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Some Pooling Designs About Complex

Posted on:2009-04-11Degree:MasterType:Thesis
Country:ChinaCandidate:W W LangFull Text:PDF
GTID:2120360245462117Subject:Basic mathematics
Abstract/Summary:PDF Full Text Request
In this paper, we generalize the result which is derived in the condition that the test outcomeis ideal in pooling design to the error-tolerant version. And we generalize the result which is derived in the condition that the positive element is single to the version that the positive element is k1- complex (k1≤k). Firstly, we propose the definition ofα-almost (k; 2e + 1)-separable matrix on the base ofα-almost k-disjunct matrix. We use the matrix which results by the complement of theα-almost (k; 2e + 1) - separable matrix intersecting random rows to construct an error-tolerant pooling design for k- complexes. And we calculate the expected number of identifying all positive k - complexes. Next, we propose the definition ofα-almost ke-disjunct matrix. We use the matrix which results by the complement of theα-almost ke-disjunct matrix intersecting random rows to construct an error-tolerant pooling design for k1 - complexes. And we calculate the expected number of identifying all positive k1- complexes. Finally, we use the matrix of (s, l)-superimposed code to give a pooling design which fits all inhibitor models for k1 - complexes. We use the matrix of (s, l)e-cover free family to give an error-tolerant pooling design in the inhibitor model for k1 - complexes. we propose the definition of (k, d + (m out of r))-superimposed code on the base of (d + (m out of r))-disjunct matrix. We use the matrix of (k,d + (m out of r))-superimposed code to give a pooling design for k1- complexes.
Keywords/Search Tags:pooling design, complex, separable matrix, disjunct matrix, inhibitor, cover free family, superimposed code
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