Literature DB >> 7515716

Identification of molecular defects in a subject with type I CD36 deficiency.

H Kashiwagi1, Y Tomiyama, S Kosugi, M Shiraga, R H Lipsky, Y Kanayama, Y Kurata, Y Matsuzawa.   

Abstract

We performed a molecular analysis of a subject whose platelets and monocytes did not express any cell surface CD36 (designated as a type I CD36 deficiency). Amplification of the 5' half of platelet and monocyte CD36cDNA (corresponding to nucleotide [nt] 191-1009 of the published CD36 cDNA sequence [Oquendo et al, Cell, 58:95, 1989]) showed that two different-sized CD36 cDNAs existed. One cDNA was of predicted normal size, whereas the other was about 150 bp smaller than that predicted for normal CD36 cDNA. Amplification of the 3' region of CD36 cDNA (nt 962-1714) in this subject showed only normal-sized CD36 cDNA. Cloning and nt sequence analysis of the cDNAs showed that the smaller sized CD36 cDNA had 161-bp deletion (from nt 331 to 491), and a dinucleotide deletion starting at nt position 539. The same dinucleotide deletion was also detected in the normal sized CD36 cDNA. Both deletions caused a frameshift leading to the appearance of a translation stop codon. RNA blot analysis and quantitative assay using the reverse transcription-polymerase chain reaction (RT-PCR) showed that the CD36 transcripts in both platelets and monocytes were greatly reduced. Comparison of the determined cDNA sequences with the genomic DNA sequence for the human CD36 gene showed that the dinucleotide deletion was located in exon 5, and that the 161-bp deletion corresponded to a loss of exon 4. PCR-based analysis using genomic DNA showed that this subject was homozygous for the dinucleotide deletion in exon 5. Except for the dinucleotide deletion, we could not find any abnormalities around exon 3, 4, and 5 including the splice junctions. These results suggested that the deletions in CD36 mRNA were likely to be responsible for instability of the transcripts, and the dinucleotide deletion in exon 5 might affect the splicing of exon 4.

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Year:  1994        PMID: 7515716

Source DB:  PubMed          Journal:  Blood        ISSN: 0006-4971            Impact factor:   22.113


  12 in total

1.  Molecular basis of human CD36 gene mutations.

Authors:  Monika Ewa Rać; Krzysztof Safranow; Wojciech Poncyljusz
Journal:  Mol Med       Date:  2007 May-Jun       Impact factor: 6.354

2.  Reduced uptake of oxidized low density lipoproteins in monocyte-derived macrophages from CD36-deficient subjects.

Authors:  S Nozaki; H Kashiwagi; S Yamashita; T Nakagawa; B Kostner; Y Tomiyama; A Nakata; M Ishigami; J Miyagawa; K Kameda-Takemura
Journal:  J Clin Invest       Date:  1995-10       Impact factor: 14.808

3.  CD36 antisense expression in 3T3-F442A preadipocytes.

Authors:  Z Sfeir; A Ibrahimi; E Amri; P Grimaldi; N Abumrad
Journal:  Mol Cell Biochem       Date:  1999-02       Impact factor: 3.396

4.  CD36 mediates long-chain fatty acid transport in human myocardium: complete myocardial accumulation defect of radiolabeled long-chain fatty acid analog in subjects with CD36 deficiency.

Authors:  S Nozaki; T Tanaka; S Yamashita; K Sohmiya; T Yoshizumi; F Okamoto; Y Kitaura; C Kotake; H Nishida; A Nakata; T Nakagawa; K Matsumoto; K Kameda-Takemura; S Tadokoro; Y Kurata; Y Tomiyama; K Kawamura; Y Matsuzawa
Journal:  Mol Cell Biochem       Date:  1999-02       Impact factor: 3.396

5.  Effectiveness of Iodine-123 β-methyl-P-iodophenyl-pentadecanoic acid (BMIPP) Myocardial Scintigraphy for Cancer Therapeutics-Related Cardiac Dysfunction (CTRCD) in Breast Cancer Patients.

Authors:  Yuko Harada; Kyosuke Shimada; Yukino Kubota; Miyoko Yamashita
Journal:  Cureus       Date:  2022-05-31

6.  Variants of CD36 gene and their association with CD36 protein expression in platelets.

Authors:  Xianguo Xu; Ying Liu; Xiaozhen Hong; Shu Chen; Kairong Ma; Xiaofei Lan; Yanling Ying; Ji He; Faming Zhu; Hangjun Lv
Journal:  Blood Transfus       Date:  2014-06-12       Impact factor: 3.443

7.  HIV protease inhibitors promote atherosclerotic lesion formation independent of dyslipidemia by increasing CD36-dependent cholesteryl ester accumulation in macrophages.

Authors:  James Dressman; Jeanie Kincer; Sergey V Matveev; Ling Guo; Richard N Greenberg; Theresa Guerin; David Meade; Xiang-An Li; Weifei Zhu; Annette Uittenbogaard; Melinda E Wilson; Eric J Smart
Journal:  J Clin Invest       Date:  2003-02       Impact factor: 14.808

8.  Molecular basis of CD36 deficiency. Evidence that a 478C-->T substitution (proline90-->serine) in CD36 cDNA accounts for CD36 deficiency.

Authors:  H Kashiwagi; Y Tomiyama; S Honda; S Kosugi; M Shiraga; N Nagao; S Sekiguchi; Y Kanayama; Y Kurata; Y Matsuzawa
Journal:  J Clin Invest       Date:  1995-03       Impact factor: 14.808

9.  Preliminary studies on CD36 gene in type 2 diabetic patients from north India.

Authors:  Sunaina Gautam; C G Agrawal; Hemant Kumar Bid; Monisha Banerjee
Journal:  Indian J Med Res       Date:  2011-07       Impact factor: 2.375

10.  The Whole Genome Expression Analysis using Two Microarray Technologies to Identify Gene Networks That Mediate the Myocardial Phenotype of CD36 Deficiency.

Authors:  Imane Sabaouni; Ahmed Moussa; Brigitte Vannier; Oussama Semlali; Terri A Pietka; Nada A Abumrad; Azeddine Ibrahimi
Journal:  Bioinformation       Date:  2013-10-16
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