Literature DB >> 17275106

Stable expression of Cryptosporidium parvum glycoprotein gp40/15 in Toxoplasma gondii.

Roberta M O'Connor1, Jane W Wanyiri, Boguslaw S Wojczyk, Kami Kim, Honorine Ward.   

Abstract

Cryptosporidium is a cause of diarrheal disease worldwide. Parasite glycoproteins involved in invasion of Cryptosporidium into host cells have been investigated as possible targets for effective interventions against this parasite. One of these, Cpgp40/15, is expressed as a precursor protein that is cleaved by a parasite-derived furin-like protease activity into gp15, a glycophosphatidyl inositol anchored surface protein, and gp40, that associates with gp15 and binds to host cells. Investigation of the functions of these glycoproteins requires an expression system that can produce similar glycosylation patterns to the native antigens. Previous work demonstrated that Cpgp40/15 transiently expressed in Toxoplasma gondii was appropriately localized and glycosylated. In this study, T. gondii stable transfectants expressing gp40/15, gp15, gp40 and hemagglutinin (HA) tagged gp40 were generated. T. gondii recombinant gp40HA and gp40/15 (recTggp40HA and recTggp40/15) were isolated from infected cells by HA affinity chromatography and Helix pomatia lectin affinity chromatography, respectively. Mass spectrometry confirmed that recTggp40-HA and native Cpgp40 were similarly glycosylated. Like native Cpgp40/15, recTggp40/15 could be cleaved into the gp40 and gp15 products by human furin or by a furin-like protease activity in T. gondii tachyzoite lysates. However, processing was inefficient in intact tachyzoites. Unlike the N-terminus of native Cpgp40/15, which appears to be processed following signal peptide cleavage, the N-terminus of recTggp40/15 began at the predicted signal sequence cleavage site, 11 amino acids upstream of the N-terminus of native Cpgp40. The ability to express and isolate appropriately glycosylated Cryptosporidium glycoproteins will enable further investigations into host-parasite interactions of this important pathogen.

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Year:  2007        PMID: 17275106      PMCID: PMC1941678          DOI: 10.1016/j.molbiopara.2007.01.003

Source DB:  PubMed          Journal:  Mol Biochem Parasitol        ISSN: 0166-6851            Impact factor:   1.759


  48 in total

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2.  Nucleotide changes within three Cryptosporidium parvum surface protein encoding genes differentiate genotype I from genotype II isolates.

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Journal:  Mol Biochem Parasitol       Date:  2003-04-25       Impact factor: 1.759

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4.  A cloned gene of Cryptosporidium parvum encodes neutralization-sensitive epitopes.

Authors:  L E Perryman; D P Jasmer; M W Riggs; S G Bohnet; T C McGuire; M J Arrowood
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2.  Systemic and Mucosal Immune Responses to Cryptosporidium-Vaccine Development.

Authors:  Jacob G Ludington; Honorine D Ward
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Review 3.  A hundred-year retrospective on cryptosporidiosis.

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4.  Expression of the tandem enhanced yellow fluorescent marker gene in Toxoplasma gondii.

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5.  Nuclear delivery of parasite Cdg2_FLc_0220 RNA transcript to epithelial cells during Cryptosporidium parvum infection modulates host gene transcription.

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6.  Delivery of Parasite RNA Transcripts Into Infected Epithelial Cells During Cryptosporidium Infection and Its Potential Impact on Host Gene Transcription.

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7.  Involvement of Cryptosporidium parvum Cdg7_FLc_1000 RNA in the Attenuation of Intestinal Epithelial Cell Migration via Trans-Suppression of Host Cell SMPD3.

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8.  Trans-suppression of host CDH3 and LOXL4 genes during Cryptosporidium parvum infection involves nuclear delivery of parasite Cdg7_FLc_1000 RNA.

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Review 9.  Cryptosporidium pathogenicity and virulence.

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10.  Trans-suppression of defense DEFB1 gene in intestinal epithelial cells following Cryptosporidium parvum infection is associated with host delivery of parasite Cdg7_FLc_1000 RNA.

Authors:  Zhenping Ming; Ai-Yu Gong; Yang Wang; Xin-Tian Zhang; Min Li; Courtney E Dolata; Xian-Ming Chen
Journal:  Parasitol Res       Date:  2018-01-26       Impact factor: 2.289

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