bioRxivBioengineeringPreprint
Supramolecular Enzyme-Peptide Gels for Localized Therapeutic Biocatalysis
Madeline J FuchsiD, Lucas Melgar, Bethsymarie Soto Morales, Dillon T. Seroski, Jennifer A Simonovich, Isabella Pinto, Chen Lu, Gianna Scibilio, Renjie LiuiD, Abigail M. Ziegler, Juanpablo Olguin, Arun Wanchoo, Ayumi Shigemoto, Dorina Avram, Benjamin George KeselowskyiD, Gregory A. HudallaiD
Abstract
Enzyme therapeutics are often compromised by poor accumulation within target tissues, necessitating repeated systemic dosing that can exacerbate side-effects like immunogenicity. We report an injectable supramolecular enzyme-peptide gel platform for prolonged local enzyme retention in vivo. The gel is based on CATCH(+/-) (Co-Assembling Tags based on CHarge-complementarity), cationic and anionic peptide pairs that form {beta}-sheet fibrillar gels upon mixing. Five disparate enzymes recombinantly fused to CATCH(-) peptide integrate into CATCH(+/-) fibrils during assembly, resulting in five single-enzyme and three dual-enzyme catalytically-active enzyme-peptide gels. CATCH gels enable titratable catalytic activity and prolonged localized retention. Gels of uricase, an FDA-approved but systemically-ineffective enzyme therapy for gout, rapidly dissolve gout crystals, with low risk of anaphylaxis after repeat dosing. Dual-enzyme gels of uricase and anti-inflammatory indoleamine 2,3-dioxygenase outperformed either single-enzyme formulation by concomitantly dissolving the crystals and suppressing pro-inflammatory neutrophil functions. Modular and tunable enzyme content, coupled with prolonged retention, establish CATCH enzyme-peptide gels as a generalizable vehicle for effective local therapeutic biocatalysis.
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