Survey
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
Supporting information Supplementary Figure 1. Linkage disequilibrium (LD) patterns at the 3’UTR region of HLAG in individual population samples, including the three African populations investigated in the present study (Serer, Yansi and Tori) and the 14 populations from the 1000 Genomes Project. LD plots are generated by Haploview66 and show correlation between all pairs of variants. High pairwise LD (r2) between variants is illustrated with dark shading. The r2 values (× 100) for the marker pairs are listed in the corresponding boxes. For comparison purposes, the 16 variation sites identified at the global level are represented, even if some of them are not present in a given population sample. SER: Serer from Niakhar, Senegal; TOR: Tori from Tori-Bossito, Benin; YRI: Yoruba from Ibadan, Nigeria; YAN: Yansi from Bandundu, Democratic Republic of the Congo; LWK: Luhya fromWebuye, Kenya; ASW: people of African ancestry from the southwestern United States; IBS: Iberian populations from Spain; TSI: Toscani from Italy; CEU: Utah residents with Northern and Westhern European ancestry; GBR: British from England and Scotland; FIN: Finnish from Finland; JPT: Japanese from Tokyo, Japan; CHB: Han Chinese from Beijing; CHS: Han Chinese from South China; CLM: Colombians from Medellín, Colombia; MXL: people of Mexican ancestry from Los Angeles, California; PUR: Puerto Ricans from Puerto Rico. Supplementary Figure 2. Extended haplotype homozygosity (EHH) decay over physical distance for each core haplotype at the HLA-G 3’UTR region across a 300-kb region encompassing the HLA-F, HLA-G, HLA-H, and HLA-A genes. The EHH score on both sides of both UTR-1 (yellow) and UTR-2 (orange) haplotypes reaches a value near zero well before reaching HLA-A. 1 Supplementary Table 1. HLA-G 3’UTR haplotype frequencies in 21 worldwide population samples Abbreviations: 2N, total number of alleles; Ins, insertion; Del, deletion; GUI, natives of Guinea-Bissau;16 SER, Serer from Niakhar, Senegal; TOR, Tori from Tori-Bossito, Benin; YRI, Yoruba from Ibadan, Nigeria; YAN, Yansi from Bandundu, Democratic Republic of the Congo; LWK, Luhya fromWebuye, Kenya; ASW, people of African ancestry from the southwestern United States; POR, Portuguese;16 IBS, Iberian populations from Spain; TSI, Toscani from Italy; CEU, Utah residents with Northern and Westhern European ancestry; GBR, British from England and Scotland; FIN, Finnish from Finland; JPT, Japanese from Tokyo, Japan; CHB, Han Chinese from Beijing; CHS, Han Chinese from South China; SEB, Southeastern Brazilians from RibeirãoPreto, São Paulo, Brazil;17 NEB, Northeastern Brazilians from Recife, Pernambuco, Brazil;18 CLM, Colombians from Medellín, Colombia; MXL; people of Mexican ancestry from Los Angeles, California; PUR, Puerto Ricans from Puerto Rico. aBecause of missing data at two variation sites (+3187A/G and +3196C/G), haplotype frequencies were available for 127 individuals instead of 128. Haplotype sequences are formed by the succession of polymorphisms 14-bp indel, +3001, +3003, +3010, +3027, +3032, +3035, +3052, +3092, +3107, +3111, +3121, +3142, +3187, +3196, and +3227 along the 3’UTR region of the HLA-G gene (in the direction 5’3’). The derived allele at each variation site is shown in bold. Haplotypes UTR-1 to UTR-16 were named as described elsewhere.13,17,18 The K, F, N, Q and C haplotypes previously described by Alvarez et al.16 were renamed UTR-19, UTR-21, UTR-22, UTR-24 and UTR-34, respectively, to adopt a single nomenclature system. Other haplotypes are described for the first time in this study. Previously published data sets are indicated by an asterisk (*). 2