A large semi-synthetic single-chain Fv phage display library based on chicken immunoglobulin genes
Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introdu...
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Published in: | BMC biotechnology Vol. 4; no. 1; p. 6 |
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Abstract | Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naïve antibody repertoire of the chicken can easily be accessed using only two sets of primers.
With in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA.
The chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naïve phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. |
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AbstractList | Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naïve antibody repertoire of the chicken can easily be accessed using only two sets of primers.
With in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA.
The chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naïve phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. BACKGROUND: Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naïve antibody repertoire of the chicken can easily be accessed using only two sets of primers. RESULTS: With in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA. CONCLUSION: The chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naïve phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. BACKGROUNDAntibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naïve antibody repertoire of the chicken can easily be accessed using only two sets of primers.RESULTSWith in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA.CONCLUSIONThe chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naïve phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naïve antibody repertoire of the chicken can easily be accessed using only two sets of primers. With in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA. The chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naïve phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. Abstract Background Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naïve antibody repertoire of the chicken can easily be accessed using only two sets of primers. Results With in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA. Conclusion The chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naïve phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are derived from human immunoglobulin genes. Genes from other species can, however, also be used. Because of the way in which gene conversion introduces diversity, the naive antibody repertoire of the chicken can easily be accessed using only two sets of primers. With in vitro diagnostic applications in mind, we have constructed a large library of recombinant filamentous bacteriophages displaying single chain antibody fragments derived from combinatorial pairings of chicken variable heavy and light chains. Synthetically randomised complementarity determining regions are included in some of the heavy chains. Single chain antibody fragments that recognise haptens, proteins and virus particles were selected from this repertoire. Affinities of three different antibody fragments were determined using surface plasmon resonance. Two were in the low nanomolar and one in the subnanomolar range. To illustrate the practical value of antibodies from the library, phage displayed single chain fragments were incorporated into ELISAs aimed at detecting African horsesickness and bluetongue virus particles. Virus antibodies were detected in a competitive ELISA. The chicken-derived phage library described here is expected to be a versatile source of recombinant antibody fragments directed against a wide variety of antigens. It has the potential to provide monoclonal reagents with applications in research and diagnostics. For in vitro applications, naive phage libraries based on avian donors may prove to be useful adjuncts to the selectable antibody repertoires that already exist. |
ArticleNumber | 6 |
Author | Miltiadou, Dubravka du Plessis, Dion H Mashau, Cordelia Fehrsen, Jeanni Jordaan, Frances van Wyngaardt, Wouter Malatji, Teresiah |
AuthorAffiliation | 1 Immunology Division, Onderstepoort Veterinary Institute, Onderstepoort, 0110, Republic of South Africa 2 Present address: John and Kernick, PO Box 3511, Midrand, 1685, Republic of South Africa |
AuthorAffiliation_xml | – name: 2 Present address: John and Kernick, PO Box 3511, Midrand, 1685, Republic of South Africa – name: 1 Immunology Division, Onderstepoort Veterinary Institute, Onderstepoort, 0110, Republic of South Africa |
Author_xml | – sequence: 1 givenname: Wouter surname: van Wyngaardt fullname: van Wyngaardt, Wouter email: wouter@moon.ovi.ac.za organization: Immunology Division, Onderstepoort Veterinary Institute, Onderstepoort, 0110, Republic of South Africa. wouter@moon.ovi.ac.za – sequence: 2 givenname: Teresiah surname: Malatji fullname: Malatji, Teresiah – sequence: 3 givenname: Cordelia surname: Mashau fullname: Mashau, Cordelia – sequence: 4 givenname: Jeanni surname: Fehrsen fullname: Fehrsen, Jeanni – sequence: 5 givenname: Frances surname: Jordaan fullname: Jordaan, Frances – sequence: 6 givenname: Dubravka surname: Miltiadou fullname: Miltiadou, Dubravka – sequence: 7 givenname: Dion H surname: du Plessis fullname: du Plessis, Dion H |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/15059288$$D View this record in MEDLINE/PubMed |
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Snippet | Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody repertoires are... BACKGROUNDAntibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody... BACKGROUND: Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody... Abstract Background Antibody fragments selected from large combinatorial libraries have numerous applications in diagnosis and therapy. Most existing antibody... |
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SubjectTerms | African Horse Sickness - diagnosis African Horse Sickness - immunology African Horse Sickness - virology Animals Antibodies Antibodies, Monoclonal - chemistry Antibodies, Monoclonal - genetics Antibodies, Monoclonal - immunology Antibodies, Viral - chemistry Antibodies, Viral - genetics Antibodies, Viral - immunology Antibodies, Viral - isolation & purification Bluetongue - diagnosis Bluetongue - immunology Bluetongue - virology Bluetongue virus - immunology Bluetongue virus - isolation & purification Chickens - genetics Chickens - immunology Combinatorial libraries Complementarity Determining Regions - chemistry Complementarity Determining Regions - genetics Complementarity Determining Regions - immunology Enzyme-Linked Immunosorbent Assay Genes, Immunoglobulin - genetics Haptens Immunoglobulin Fragments - chemistry Immunoglobulin Fragments - genetics Immunoglobulin Fragments - immunology Immunoglobulin Variable Region - chemistry Immunoglobulin Variable Region - genetics Immunoglobulin Variable Region - immunology Peptide Library Phage display Q1 Surface Plasmon Resonance |
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Title | A large semi-synthetic single-chain Fv phage display library based on chicken immunoglobulin genes |
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