The S-genotyping of wild-grown apricots reveals only self-incompatible accessions in the Erzincan region of Turkey
The S-genotypes of 63 wild-growing Turkish apricots (Prunus armeniaca L.) were determined by PCR amplification of the S-RNase intron regions and SFB gene in order to characterise their sexual (in)compatibility phenotype. We determined the complete S-genotype of 63 wild-grown apricot accessions that originated in the Erzincan region. Ten previously described and 2 new S-alleles (provisionally labelled SX and SY) were identified in the genotypes. S2 was the most frequent S-allele in the tested germplasm (occurred in 19 accessions), followed by S8 (17), S19 (16), S3 (13), S12 (11), S6 (10), and S7 (10); while S9-, S11-, and S13-alleles were found in 8 accessions. A total of 36 different S-genotypes were assigned to the tested accessions. The SC-allele responsible for self-compatibility in apricot was not present, indicating that all accessions are self-incompatible. The analysis of S-allele frequencies allowed us to conclude the close relationship of wild-grown and cultivated apricots in Turkey and helped to raise hypotheses to explain high occurrences of S2- and S8-alleles.
Anahtar Kelimeler:
Key words: Crop evolution, PCR analysis, Prunus armeniaca, self-(in)compatibility, S-haplotypespecific F-box, S-ribonuclease
The S-genotyping of wild-grown apricots reveals only self-incompatible accessions in the Erzincan region of Turkey
The S-genotypes of 63 wild-growing Turkish apricots (Prunus armeniaca L.) were determined by PCR amplification of the S-RNase intron regions and SFB gene in order to characterise their sexual (in)compatibility phenotype. We determined the complete S-genotype of 63 wild-grown apricot accessions that originated in the Erzincan region. Ten previously described and 2 new S-alleles (provisionally labelled SX and SY) were identified in the genotypes. S2 was the most frequent S-allele in the tested germplasm (occurred in 19 accessions), followed by S8 (17), S19 (16), S3 (13), S12 (11), S6 (10), and S7 (10); while S9-, S11-, and S13-alleles were found in 8 accessions. A total of 36 different S-genotypes were assigned to the tested accessions. The SC-allele responsible for self-compatibility in apricot was not present, indicating that all accessions are self-incompatible. The analysis of S-allele frequencies allowed us to conclude the close relationship of wild-grown and cultivated apricots in Turkey and helped to raise hypotheses to explain high occurrences of S2- and S8-alleles.
Keywords:
Key words: Crop evolution, PCR analysis, Prunus armeniaca, self-(in)compatibility, S-haplotypespecific F-box, S-ribonuclease,
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