David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments

Since the licensing of the first monoclonal antibody therapy in 1986, monoclonal antibodies have become the largest class of biopharmaceuticals with over 80 antibodies currently approved for a variety of disease indications. The development of smaller, antigen binding antibody fragments, derived fro...

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Main Authors: Adam Bates, Christine A. Power
Format: Article
Language:English
Published: MDPI AG 2019-04-01
Series:Antibodies
Subjects:
ADC
fab
Online Access:https://www.mdpi.com/2073-4468/8/2/28
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spelling doaj-1c8f9ec102914f76b294fde1865ed4db2020-11-24T22:15:30ZengMDPI AGAntibodies2073-44682019-04-01822810.3390/antib8020028antib8020028David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody FragmentsAdam Bates0Christine A. Power1Biopharm Molecular Discovery, GlaxoSmithKline, Hertfordshire SG1 2NY, UKBiopharm Molecular Discovery, GlaxoSmithKline, Hertfordshire SG1 2NY, UKSince the licensing of the first monoclonal antibody therapy in 1986, monoclonal antibodies have become the largest class of biopharmaceuticals with over 80 antibodies currently approved for a variety of disease indications. The development of smaller, antigen binding antibody fragments, derived from conventional antibodies or produced recombinantly, has been growing at a fast pace. Antibody fragments can be used on their own or linked to other molecules to generate numerous possibilities for bispecific, multi-specific, multimeric, or multifunctional molecules, and to achieve a variety of biological effects. They offer several advantages over full-length monoclonal antibodies, particularly a lower cost of goods, and because of their small size they can penetrate tissues, access challenging epitopes, and have potentially reduced immunogenicity. In this review, we will discuss the structure, production, and mechanism of action of EMA/FDA-approved fragments and of those in clinical and pre-clinical development. We will also discuss current topics of interest surrounding the potential use of antibody fragments for intracellular targeting and blood&#8211;brain barrier (BBB) penetration.https://www.mdpi.com/2073-4468/8/2/28ADCantibody fragmentsBiTE<sup>®</sup>diabodiesdomain antibodiesfabImmTAC<sup>®</sup>Nanobody<sup>®</sup>scFvTandAbV-NAR
collection DOAJ
language English
format Article
sources DOAJ
author Adam Bates
Christine A. Power
spellingShingle Adam Bates
Christine A. Power
David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments
Antibodies
ADC
antibody fragments
BiTE<sup>®</sup>
diabodies
domain antibodies
fab
ImmTAC<sup>®</sup>
Nanobody<sup>®</sup>
scFv
TandAb
V-NAR
author_facet Adam Bates
Christine A. Power
author_sort Adam Bates
title David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments
title_short David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments
title_full David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments
title_fullStr David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments
title_full_unstemmed David vs. Goliath: The Structure, Function, and Clinical Prospects of Antibody Fragments
title_sort david vs. goliath: the structure, function, and clinical prospects of antibody fragments
publisher MDPI AG
series Antibodies
issn 2073-4468
publishDate 2019-04-01
description Since the licensing of the first monoclonal antibody therapy in 1986, monoclonal antibodies have become the largest class of biopharmaceuticals with over 80 antibodies currently approved for a variety of disease indications. The development of smaller, antigen binding antibody fragments, derived from conventional antibodies or produced recombinantly, has been growing at a fast pace. Antibody fragments can be used on their own or linked to other molecules to generate numerous possibilities for bispecific, multi-specific, multimeric, or multifunctional molecules, and to achieve a variety of biological effects. They offer several advantages over full-length monoclonal antibodies, particularly a lower cost of goods, and because of their small size they can penetrate tissues, access challenging epitopes, and have potentially reduced immunogenicity. In this review, we will discuss the structure, production, and mechanism of action of EMA/FDA-approved fragments and of those in clinical and pre-clinical development. We will also discuss current topics of interest surrounding the potential use of antibody fragments for intracellular targeting and blood&#8211;brain barrier (BBB) penetration.
topic ADC
antibody fragments
BiTE<sup>®</sup>
diabodies
domain antibodies
fab
ImmTAC<sup>®</sup>
Nanobody<sup>®</sup>
scFv
TandAb
V-NAR
url https://www.mdpi.com/2073-4468/8/2/28
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