System and method for preparing hydrocarbon blend from multiple component streams
A computer implemented blend control system and method for preparation of a hydrocarbon blend from a plurality of components drawn from respective component tanks have been disclosed. The system, in accordance with the present disclosure includes at least one sensor and analyzer adapted to sense and analyze a first attribute of at least one of the components for obtaining first attribute data. The system further includes, at least one optimizer having a data storage means for storing attribute based model data. The optimizer receives the first attribute data and transmits the received first attribute data to a comparator which computes an optimized proportion data between each of the component streams to enable selective drawing of each of the component streams in accordance with the optimized proportion data for preparing the hydrocarbon blend.
1. A computer implemented blend control system for preparation of a hydrocarbon blend from a plurality of component streams drawn from respective component tanks, said system comprising:
a) a plurality of sensors and analyzers, wherein each sensor and analyzer of said plurality of sensors and analyzers is configured to sense and analyze a first attribute of each of the plurality of the component streams for obtaining a first attribute data of each of the plurality of the component streams, wherein each sensor and analyzer comprises a separator configured to selectively separate various component streams into its constituents and a detector configured to detect the proportion of each constituent in the component streams;
b) a plurality of processors operatively connected to said plurality of sensors and analyzers, wherein each processor of said plurality of processors is configured to process the first attribute data of each of the plurality of the component streams for obtaining a second attribute of each of the plurality of the component streams and deriving a second attribute data of each of the plurality of the component streams;
c) at least one optimizer connected to said plurality of processors, said at least one optimizer having:
i) a data storage means for storing an attribute based model data;
ii) a receiver for receiving the second attribute data; and
iii) a comparator configured to compare the second attribute data with the attribute based model data, said comparator further configured to compute an optimized proportion data between each of the component streams to enable selective drawing of each of the component streams in accordance with the optimized proportion data for preparing the hydrocarbon blend; and
d) a flow regulator operatively connected to the at least one optimizer and the individual component tanks, said flow regulator configured to control the flow of the component streams based on the optimized proportion data,
wherein the first attribute of said each of the plurality of the component streams is a property attribute, the first attribute data is property data, the second attribute of said each of the plurality of the component streams is a composition attribute, the second attribute data is composition data, and the attribute based model data is composition based model data.
2. The blend control system as claimed in claim 1 , wherein each of said analyzers is at least one selected from the group consisting of a detailed hydrocarbon analyzer (DHA), a PIONA analyzer and a GC-MS analyzer.
3. A computer implemented blend control system for preparation of a hydrocarbon blend from a plurality of component streams drawn from respective component tanks, said system comprising:
a) a plurality of sensors and analyzers, wherein each sensor and analyzer of said plurality of sensors and analyzers is configured to sense and analyze a first attribute of each of the plurality of the component streams for obtaining a first attribute data of each of the plurality of the component streams, wherein each sensor and analyzer comprises a separator configured to selectively separate various component streams into its constituents and a detector configured to detect the proportion of each constituent in the component streams;
b) a plurality of processors operatively connected to said plurality of sensors and analyzers, wherein each processor of said plurality of processors is configured to process the first attribute data of each of the plurality of the component streams for obtaining a second attribute of each of the plurality of the component streams and deriving a second attribute data of each of the plurality of the component streams;
c) at least one optimizer connected to said plurality of processors, said at least one optimizer having:
iv) a data storage means for storing an attribute based model data;
v) a receiver for receiving the second attribute data; and
vi) a comparator configured to compare the second attribute data with the attribute based model data, said comparator further configured to compute an optimized proportion data between each of the component streams to enable selective drawing of each of the component streams in accordance with the optimized proportion data for preparing the hydrocarbon blend; and
d) a flow regulator operatively connected to the at least one optimizer and the individual component tanks, said flow regulator configured to control the flow of the component streams based on the optimized proportion data,
wherein the first attribute of said each of the plurality of the component streams is a composition attribute, the first attribute data is composition data, the second attribute of said each of the plurality of the component streams is a property attribute, the second attribute data is property data, and the attribute based model data is property based model data.
4. The blend control system as claimed in claim 3 , wherein each of said analyzers is at least one selected from the group consisting of a detailed hydrocarbon analyzer (DHA), a PIONA analyzer and a GC-MS analyzer.