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Missense mutations in the C-terminal portion of the B4GALNT2-encoded glycosyltransferase underlying the Sd(a−) phenotype

Stenfelt, Linn, Hellberg, Åsa, Möller, Mattias, Thornton, Nicole, Larson, Göran, Olsson, Martin L.·2019·Biochemistry and Biophysics Reports
DOI 10.1016/j.bbrep.2019.100659PMC PMC6646742
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Fig. 1 The rs7224888 and additional SNPs that correlates with Sd(a−) phenotype. (A) Human B4GALNT2 on chromosome 17 encodes three transcripts, differing in sequence due to differential use of exon 1; long (red box), short (blue box) or, a so far only theoretical, middle length exon 1 (green box) as stated in Ensembl release 96 [39]. All transcripts use the same coding sequence of exons 2–11 (black boxes), while the UTR of exon 11 differs (colored accordingly). Black horizontal lines in between the exons depict the introns. (B) The SNPs identified in nine individuals with the Sd(a−) phenotype, after sequencing the coding regions and the proposed promoter of the gene. Magnified sequences surrounding the SNPs (underlined) are shown at the stated nucleotide positions and below follows the SNP status of each subject symbolized by stick figures. The variants of interest are written in white. For one of the rs7224888 homozygotes, nucleotide status for rs148441237 was not established. (C) Schematic sketch of the translated proteins from each transcript. Depending on which exon 1 is utilized the product is predicted to encode a transmembrane (NP_703147 and NP_001152859) or a soluble (NP_001152860) glycosyltransferase. The amino acid changes caused by the identified SNPs are found C-terminally of the DXD motif (in this case three consecutive aspartic acids, DDD) and are described in the dark grey boxes on the right and the amino acid positions are stated for each isoform.
Fig. 1 The rs7224888 and additional SNPs that correlates with Sd(a−) phenotype. (A) Human B4GALNT2 on chromosome 17 encodes three transcripts, differing in sequence due to differential use of exon 1; long (red box), short (blue box) or, a so far only theoretical, middle length exon 1 (green box) as stated in Ensembl release 96 [39]. All transcripts use the same coding sequence of exons 2–11 (black boxes), while the UTR of exon 11 differs (colored accordingly). Black horizontal lines in between the exons depict the introns. (B) The SNPs identified in nine individuals with the Sd(a−) phenotype, after sequencing the coding regions and the proposed promoter of the gene. Magnified sequences surrounding the SNPs (underlined) are shown at the stated nucleotide positions and below follows the SNP status of each subject symbolized by stick figures. The variants of interest are written in white. For one of the rs7224888 homozygotes, nucleotide status for rs148441237 was not established. (C) Schematic sketch of the translated proteins from each transcript. Depending on which exon 1 is utilized the product is predicted to encode a transmembrane (NP_703147 and NP_001152859) or a soluble (NP_001152860) glycosyltransferase. The amino acid changes caused by the identified SNPs are found C-terminally of the DXD motif (in this case three consecutive aspartic acids, DDD) and are described in the dark grey boxes on the right and the amino acid positions are stated for each isoform.CC BY-NC-ND · PubMed Central
Fig. 2 The 3D protein structure of β-1,4-N-acetylgalactosaminyltransferase 2, based on homology modelling of the crystal structure of chondroitin synthase from E. coli, using SWISS-MODEL [32]. (A) The model consists of amino acids 319–524 in the catalytic domain and is colored by residue number from red in the N-terminal via yellow to blue in the C-terminal. The protein is predicted to form a dimer, as is common for glycosyltransferases. (B) A close-up view of the structure detailing the locations of the DXD motif and the three SNPs of interest in relation to the Sd(a−) phenotype.
Fig. 2 The 3D protein structure of β-1,4-N-acetylgalactosaminyltransferase 2, based on homology modelling of the crystal structure of chondroitin synthase from E. coli, using SWISS-MODEL [32]. (A) The model consists of amino acids 319–524 in the catalytic domain and is colored by residue number from red in the N-terminal via yellow to blue in the C-terminal. The protein is predicted to form a dimer, as is common for glycosyltransferases. (B) A close-up view of the structure detailing the locations of the DXD motif and the three SNPs of interest in relation to the Sd(a−) phenotype.CC BY-NC-ND · PubMed Central
Fig. 3 The rs7224888 is located in a highly conserved region among different species. Homologous proteins with significant amino acid alignments based on Protein BLAST of amino acids 451–481. Sequence identity represents similarity with human β-1,4-N-acetylgalactosaminyltransferase 2 (top row) in the analyzed region. Start refers to the position of the first amino acid shown on each line. The red frame shows the amino acid altered by rs7224888 (p.Cys466Arg), and the corresponding amino acids in the related proteins. Light blue, middle blue, and dark blue boxes symbolize identity between 9 and 10, 11–12, or all 13 of the compared sequences, respectively. The figure shows that a highly homologous region can be found in β-1,4-N-acetylgalactosaminyltransferase 1 in many species, and that the cysteine at position 466, as well as many surrounding residues, is conserved in all proteins.
Fig. 3 The rs7224888 is located in a highly conserved region among different species. Homologous proteins with significant amino acid alignments based on Protein BLAST of amino acids 451–481. Sequence identity represents similarity with human β-1,4-N-acetylgalactosaminyltransferase 2 (top row) in the analyzed region. Start refers to the position of the first amino acid shown on each line. The red frame shows the amino acid altered by rs7224888 (p.Cys466Arg), and the corresponding amino acids in the related proteins. Light blue, middle blue, and dark blue boxes symbolize identity between 9 and 10, 11–12, or all 13 of the compared sequences, respectively. The figure shows that a highly homologous region can be found in β-1,4-N-acetylgalactosaminyltransferase 1 in many species, and that the cysteine at position 466, as well as many surrounding residues, is conserved in all proteins.CC BY-NC-ND · PubMed Central
Fig. 4 The rs7224888 resides in a haplotype block of ~32 kb (A) Linkage disequilibrium (LD) between rs7224888 and other variants in B4GALNT2 and neighboring genes. Each dot represents a variant detected in the 1000 Genomes Project [23] and is color-coded according to its location. The long transcript (ENST00000300404) was used for color-coding variants in B4GALNT2. Variants in AC069454.1 were coded as intronic. The x-axis shows the chromosomal location according to the GRCh37/hg19 human reference genome and the y-axis shows the level of LD with rs7224888 (R2). (B) The B4GALNT2 transcripts and the canonical transcripts for neighboring genes ABI3, GNGT2 and PHOSPO1. AC069454.1 is a ribosomal protein S10 (RPS10) pseudogene and RP11-708H21.4 is long non-coding RNA (lncRNA). The orange shaded area represents a presumed haplotype of ~32 kb, where 66 variants exhibit strong LD (R2 > 0.6) with rs7224888. This haplotype consists of exon 10 and 11 in all B4GALNT2 transcripts as well as RP11-708H21.4. The two other exonic variants in this haplotype are synonymous (rs16946912) or located in the 3′ UTR (rs28689968).
Fig. 4 The rs7224888 resides in a haplotype block of ~32 kb (A) Linkage disequilibrium (LD) between rs7224888 and other variants in B4GALNT2 and neighboring genes. Each dot represents a variant detected in the 1000 Genomes Project [23] and is color-coded according to its location. The long transcript (ENST00000300404) was used for color-coding variants in B4GALNT2. Variants in AC069454.1 were coded as intronic. The x-axis shows the chromosomal location according to the GRCh37/hg19 human reference genome and the y-axis shows the level of LD with rs7224888 (R2). (B) The B4GALNT2 transcripts and the canonical transcripts for neighboring genes ABI3, GNGT2 and PHOSPO1. AC069454.1 is a ribosomal protein S10 (RPS10) pseudogene and RP11-708H21.4 is long non-coding RNA (lncRNA). The orange shaded area represents a presumed haplotype of ~32 kb, where 66 variants exhibit strong LD (R2 > 0.6) with rs7224888. This haplotype consists of exon 10 and 11 in all B4GALNT2 transcripts as well as RP11-708H21.4. The two other exonic variants in this haplotype are synonymous (rs16946912) or located in the 3′ UTR (rs28689968).CC BY-NC-ND · PubMed Central

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Authors
Stenfelt, L., Hellberg, Å., Möller, M., Thornton, N., Larson, G., & Olsson, M. L.
Venue
Biochemistry and Biophysics Reports
Publisher
Elsevier BV
Published
2019-09
Volume
19
Pages
100659
ISSN
2405-5808
DOI
10.1016/j.bbrep.2019.100659
PMC
PMC6646742
Cited by
15
References
1
Language
en
Licence
Funders
  • Vetenskapsrådet
  • Knut och Alice Wallenbergs Stiftelse

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