Skip to main content
Log in

Analysis of nucleotide sugars from cell lysates by ion-pair solid-phase extraction and reversed-phase high-performance liquid chromatography

  • Published:
Glycoconjugate Journal Aims and scope Submit manuscript

Abstract

Analysis of nucleotide sugar metabolism is essential in studying glycosylation in cells. Here we describe practical methods for both extraction of nucleotide sugars from cell lysates and for their analytical separation. Solid-phase extraction cartridges containing graphitized carbon can be used for the purification of nucleotide sugars by using triethylammonium acetate buffer as a ion-pairing reagent for decreasing retention. After that they are separated by high-performance liquid chromatography using a C18 reversed-phase column and the same ion-pairing reagent for increasing retention. These new sample preparation and analysis methods enable good separation of structurally similar sugar nucleotides, compatibility with rapid evaporative concentration, and possibility to automation. Monitoring the production of GDP-deoxyhexoses in genetically engineered yeast and native bacterial cells are described here as specific applications.

This is a preview of subscription content, log in via an institution to check access.

Access this article

Price excludes VAT (USA)
Tax calculation will be finalised during checkout.

Instant access to the full article PDF.

Similar content being viewed by others

References

  1. Palcic MM, ¥Biocatalytic¥synthesis¥of¥oligosaccharides, ¥Curr¥Opin¥Biotech¥10,616–24¥(1999). ¥

    Google Scholar 

  2. Albermann C, ¥ Distler J, ¥ Piepersberg W, ¥Preparative¥synthesis¥of¥GDP-β-L-fucoseby¥recombinant¥enzymes¥from¥enterobacterial¥sources, ¥Glycobiology¥10, ¥875–81¥(2000). ¥

    Google Scholar 

  3. Martin A, ¥ Ruggiero-Lopez D, ¥ Broquet P, ¥ Richard M, ¥ Louisot¥ P, ¥High-performance¥liquidchromatographic¥study¥of¥GDPmannose¥and¥GDP-fucose¥metabolism, ¥J¥Chromatogr¥497, ¥319–25¥(1989). ¥

    Google Scholar 

  4. Palmieri MJ, ¥ Berry GT, ¥ Player DA, ¥ Rogers S, ¥ Segal S, ¥The¥concentration¥of¥red¥blood¥cell¥UDPGlucose¥and¥UDPGalactose¥determined¥by¥high-performance¥liquid¥chromatography, ¥Anal¥Biochem¥194, ¥388–93¥(1991). ¥

    Google Scholar 

  5. Liljebjelke K, ¥ Adolphson R, ¥ Baker K, ¥ Doong RL, ¥ Mohnen¥ D, ¥Enzymatic¥synthesis¥and¥purification¥of¥uridine¥diphosphate¥[14C]galacturonic¥acid:¥A¥substrate¥for¥pectin¥biosynthesis, ¥Anal¥Biochem¥225, ¥296–304¥(1995). ¥

    Google Scholar 

  6. Rush JS, ¥ Waechter CJ, ¥Method¥for¥the¥determination¥of¥cellular¥levels¥of¥guanosine-5′-diphosphate-mannose¥based¥on¥a¥weak¥interaction¥with¥concanavalin¥A¥at¥low¥pH, ¥Anal¥Biochem¥224, ¥494–501¥(1995). ¥

    Google Scholar 

  7. Tomiya N, ¥ Ailor E, ¥ Lawrence SM, ¥ Betenbaugh MJ, ¥ Lee YC, ¥Determination¥of¥nucleotides¥and¥sugar¥nucleotides¥involved¥in¥protein¥glycosylation¥by¥high-performance¥anion-exchange¥chromatography:¥Sugar¥nucleotide¥contents¥in¥cultured¥insect¥cells¥and¥mammalian¥cells, ¥Anal¥Biochem¥293, ¥129–37, ¥doi:10.1006/¥abio.2001.5091¥(2001). ¥

    Google Scholar 

  8. Hennion M-C, ¥Graphitized¥carbons¥for¥solid-phase¥extraction, ¥J¥Chromatogr¥885, ¥73–95¥(2000). ¥

    Google Scholar 

  9. Okazaki R, ¥ Okazaki T, ¥ Strominger JL, ¥ Michelson AM, ¥Thymidine¥diphosphate¥4-keto-6-deoxy-D-glucose, ¥an¥intermediate¥in¥thymidine¥diphosphate¥L-rhamnose¥synthesis¥in¥Escherichia¥coli¥strains, ¥J¥Biol¥Chem¥237, ¥3014–26¥(1962). ¥

    Google Scholar 

  10. Packer NH, ¥ Lawson MA, ¥ Jardine DR, ¥ Redmond JW, ¥A¥general¥approach¥to¥desalting¥oligosaccharides¥released¥from¥glycoproteins, ¥Glycoconjugate¥J¥15, ¥737–47¥(1998). ¥

    Google Scholar 

  11. Lagunas R, ¥ Díez-Masa JC, ¥Separation¥and¥analysis¥of¥4-epimeric¥UDP-sugars¥by¥ion-pair¥reversed-phase¥HPLC, ¥Anal¥Biochem¥216, ¥188–94¥(1994). ¥

    Google Scholar 

  12. Payne SM, ¥ Ames BN, ¥A¥procedure¥for¥rapid¥extraction¥and¥highpressure¥liquid¥chromatographic¥separation¥of¥the¥nucleotides¥and¥other¥small¥molecules¥from¥bacterial¥cells, ¥Anal¥Biochem¥123, ¥151–61¥(1982). ¥

    Google Scholar 

  13. Eriksson S, ¥ Glad G, ¥ Pernemalm P-Å, ¥ Westman E, ¥Separation¥of¥DNA¥restriction¥fragments¥by¥ion-pair¥chromatography, ¥J¥Chromatogr¥359, ¥265–74¥(1986). ¥

    Google Scholar 

  14. Järvinen N, ¥ Mäki M, ¥ Räbinä J, ¥ Roos C, ¥ Mattila P, ¥ Renkonen R, ¥Cloning¥and¥expression¥of¥Helicobacter¥pylori¥GDP-L-fucose¥synthesizing¥enzymes¥(GMD¥and¥GMER)¥in¥Saccharomyces¥cerevisiae, ¥Eur¥J¥Biochem¥268, ¥6458–64¥(2001). ¥

    Google Scholar 

  15. Mäki M, ¥ Järvinen N, ¥ Räbinä J, ¥ Roos C, ¥ Maaheimo H, ¥ Mattila P, ¥ Renkonen R, ¥Functional¥expression¥of¥Pseudomonas¥aeruginosa¥GDP-4-keto-6-deoxy-D-mannose¥reductase¥(RMD)¥synthesizing¥GDP-D-rhamnose, ¥Eur¥J¥Biochem¥269, ¥593–601¥(2002). ¥

    Google Scholar 

  16. Nyman TA, ¥ Kalkkinen N, ¥ Tolo H, ¥ Helin J, ¥Structural¥characterization¥of¥N-linked¥and¥O-linked¥oligosaccharides¥derived¥from¥interferon-alpha¥2b¥and¥interferon-alpha¥14c¥produced¥by¥Sendaivirus-¥induced¥human¥peripheral¥blood¥leukocytes, ¥Eur¥J¥Biochem¥253, ¥485–93¥(1998). ¥

    Google Scholar 

  17. Mattila P, ¥ Räbinä J, ¥ Hortling S, ¥ Helin J, ¥ Renkonen R, ¥Functional¥expression¥of¥Escherichia¥coli¥enzymes¥synthesizing¥GDPL-¥fucose¥from¥inherent¥GDP-D-mannose¥in¥Saccharomyces¥cerevisiae, ¥Glycobiology¥10, ¥1041–7¥(2000). ¥

    Google Scholar 

  18. Mengeling BJ, ¥ Turco JS, ¥Microbial¥glycoconjugates, ¥Curr¥Opin¥Struct¥Biol¥8, ¥572–7¥(1998). ¥

    Google Scholar 

  19. Rocchetta HL, ¥ Burrows LL, ¥ Lam JS, ¥Genetics¥of¥O-antigen¥biosynthesis¥in¥Pseudomonas¥aeruginosa, ¥Microbiol¥Mol¥Biol¥R¥63, ¥523–¥53¥(1999).

    Google Scholar 

  20. Carson MC, ¥Ion-pair¥solid-phase¥extraction, ¥J¥Chromatogr¥885, ¥334–50¥(2000).

    Google Scholar 

Download references

Author information

Authors and Affiliations

Authors

Rights and permissions

Reprints and permissions

About this article

Cite this article

Räbinä, J., Mäki, M., Savilahti, E.M. et al. Analysis of nucleotide sugars from cell lysates by ion-pair solid-phase extraction and reversed-phase high-performance liquid chromatography. Glycoconj J 18, 799–805 (2001). https://doi.org/10.1023/A:1021107602535

Download citation

  • Issue Date:

  • DOI: https://doi.org/10.1023/A:1021107602535

Navigation