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Combinatorial assembly and design of enzymes
Author(s) -
Rosalie LipshSokolik,
Olga Khersonsky,
Sybrin P. Schröder,
Casper de Boer,
Shlomo Yakir Hoch,
G.J. Davies,
Herman S. Overkleeft,
Sarel J. Fleishman
Publication year - 2023
Publication title -
science
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 12.556
H-Index - 1186
eISSN - 1095-9203
pISSN - 0036-8075
DOI - 10.1126/science.ade9434
Subject(s) - protein design , modular design , protein engineering , computer science , protein folding , folding (dsp implementation) , enzyme , rational design , functional diversity , synthetic biology , computational biology , protein structure , chemistry , biochemistry , biology , engineering , nanotechnology , materials science , programming language , electrical engineering , ecology
The design of structurally diverse enzymes is constrained by long-range interactions that are necessary for accurate folding. We introduce an atomistic and machine learning strategy for the combinatorial assembly and design of enzymes (CADENZ) to design fragments that combine with one another to generate diverse, low-energy structures with stable catalytic constellations. We applied CADENZ to endoxylanases and used activity-based protein profiling to recover thousands of structurally diverse enzymes. Functional designs exhibit high active-site preorganization and more stable and compact packing outside the active site. Implementing these lessons into CADENZ led to a 10-fold improved hit rate and more than 10,000 recovered enzymes. This design-test-learn loop can be applied, in principle, to any modular protein family, yielding huge diversity and general lessons on protein design principles.

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