Design of allele‐specific primers and detection of the human ABO genotyping to avoid the pseudopositive problem

PCR experiments using DNA primers forming mismatch pairing with template lambda DNA at the 3′ end were carried out in order to develop allele‐specific primers capable of detecting SNP in genomes without generating pseudopositive amplification products, and thus avoiding the so‐called pseudopositive problem. Detectable amounts of PCR products were obtained when primers forming a single or two mismatch pairings at the 3′ end were used. In particular, 3′ terminal A/C or T/C (primer/template) mismatches tended to allow PCR amplification to proceed, resulting in pseudopositive results in many cases. While less PCR product was observed for primers forming three terminal mismatch pairings, target DNA sequences were efficiently amplified by primers forming two mismatch pairings next to the terminal G/C base pairing. These results indicate that selecting a primer having a 3′ terminal nucleotide that recognizes the SNP nucleotide and the next two nucleotides that form mismatch pairings with the template sequence can be used as an allele‐specific primer that eliminates the pseudopositive problem. Trials with the human ABO genes demonstrated that this primer design is also useful for detecting a single base pair difference in gene sequences with a signal‐to‐noise ratio of at least 45.

[1]  A. Diamond,et al.  Enhanced discrimination of single nucleotide polymorphism in genotyping by phosphorothioate proofreading allele-specific amplification. , 2007, Analytical biochemistry.

[2]  Yusuke Nakamura,et al.  A functional SNP in PSMA6 confers risk of myocardial infarction in the Japanese population , 2006, Nature Genetics.

[3]  Sergey N Krylov,et al.  Identification of base pairs in single-nucleotide polymorphisms by MutS protein-mediated capillary electrophoresis. , 2006, Analytical chemistry.

[4]  Masao Kamahori,et al.  A gel‐free SNP genotyping method: bioluminometric assay coupled with modified primer extension reactions (BAMPER) directly from double‐stranded PCR products , 2004, Human mutation.

[5]  T. Borodina,et al.  Refinement of single-nucleotide polymorphism genotyping methods on human genomic DNA: amplifluor allele-specific polymerase chain reaction versus ligation detection reaction-TaqMan. , 2004, Analytical biochemistry.

[6]  J. Pardinas,et al.  SNP discrimination through proofreading and OFF-switch of Exo+ polymerase , 2004, Molecular biotechnology.

[7]  D. Latorra,et al.  Enhanced allele‐specific PCR discrimination in SNP genotyping using 3′ locked nucleic acid (LNA) primers , 2003, Human mutation.

[8]  Yuzhi Zhang,et al.  An amplification and ligation‐based method to scan for unknown mutations in DNA , 2002, Human mutation.

[9]  K. Okano,et al.  Quantitative detection of single nucleotide polymorphisms for a pooled sample by a bioluminometric assay coupled with modified primer extension reactions (BAMPER). , 2001, Nucleic acids research.

[10]  D. Zhou,et al.  Transcription of the Schizosaccharomyces pombe U2 gene in vivo and in vitro is directed by two essential promoter elements. , 2001, Nucleic acids research.

[11]  S. Sommer,et al.  Pyrophosphorolysis-activated polymerization (PAP): application to allele-specific amplification. , 2000, BioTechniques.

[12]  H. Allawi,et al.  Sensitive detection of DNA polymorphisms by the serial invasive signal amplification reaction. , 2000, Proceedings of the National Academy of Sciences of the United States of America.

[13]  G. Varani,et al.  The G x U wobble base pair. A fundamental building block of RNA structure crucial to RNA function in diverse biological systems. , 2000, EMBO reports.

[14]  A Chakravarti,et al.  Parallel genotyping of human SNPs using generic high-density oligonucleotide tag arrays. , 2000, Genome research.

[15]  D. Ehrlich,et al.  Microchip electrophoresis: a method for high-speed SNP detection. , 2000, Nucleic acids research.

[16]  M. Uhlén,et al.  Single-nucleotide polymorphism analysis by pyrosequencing. , 2000, Analytical biochemistry.

[17]  M. Weiner,et al.  A microsphere-based assay for multiplexed single nucleotide polymorphism analysis using single base chain extension. , 2000, Genome research.

[18]  F. Collins,et al.  Type 2 diabetes: evidence for linkage on chromosome 20 in 716 Finnish affected sib pairs. , 1999, Proceedings of the National Academy of Sciences of the United States of America.

[19]  Bruce P. Neri,et al.  Polymorphism identification and quantitative detection of genomic DNA by invasive cleavage of oligonucleotide probes , 1999, Nature Biotechnology.

[20]  M. Ronaghi,et al.  A Sequencing Method Based on Real-Time Pyrophosphate , 1998, Science.

[21]  J. SantaLucia,et al.  Nearest-neighbor thermodynamics of internal A.C mismatches in DNA: sequence dependence and pH effects. , 1998, Biochemistry.

[22]  J. SantaLucia,et al.  Thermodynamics of internal C.T mismatches in DNA. , 1998, Nucleic acids research.

[23]  C. Nusbaum,et al.  Large-scale identification, mapping, and genotyping of single-nucleotide polymorphisms in the human genome. , 1998, Science.

[24]  J. SantaLucia,et al.  Nearest neighbor thermodynamic parameters for internal G.A mismatches in DNA. , 1998, Biochemistry.

[25]  J. SantaLucia,et al.  Thermodynamics and NMR of internal G.T mismatches in DNA. , 1997, Biochemistry.

[26]  M Ronaghi,et al.  Detection of single-base changes using a bioluminometric primer extension assay. , 1997, Analytical biochemistry.

[27]  D. Turner,et al.  Solution structure of (rGGCAGGCC)2 by two-dimensional NMR and the iterative relaxation matrix approach. , 1996, Biochemistry.

[28]  D. Turner,et al.  Structure of (rGGCGAGCC)2 in solution from NMR and restrained molecular dynamics. , 1993, Biochemistry.

[29]  K. Maskos,et al.  NMR study of G.A and A.A pairing in (dGCGAATAAGCG)2. , 1993, Biochemistry.

[30]  N. Arnheim,et al.  Extension of base mispairs by Taq DNA polymerase: implications for single nucleotide discrimination in PCR. , 1992, Nucleic acids research.

[31]  J. Cognet,et al.  The pH dependent configurations of the C.A mispair in DNA. , 1992, Nucleic acids research.

[32]  S. Hakomori,et al.  Sugar-nucleotide donor specificity of histo-blood group A and B transferases is based on amino acid substitutions. , 1990, The Journal of biological chemistry.

[33]  Henrik Clausen,et al.  Molecular genetic basis of the histo-blood group ABO system , 1990, Nature.

[34]  C. Levenson,et al.  Effects of primer-template mismatches on the polymerase chain reaction: human immunodeficiency virus type 1 model studies. , 1990, Nucleic acids research.

[35]  J. L. Bos,et al.  ras oncogenes in human cancer: a review. , 1989, Cancer research.

[36]  F. Sanger,et al.  DNA sequencing with chain-terminating inhibitors. , 1977, Proceedings of the National Academy of Sciences of the United States of America.

[37]  P. Sachadyn,et al.  MutS as a tool for mutation detection. , 2005, Acta biochimica Polonica.

[38]  L. M. Srivastava,et al.  Distribution of ADH2 and ALDH2 genotypes in different populations , 2004, Human Genetics.

[39]  Magnus Jobs,et al.  Dynamic allele-specific hybridization , 1999, Nature Biotechnology.