BACKGROUND: DNA microarrays have become ubiquitous in biological and medical research. The most difficult problem that needs to be solved is the design of DNA oligonucleotides that (i) are highly specific, that is, bind only to the intended target, (ii) cover the highest possible number of genes, that is, all genes that allow such unique regions, and (iii) are computed fast. None of the existing programs meet all these criteria. RESULTS: We introduce a new approach with our software program BOND (Basic OligoNucleotide Design). According to Kane's criteria for oligo design, BOND computes highly specific DNA oligonucleotides, for all the genes that admit unique probes, while running orders of magnitude faster than the existing programs. The same approach enables us to introduce also an evaluation procedure that correctly measures the quality of the oligonucleotides. Extensive comparison is performed to prove our claims. BOND is flexible, easy to use, requires no additional software, and is freely available for non-commercial use from http://www.csd.uwo.ca/∼ilie/BOND/. CONCLUSIONS: We provide an improved solution to the important problem of oligonucleotide design, including a thorough evaluation of oligo design programs. We hope BOND will become a useful tool for researchers in biological and medical sciences by making the microarray procedures faster and more accurate.
BACKGROUND: DNA microarrays have become ubiquitous in biological and medical research. The most difficult problem that needs to be solved is the design of DNA oligonucleotides that (i) are highly specific, that is, bind only to the intended target, (ii) cover the highest possible number of genes, that is, all genes that allow such unique regions, and (iii) are computed fast. None of the existing programs meet all these criteria. RESULTS: We introduce a new approach with our software program BOND (Basic OligoNucleotide Design). According to Kane's criteria for oligo design, BOND computes highly specific DNA oligonucleotides, for all the genes that admit unique probes, while running orders of magnitude faster than the existing programs. The same approach enables us to introduce also an evaluation procedure that correctly measures the quality of the oligonucleotides. Extensive comparison is performed to prove our claims. BOND is flexible, easy to use, requires no additional software, and is freely available for non-commercial use from http://www.csd.uwo.ca/∼ilie/BOND/. CONCLUSIONS: We provide an improved solution to the important problem of oligonucleotide design, including a thorough evaluation of oligo design programs. We hope BOND will become a useful tool for researchers in biological and medical sciences by making the microarray procedures faster and more accurate.
Authors: Zbynek Bozdech; Jingchun Zhu; Marcin P Joachimiak; Fred E Cohen; Brian Pulliam; Joseph L DeRisi Journal: Genome Biol Date: 2003-01-31 Impact factor: 13.583
Authors: Zachery W Dickson; Dirk Hackenberger; Melanie Kuch; Art Marzok; Arinjay Banerjee; Laura Rossi; Jennifer Ann Klowak; Alison Fox-Robichaud; Karen Mossmann; Matthew S Miller; Michael G Surette; Geoffrey Brian Golding; Hendrik Poinar Journal: Cell Rep Methods Date: 2021-09-15
Authors: Michaela Hendling; Stephan Pabinger; Konrad Peters; Noa Wolff; Rick Conzemius; Ivan Barišic Journal: Nucleic Acids Res Date: 2018-07-02 Impact factor: 16.971