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Identification of A Novel Class of Benzofuran Oxoacetic Acid-Derived Ligands that Selectively Activate Cellular EPAC1

Cyclic AMP promotes EPAC1 and EPAC2 activation through direct binding to a specific cyclic nucleotide-binding domain (CNBD) within each protein, leading to activation of Rap GTPases, which control multiple cell responses, including cell proliferation, adhesion, morphology, exocytosis, and gene expre...

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Published in:Cells (Basel, Switzerland) Switzerland), 2019-11, Vol.8 (11), p.1425
Main Authors: Beck, Elizabeth M, Parnell, Euan, Cowley, Angela, Porter, Alison, Gillespie, Jonathan, Robinson, John, Robinson, Lindsay, Pannifer, Andrew D, Hamon, Veronique, Jones, Philip, Morrison, Angus, McElroy, Stuart, Timmerman, Martin, Rutjes, Helma, Mahajan, Pravin, Wiejak, Jolanta, Luchowska-Stańska, Urszula, Morgan, David, Barker, Graeme, Rehmann, Holger, Yarwood, Stephen J
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cited_by cdi_FETCH-LOGICAL-c412t-e2a8f9a8264999ebe3983aa5a9d368b06c232942bdcb8b4e5bc8be7a19337cc73
cites cdi_FETCH-LOGICAL-c412t-e2a8f9a8264999ebe3983aa5a9d368b06c232942bdcb8b4e5bc8be7a19337cc73
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container_issue 11
container_start_page 1425
container_title Cells (Basel, Switzerland)
container_volume 8
creator Beck, Elizabeth M
Parnell, Euan
Cowley, Angela
Porter, Alison
Gillespie, Jonathan
Robinson, John
Robinson, Lindsay
Pannifer, Andrew D
Hamon, Veronique
Jones, Philip
Morrison, Angus
McElroy, Stuart
Timmerman, Martin
Rutjes, Helma
Mahajan, Pravin
Wiejak, Jolanta
Luchowska-Stańska, Urszula
Morgan, David
Barker, Graeme
Rehmann, Holger
Yarwood, Stephen J
description Cyclic AMP promotes EPAC1 and EPAC2 activation through direct binding to a specific cyclic nucleotide-binding domain (CNBD) within each protein, leading to activation of Rap GTPases, which control multiple cell responses, including cell proliferation, adhesion, morphology, exocytosis, and gene expression. As a result, it has become apparent that directed activation of EPAC1 and EPAC2 with synthetic agonists may also be useful for the future treatment of diabetes and cardiovascular diseases. To identify new EPAC agonists we have developed a fluorescent-based, ultra-high-throughput screening (uHTS) assay that measures the displacement of binding of the fluorescent cAMP analogue, 8-NBD-cAMP to the EPAC1 CNBD. Triage of the output of an approximately 350,000 compound screens using this assay identified a benzofuran oxaloacetic acid EPAC1 binder (SY000) that displayed moderate potency using orthogonal assays (competition binding and microscale thermophoresis). We next generated a limited library of 91 analogues of SY000 and identified SY009, with modifications to the benzofuran ring associated with a 10-fold increase in potency towards EPAC1 over SY000 in binding assays. EPAC1 activity assays confirmed the agonist potential of these molecules in comparison with the known EPAC1 non-cyclic nucleotide (NCN) partial agonist, I942. Rap1 GTPase activation assays further demonstrated that SY009 selectively activates EPAC1 over EPAC2 in cells. SY009 therefore represents a novel class of NCN EPAC1 activators that selectively activate EPAC1 in cellulae.
doi_str_mv 10.3390/cells8111425
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As a result, it has become apparent that directed activation of EPAC1 and EPAC2 with synthetic agonists may also be useful for the future treatment of diabetes and cardiovascular diseases. To identify new EPAC agonists we have developed a fluorescent-based, ultra-high-throughput screening (uHTS) assay that measures the displacement of binding of the fluorescent cAMP analogue, 8-NBD-cAMP to the EPAC1 CNBD. Triage of the output of an approximately 350,000 compound screens using this assay identified a benzofuran oxaloacetic acid EPAC1 binder (SY000) that displayed moderate potency using orthogonal assays (competition binding and microscale thermophoresis). We next generated a limited library of 91 analogues of SY000 and identified SY009, with modifications to the benzofuran ring associated with a 10-fold increase in potency towards EPAC1 over SY000 in binding assays. 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subjects Adenosine
Agonists
Amino acids
Benzofuran
Cardiovascular diseases
Cell proliferation
Cloning
Competition
Cyclic AMP
Cytology
Diabetes mellitus
Exocytosis
Gene expression
High-throughput screening
Kinases
Ligands
Oxaloacetic acid
Proteins
Rap1 protein
title Identification of A Novel Class of Benzofuran Oxoacetic Acid-Derived Ligands that Selectively Activate Cellular EPAC1
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