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Beyond Epitope Binning: Directed in Vitro Selection of Complementary Pairs of Binding Proteins
Author(s) -
Eric A. Miller,
Ki-Joo Sung,
Patthara Kongsuphol,
Subha Baniya,
Hui Qi Aw-Yong,
Vivian Tay,
Yuxuan Tan,
Farah M. Kabir,
Karl Pang-Yeo,
Isabel G. Kaspriskie,
Hadley D. Sikes
Publication year - 2019
Publication title -
acs combinatorial science
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.928
H-Index - 81
eISSN - 2156-8952
pISSN - 2156-8944
DOI - 10.1021/acscombsci.9b00176
Subject(s) - epitope , chemistry , computational biology , combinatorial chemistry , in vitro , identification (biology) , complementarity (molecular biology) , function (biology) , biochemistry , antigen , biology , microbiology and biotechnology , genetics , botany
Many biotechnological applications require the simultaneous binding of affinity reagents to nonoverlapping target epitopes, the most prominent example being sandwich immunoassays. Typically, affinity pairs are identified via post facto functional analysis of clones that were not selected for complementarity. Here, we developed the Rapid Affinity Pair Identification via Directed Selection (RAPIDS) process, which enables the efficient identification of affinity reagents that function together as complementary pairs, from in vitro libraries of ∼10 9 variants. We used RAPIDS to develop highly specific affinity pairs against biomarkers of tuberculosis, Zika virus, and sepsis. Without additional trial-and-error screening, these affinity pairs exhibited utility in multiple assay formats. The RAPIDS process applies selective pressure to hundreds of thousands of potential affinity pairs to efficiently identify complementary pairs that bind to separate epitopes without binding to one another or nontargets, yielding diagnostic assays that are sensitive and specific by design.

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