Antibody targeting of E3 ubiquitin ligases for receptor degradation

Author:

Marei HadirORCID,Tsai Wen-Ting K.ORCID,Kee Yee-Seir,Ruiz Karen,He Jieyan,Cox Chris,Sun Tao,Penikalapati Sai,Dwivedi Pankaj,Choi Meena,Kan David,Saenz-Lopez Pablo,Dorighi Kristel,Zhang Pamela,Kschonsak Yvonne T.ORCID,Kljavin Noelyn,Amin Dhara,Kim Ingrid,Mancini Andrew G.,Nguyen Thao,Wang Chunling,Janezic EricORCID,Doan Alexander,Mai Elaine,Xi Hongkang,Gu Chen,Heinlein Melanie,Biehs Brian,Wu Jia,Lehoux Isabelle,Harris SethORCID,Comps-Agrar Laetitia,Seshasayee Dhaya,de Sauvage Frederic J.ORCID,Grimmer Matthew,Li Jing,Agard Nicholas J.ORCID,de Sousa e Melo FelipeORCID

Abstract

AbstractMost current therapies that target plasma membrane receptors function by antagonizing ligand binding or enzymatic activities. However, typical mammalian proteins comprise multiple domains that execute discrete but coordinated activities. Thus, inhibition of one domain often incompletely suppresses the function of a protein. Indeed, targeted protein degradation technologies, including proteolysis-targeting chimeras1 (PROTACs), have highlighted clinically important advantages of target degradation over inhibition2. However, the generation of heterobifunctional compounds binding to two targets with high affinity is complex, particularly when oral bioavailability is required3. Here we describe the development of proteolysis-targeting antibodies (PROTABs) that tether cell-surface E3 ubiquitin ligases to transmembrane proteins, resulting in target degradation both in vitro and in vivo. Focusing on zinc- and ring finger 3 (ZNRF3), a Wnt-responsive ligase, we show that this approach can enable colorectal cancer-specific degradation. Notably, by examining a matrix of additional cell-surface E3 ubiquitin ligases and transmembrane receptors, we demonstrate that this technology is amendable for ‘on-demand’ degradation. Furthermore, we offer insights on the ground rules governing target degradation by engineering optimized antibody formats. In summary, this work describes a strategy for the rapid development of potent, bioavailable and tissue-selective degraders of cell-surface proteins.

Publisher

Springer Science and Business Media LLC

Subject

Multidisciplinary

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