Coriell Institute for Medical Research
Coriell Institute of Medical Research
  • Request a Quote
  • Donate
  • Login
  • View Cart
Sample Catalog | Custom Services | Core Facilities | Genomic Data Search
  • Biobank
    • NIGMS
    • NINDS
    • NIA
    • NHGRI
    • NEI
    • Allen Cell Collection
    • Rett Syndrome iPSC Collection
    • Autism Research Resource
    • HD Community Biorepository
    • CDC Cell and DNA
    • J. Craig Venter Institute
    • Orphan Disease Center Collection
    • All Biobanks
  • Research
    • Overview
    • Meet Our Scientists
      • Our Faculty
      • Our Scientific Staff
    • Camden Cancer Research Center
    • Epigenetic Therapies SPORE
    • Core Facilities
    • Epigenomics
    • Camden Opioid Research Initiative (CORI)
    • The Issa & Jelinek Lab
    • The Jian Huang Lab
    • The Luke Chen Lab
      • The Lab
      • The Team
      • Publications
    • The Scheinfeldt Lab
    • The Shumei Song Lab
    • The Nora Engel Lab
      • The Lab
      • The Team
      • Publications
    • Publications
  • Services
    • Overview
    • Biobanking Services
      • Core Services
      • Project Management
      • Research Support Services
      • Sample Cataloging
      • Sample Collection Kits
      • Sample Data Management
      • Sample Distribution
      • Sample Management
      • Sample Procurement
      • Sample Storage
    • Bioinformatics and Biostatistics Services
    • Cellular and Molecular Services
      • Biomarker Research Solutions
      • Cell Culture
      • Nucleic Acid Isolation and Quality Control
    • Clinical Trial Support
      • Overview
      • Sample Collection
      • Data Management
      • Sample Processing and QC
      • Storage and Distribution
      • Biomarker Services
      • Data Analaysis
    • Core Facilties
      • Overview
      • Animal and Xenograft
      • Bioinformatics and Biostatistics
      • Cell Imaging
      • CRISPR Gene Engineering
      • Flow Cytometry and Cell Sorting
      • Genomics and Epigenomics
      • iPSC - Induced Pluripotent Stem Cells
      • Organoids
    • Coriell Marketplace
    • Genomic, Epigenomic and Multiomics Services
    • Stem Cells and iPSC Services
      • Core Services
      • Reprogramming
      • Characterization and Quality Control
      • Differentiated Cell Lines
      • iPSC-Derived Organoids
      • iPSC Expansion
      • iPSC Gene Editing
  • Ordering
    • Stem Cells
    • Cell Lines
    • DNA and RNA
    • Featured Products
      • FFPE
      • HMW DNA
    • Genomic Data Search
    • Search by Catalog ID
    • Help
      • Create Account
      • Order Online
      • Ordering FAQ
      • FAQs/Culture Instructions
      • Reference Materials
        • Biobanks
        • NIGMS Repository
        • NHGRI Repository
        • NINDS Repository
        • NIA Repository
        • NIST
        • GeT-RM
      • Secondary Distribution Policies
      • MTA Assurance Form
      • Shipment Policy
      • Contact Customer Service
  • About Us
    • Our History
    • Meet Our Team
    • Meet Our Board
    • Education
      • Science Fair
      • Summer Experience
      • Outreach
      • Research Program Internship
    • Press Room
      • Press Releases
      • Coriell Blog
      • Annual Report
    • Careers
      • Working at Coriell
    • Giving
      • Donate
      • Giving FAQ
    • Contact Us
    • Legal Notice
  • Login View Cart
search submit
NA01260 DNA from Fibroblast

Description:

GAUCHER DISEASE, TYPE II
GLUCOSIDASE, ACID BETA; GBA

Affected:

Yes

Sex:

Female

Age:

11 MO (At Sampling)

  • Overview
  • Characterizations
  • Phenotypic Data
  • Publications
  • External Links

Overview

back to top
Repository NIGMS Human Genetic Cell Repository
Subcollection Heritable Diseases
Lysosomal Storage Diseases
Class Disorders of Lipid Metabolism
Quantity 10 µg
Quantitation Method Please see our FAQ
Cell Type Fibroblast
Transformant Untransformed
Sample Source DNA from Fibroblast
Race White
Relation to Proband proband
Confirmation Molecular characterization after cell line submission to CCR
Species Homo sapiens
Common Name Human
Remarks Splenomegaly; opisthotonos: expired at age 1; 3% of control fibro glucocerebrosidase activity; donor subject is a compound heterozygote: one allele has a T>C transition at nucleotide 1448 in exon 10 of the GBA gene (1448T>C) resulting in the substitution of proline for leucine at codon 444 [Leu444Pro (L444P)]; the second allele has a C>G transversion at nucleotide 1361 in exon 9 (1361C>G) resulting in the substitution of arginine for proline at codon 415 [Pro415Arg (P415R)] [codons are numbered from the first codon of the mature protein; the cDNA is numbered from the first initiating AUG]

Characterizations

back to top
PDL at Freeze 5.12
Passage Frozen 4
 
IDENTIFICATION OF SPECIES OF ORIGIN Species of Origin Confirmed by Nucleoside Phosphorylase, Glucose-6-Phosphate Dehydrogenase, and Lactate Dehydrogenase Isoenzyme Electrophoresis
 
MUTATION VERIFICATION Tsuji et al (Proc Natl Acad Sci USA 85:2349-2352 1988) reported that DNA extracted from this culture lacked the Asn-370 to Ser mutation in the glucocerebrosidase gene which was found in 75% of type 1 patients. Reiner et al (DNA 7:107-116 1988) employed a human glucocerebrosidase cDNA in a Northern blot analysis to show that mRNA from this type II Gaucher disease patient had the same three RNA species (6 2.6 & 2.2 kb transcripts) as found in normal placenta. Bergman and Grabowski (Am J Hum Genet 44:741-750 1989) analyzed the major processing steps in the maturation of the lysosomal hydrolase acid B-glucosidase in this type II Gaucher disease fibroblast culture. In normal fibroblasts remodeling of N-linked oligosaccharides resulted in the temporal appearance of three molecular-weight forms of acid B-glucosidase. An initial 64-KDa form containing high mannose-type oligosaccharide side chains was processed quantitatively within 24h to a sialylated 69-KDa form. During the subsequent 96h some of the 69-KDa form is processed to 59-KDa. GM01260 fibroblasts revealed no processing of the 64-KDa form of the enzyme. In addition the newly synthesized enzyme disappeared by 24h. No conversion to the normally present 59-KDa form was observed. These results confirm those reported by Beutler and Kuhl (Proc Natl Acad Sci USA 83:7472-7474 1986) which described a very unstable glucocerebrosidase enzyme precursor for type II Gaucher disease fibroblasts. Wigderson et al (Am J Hum Genet 44:365-377 1989) characterized the human glucocerebrosidase gene from Gaucher disease patients. The results obtained with DNA from this cell culture showed the presence of two mutant alleles. One allele contains a C to G transversion at codon 415 which causes substitution of arginine for proline and creates a new HhaI restriction site. The other allele has a T to C transition at codon 444 that causes a substitution of proline for leucine and creates a new NciI restriction site. These results were confirmed by Theophilus et al (Am J Hum Genet 45:212-225 1989). These authors reported that this type II patient was heterozygous for two mutant alleles: the T to C transition in exon 10 (Leu 444 to Pro 444) and the C to G transversion in exon 9 (Pro 415 to Arg 415). The T to C transition had previously been described by Tsuji et al (N Engl J Med 316: 570-575 1987).
 
glucosylceramidase According to the submitter, biochemical test results for this subject showed decreased enzyme activity. EC Number: 3.2.1.45; 3% activity.
 
Gene GBA
Chromosomal Location 1q21
Allelic Variant 1 606463.0001; GAUCHER DISEASE, NEURONOPATHIC
Identified Mutation LEU483PRO (LEU444PRO), 1448T>C; The leu444-to-pro (L444P) substitution in exon 10 of the GBA gene has been reported as resulting from a 1448T-C transition (Zimran et al., 1989) and from a 6433T-C transition (Latham et al., 1990), depending upon the reference sequence cited. This mutation has alternatively been referred to as LEU483PRO (Saranjam et al., 2013).
 
Gene GBA
Chromosomal Location 1q21
Allelic Variant 2 606463.0002; GAUCHER DISEASE, NEURONOPATHIC
Identified Mutation PRO415ARG, 5976C>G; Wigderson et al. [Am J Hum Genet 44: 365 (1989)] characterized mutations in the human glucocerebrosidase gene in 9 patients with Gaucher disease: 5 with type I, 3 with type II, and 1 with type III disease. Two mutant alleles were described; one was the T-to-C transition resulting in substitution of proline for leucine at position 444 (230800.0001), and the other was a C-to-G transversion resulting in a substitution of arginine for proline at position 415. One type II patient was heterozygous for both mutations (GM01260). The substitution at position 444, which creates a new NciI restriction site, was observed in 3 of the patients with type I disease and in the patient with type III disease. One additional patient with type II disease was homozygous for the leu444-to-pro mutation.

Phenotypic Data

back to top
Remarks Splenomegaly; opisthotonos: expired at age 1; 3% of control fibro glucocerebrosidase activity; donor subject is a compound heterozygote: one allele has a T>C transition at nucleotide 1448 in exon 10 of the GBA gene (1448T>C) resulting in the substitution of proline for leucine at codon 444 [Leu444Pro (L444P)]; the second allele has a C>G transversion at nucleotide 1361 in exon 9 (1361C>G) resulting in the substitution of arginine for proline at codon 415 [Pro415Arg (P415R)] [codons are numbered from the first codon of the mature protein; the cDNA is numbered from the first initiating AUG]

Publications

back to top
Ging K, Frick L, Schlachetzki J, Armani A, Zhu Y, Gilormini PA, Dhingra A, Böck D, Marques A, Deen M, Chen X, Serdiuk T, Trevisan C, Sellitto S, Pisano C, Glass CK, Heutink P, Yin JA, Vocadlo DJ, Aguzzi A, Direct and indirect regulation of ß-glucocerebrosidase by the transcription factors USF2 and ONECUT2 NPJ Parkinson's disease10:192 2024
PubMed ID: 39438499
 
Yañez MJ, Campos F, Marín T, Klein AD, Futerman AH, Alvarez AR, Zanlungo S, c-Abl activates RIPK3 signaling in Gaucher disease Biochimica et biophysica acta Molecular basis of disease1867:166089 2020
PubMed ID: 33549745
 
Sun Y, Liou B, Chu Z, Fannin V, Blackwood R, Peng Y, Grabowski GA, Davis HW, Qi X, Systemic enzyme delivery by blood-brain barrier-penetrating SapC-DOPS nanovesicles for treatment of neuronopathic Gaucher disease EBioMedicine1867:102735 2019
PubMed ID: 32279952
 
Fog CK, Zago P, Malini E, Solanko LM, Peruzzo P, Bornaes C, Magnoni R, Mehmedbasic A, Petersen NHT, Bembi B, Aerts JFMG, Dardis A, Kirkegaard T, The heat shock protein amplifier arimoclomol improves refolding, maturation and lysosomal activity of glucocerebrosidase EBioMedicine38:142-153 2018
PubMed ID: 30497978
 
Sasagasako N, Kobayashi T, Yamaguchi Y, Shinnoh N, Goto I, Glucosylceramide and glucosylsphingosine metabolism in cultured fibroblasts deficient in acid beta-glucosidase activity. J Biochem (Tokyo)115:113-9 1994
PubMed ID: 8188616
 
Fink JK, Correll PH, Perry LK, Brady RO, Karlsson S, Correction of glucocerebrosidase deficiency after retroviral-mediated gene transfer into hematopoietic progenitor cells from patients with Gaucher disease. Proc Natl Acad Sci U S A87:2334-8 1990
PubMed ID: 2315324
 
Firon N, Eyal N, Kolodny EH, Horowitz M, Genotype assignment in Gaucher disease by selective amplification of the active glucocerebrosidase gene. Am J Hum Genet46:527-32 1990
PubMed ID: 2309702
 
Zimran A, Gelbart T, Beutler E, Linkage of the PvuII polymorphism with the common Jewish mutation for Gaucher disease. Am J Hum Genet46:902-5 1990
PubMed ID: 1971142
 
Bergmann JE, Grabowski GA, Posttranslational processing of human lysosomal acid beta-glucosidase: a continuum of defects in Gaucher disease type 1 and type 2 fibroblasts. Am J Hum Genet44:741-50 1989
PubMed ID: 2495719
 
Theophilus B, Latham T, Grabowski GA, Smith FI, Gaucher disease: molecular heterogeneity and phenotype-genotype correlations. Am J Hum Genet45:212-25 1989
PubMed ID: 2502917
 
Wigderson M, Firon N, Horowitz Z, Wilder S, Frishberg Y, Reiner O, Horowitz M, Characterization of mutations in Gaucher patients by cDNA cloning. Am J Hum Genet44:365-77 1989
PubMed ID: 2464926
 
Reiner O, Wigderson M, Horowitz M, Structural analysis of the human glucocerebrosidase genes. DNA7:107-16 1988
PubMed ID: 3359914
 
Tsuji S, Martin BM, Barranger JA, Stubblefield BK, LaMarca ME, Ginns EI, Genetic heterogeneity in type 1 Gaucher disease: multiple genotypes in Ashkenazic and non-Ashkenazic individuals [published erratum appears in Proc Natl Acad Sci U S A 1988 Aug;85(15):5708] Proc Natl Acad Sci U S A85:2349-52 1988
PubMed ID: 3353383
 
Reiner O, Wilder S, Givol D, Horowitz M, Efficient in vitro and in vivo expression of human glucocerebrosidase cDNA. DNA6:101-8 1987
PubMed ID: 2438102
 
Tsuji S, Choudary PV, Martin BM, Stubblefield BK, Mayor JA, Barranger JA, Ginns EI, A mutation in the human glucocerebrosidase gene in neuronopathic Gaucher's disease. N Engl J Med316:570-5 1987
PubMed ID: 2880291
 
Beutler E, Kuhl W, Glucocerebrosidase processing in normal fibroblasts and in fibroblasts from patients with type I, type II, and type III Gaucher disease. Proc Natl Acad Sci U S A83:7472-4 1986
PubMed ID: 3463977
 
Pentchev PG, Comly ME, Kruth HS, Patel S, Proestel M, Weintroub H, The cholesterol storage disorder of the mutant BALB/c mouse. A primary genetic lesion closely linked to defective esterification of exogenously derived cholesterol and its relationship to human type C Niemann-Pick disease. J Biol Chem261:2772-7 1986
PubMed ID: 3949747
 
Ginns EI, Choudary PV, Tsuji S, Martin B, Stubblefield B, Sawyer J, Hozier J, Barranger JA, Gene mapping and leader polypeptide sequence of human glucocerebrosidase: implications for Gaucher disease. Proc Natl Acad Sci U S A82:7101-5 1985
PubMed ID: 3863141
 
Grabowski GA, Dinur T, Osiecki KM, Kruse JR, Legler G, Gatt S, Gaucher disease types 1, 2, and 3: differential mutations of the acid beta-glucosidase active site identified with conduritol B epoxide derivatives and sphingosine. Am J Hum Genet37:499-510 1985
PubMed ID: 4003396
 
Grabowski GA, Goldblatt J, Dinur T, Kruse J, Svennerholm L, Gatt S, Desnick RJ, Genetic heterogeneity in Gaucher disease: physicokinetic and immunologic studies of the residual enzyme in cultured fibroblasts from non-neuronopathic and neuronopathic patients. Am J Med Genet21:529-49 1985
PubMed ID: 3927728
 
Beutler E, Kuhl W, Sorge J, Cross-reacting material in Gaucher disease fibroblasts. Proc Natl Acad Sci U S A81:6506-10 1984
PubMed ID: 6593712
 
Michels VV, Berseth CL, O'Brien JF, Dewald G, Duplication of part of chromosome 1q: clinical report and review of literature. Am J Med Genet18:125-34 1984
PubMed ID: 6430083
 
Silverstein E, Friedland J, Angiotensin converting enzyme in cultured fibroblasts in Gaucher and Niemann-Pick diseases. Proc Soc Exp Biol Med170:251-3 1982
PubMed ID: 6283559

External Links

back to top
dbSNP dbSNP ID: 10394
Gene Cards GBA
Gene Ontology GO:0004348 glucosylceramidase activity
GO:0005764 lysosome
GO:0005975 carbohydrate metabolism
GO:0006665 sphingolipid metabolism
GO:0007040 lysosome organization and biogenesis
GO:0016020 membrane
GO:0016798 hydrolase activity, acting on glycosyl bonds
NCBI Gene Gene ID:2629
NCBI GTR 230900 GAUCHER DISEASE, TYPE II; GD2
606463 GLUCOSIDASE, BETA, ACID; GBA
OMIM 230900 GAUCHER DISEASE, TYPE II; GD2
606463 GLUCOSIDASE, BETA, ACID; GBA
Omim Description GAUCHER DISEASE, ACUTE NEURONOPATHIC TYPE
  GAUCHER DISEASE, INFANTILE CEREBRAL
  GAUCHER DISEASE, TYPE II
  GD II
Pricing
International/Commercial/For-profit:
$281.00USD
U.S. Academic/Non-profit/Government:
$139.00USD
Add to Cart
How to Order
  • Ordering Instructions
  • MTA / Assurance Form
  • Statement of Research Intent Form
Related Products
Same Subject
  • GM01260 - Fibroblast
Miscellaneous
  • Custom Services

Our mission is to prevent and cure disease through biomedical research.

CONTACT US

CUSTOMER SERVICE
customerservice@coriell.org (800) 752-3805 • (856) 757-4848
Subscribe to our newsletter here

Coriell Institute for Medical Research
403 Haddon Avenue Camden, NJ 08103, USA (856) 966-7377

Ⓒ 2025 Coriell Institute. All rights reserved.

  • Facebook
  • Linkedin
  • Youtube