. The Kappa number representation is then converted into a signal form acceptable by the process control system and used to control the delignification process.
CROSS-REFERENCE TO RELATED APPLICATIONS
The present application is related to co-pending application, Ser. No. 08/988,972, titled "An Apparatus Used In Determining the Degree of Completion of a Processed Medium"; and co-pending application, Ser. No. 08/989,720, titled "A Continuous In-Line Kappa Measurement System"; both applications filed on the same date herewith, and both applications having a common assignee as the present invention.
A software enabled, matrix switch is presented wherein a scalable plurality of inputs, coupled to media content sources, provide media content which is recursively routed through select media processing object(s) coupled to a scalable plurality of matrix switch outputs in accordance with a user-defined media processing project.
A software enabled, matrix switch is presented wherein a scalable plurality of inputs, coupled to media content sources, provide media content which is recursively routed through select media processing object(s) coupled to a scalable plurality of matrix switch outputs in accordance with a user-defined media processing project.
A system is presented including a plurality of sources, and an interface, selectively coupled to the plurality of sources, to generate and implement a development project of processing chains, wherein the interface dynamically loads a processing chain for each of the plurality of media sources at a point during the execution of the project when the chain is required, and wherein the interface is configured to unload at least a subset of the chains when they are not required.
A method of representing a development project is presented comprising identifying a plurality of sources comprising the development project, determining whether any of the sources are required simultaneously and, if not, dynamically generating a filter graph representation of the development project utilizing a segment filter to couple a source to multiple processing threads.
A method of generating a development project including at least a matrix switch and one or more adjacent objects is presented comprising establishing an initial rendering of the development project, and negotiating buffer size and attributes between an input/output coupling the matrix switch to an input/output of the adjacent objects, wherein the negotiated buffer is utilized to communicate information between the input/output of the matrix switch and the input/output of the adjacent object by sharing information via the shared buffer.
