Table 2 of Kumar, Mol Vis 2004; 10:910-916.


Table 2. PCR primer sequences, annealing temperatures and amplicon sizes of 48 coding exons of the MYO7A gene

PCR products from all 48 coding exons of this gene were sequenced to identify the mutation in an affected individual. Once the mutation was identified, the rest of the family members were also examined for the presence of the mutation. * works with 10% DMSO. The forward (F) and reverse (R) primers are listed below.

                                            Annealing
                                           temperature   Amplicon
 Exon       Primer sequence (5' to 3')        (°C)       size (bp)
-------   ------------------------------   -----------   ---------
   2      F: ccagccaggctcaaggcttcca            66           241
          R: gcaggaattttccaagagaacacc
   3      F: cagagggatatagggctgcctgga          66           296
          R: catggcctccatctcctttcgatca
   4*     F: gtgtctggctgccagagaggtcga          58           426
          R: agctgcacagcggacaaagtctcag
   5      F: agcccaagagctttctagagtcaga         66           316
          R: gcacagttggagctctaggtccta
 6 & 7    F: ctgggctgagttccagttggtgg           63           512
          R: ggagcaatacgggcagcaatacg
   8      F: atcatcccaggctagttcctgatg          68           269
          R: aaggctgagtctgcagtagccag
   9      F: gggtacactgacgtcctcttgcac          68           260
          R: ggcactgcactgcccttggcgca
  10      F: gtggcagcctagtcctcttaggac          68           214
          R: aacccttcagagggacagaagtcatg
  11      F: ggggcaggctggcaggtgagcac           68           212
          R: acttcccaaggggtagggcgagcaa
  12*     F: caagggctggagcgacaccacg            58           285
          R: tccatattggggaaggaaattcccatg
  13      F: ggtggggcctgaacaacacccttac         68           318
          R: aagcagggaaggaagctgtgcgcac
  14      F: catggaggagagggtgggctcaca          68           239
          R: gagcaggggaaggcagggccacg
  15      F: gagggcctgccagagctggtgaga          68           219
          R: gcttagactcaggcctggcccgtg
  16      F: ggcaggcacagcccctcccatcg           68           225
          R: gtcaccctagccgccacccgcca
  17      F: cccagcaggagccttggccctga           58           252
          R: aagctgggaccctcccctcctgc
  18      F: cccactggagaggctgtccattcc          68           207
          R: cccagcccacatcatgggaatttaca
  19      F: ccactgggactgagcaggtggtc           68           218
          R: acacgtacacctgtatgtgggctga
  20      F: atcccaaacccacctgtaccctgg          68           202
          R: ctgggttcaaaggcctgtttgggca
  21      F: ggaatgggacagcaggctctgagc          68           318
          R: gacactcctcgcccaggggtcaga
  22      F: ggtgggaatccctgcaacaacagc          68           223
          R: ggacaagccagcaagtggacaccta
  23      F: agcttgttccctgaggctgtggca          68           323
          R: agcggtgtgtgtgggcctctgga
  24      F: gcttcctgagtagctgggactcca          68           332
          R: tacggccaccaccagcagcagag
  25      F: agcaatgtcctccgctctggcctc          68           270
          R: cttgtcggcctgggagggacatca
  26      F: ttgctttctgctcagccacttgacc         67           206
          R: ctgtgctccagcctaggccaccta
  27      F: gggaacacccctaactttacctgc          67           236
          R: aggcaccactcagccaccaaaaga
  28      F: gggctgttcctgtggggtgattcc          67           223
          R: ggcctagctccccttcccactcca
  29      F: gagggcctggcggctgccctca            67           286
          R: ctggggcactcgagtgcactgga
  30      F: gtctgaagggaagggaccccacaa          67           300
          R: caagtaggtggcagcactggcagc
  31      F: ccttccctgactctgtgcctgctc          67           325
          R: agcaggaggctgtgagccaagcca
  32      F: ttggtggtgtggaagggcttcctg          67           285
          R: gttcaggtccacatcccttctctag
  33*     F: caaactcactcgtatgttgtcttctg        58           218
          R: gctggagctacagagcaagggac
  34      F: cctgggtgtgggaggcctgcctc           67           222
          R: ccctctccttcccctctgtctgtc
  35      F: cccactggttggggcatgactgac          63           377
          R: accctgacccccagtgccaggca
  36      F: ctcagcctgtctctgcccccatgg          68           330
          R: ctagaccgttaacctattgtacagctg
  37      F: ccacaggtagagagctgacctgag          68           238
          R: accagacagtagcggaagcctgca
  38      F: tgccagcgatggggcgttgctga           68           276
          R: ggaggaaggcagtgtgcagacgaa
  39      F: agtgctccctctattcggcacaag          68           252
          R: cccgtcacagcaggtgaggtctg
  40      F: tcctgtgactcccgatggcagctg          68           294
          R: atccccaaggggctcatcccacaa
  41      F: gtctccacagtcccacgcacatgc          68           201
          R: gccctgtcctgggcactgcagac
  42      F: gctcagtataggaggcatagccaga         66           268
          R: tgtccgtaagttcctatggccccag
43 & 44   F: agctgccagacaggccttaggtgg          66           505
          R: agcaacgctagctgtgcacgaagg
  45      F: tctgccaggtccctgcacgcctgt          68           326
          R: cctgggctgctggccagtgtctg
  46*     F: ctggcctgccctgagcaggcctg           58           228
          R: atgccctgttcccctcctcctctg
  47      F: cttgctctgggcccccatctgatg          66           235
          R: ctagagatagatggtggctaggagg
  48      F: agggcccaggccgtgcctctcta           66           216
          R: tacgctgcaggcaaggcagggagc
  49      F: tggccctgtcccaccgtgtgctc           68           193
          R: gaacccactgctgcctcgagagc

Kumar, Mol Vis 2004; 10:910-916 <http://www.molvis.org/molvis/v10/a109/>
©2004 Molecular Vision <http://www.molvis.org/molvis/>
ISSN 1090-0535