Cargando…

Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology

[Image: see text] RET receptor tyrosine kinase is a driver oncogene in human cancer. We recently identified the clinical drug candidate Pz-1, which targets RET and VEGFR2. A key in vivo metabolite of Pz-1 is its less active demethylated pyrazole analogue. Using bioisosteric substitution methods, her...

Descripción completa

Detalles Bibliográficos
Autores principales: Moccia, Marialuisa, Frett, Brendan, Zhang, Lingtian, Lakkaniga, Naga Rajiv, Briggs, David C., Chauhan, Rakhee, Brescia, Annalisa, Federico, Giorgia, Yan, Wei, Santoro, Massimo, McDonald, Neil Q., Li, Hong-yu, Carlomagno, Francesca
Formato: Online Artículo Texto
Lenguaje:English
Publicado: American Chemical Society 2020
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7901654/
https://www.ncbi.nlm.nih.gov/pubmed/32298114
http://dx.doi.org/10.1021/acs.jmedchem.9b01336
_version_ 1783654404700766208
author Moccia, Marialuisa
Frett, Brendan
Zhang, Lingtian
Lakkaniga, Naga Rajiv
Briggs, David C.
Chauhan, Rakhee
Brescia, Annalisa
Federico, Giorgia
Yan, Wei
Santoro, Massimo
McDonald, Neil Q.
Li, Hong-yu
Carlomagno, Francesca
author_facet Moccia, Marialuisa
Frett, Brendan
Zhang, Lingtian
Lakkaniga, Naga Rajiv
Briggs, David C.
Chauhan, Rakhee
Brescia, Annalisa
Federico, Giorgia
Yan, Wei
Santoro, Massimo
McDonald, Neil Q.
Li, Hong-yu
Carlomagno, Francesca
author_sort Moccia, Marialuisa
collection PubMed
description [Image: see text] RET receptor tyrosine kinase is a driver oncogene in human cancer. We recently identified the clinical drug candidate Pz-1, which targets RET and VEGFR2. A key in vivo metabolite of Pz-1 is its less active demethylated pyrazole analogue. Using bioisosteric substitution methods, here, we report the identification of NPA101.3, lacking the structural liability for demethylation. NPA101.3 showed a selective inhibitory profile and an inhibitory concentration 50 (IC(50)) of <0.003 μM for both RET and VEGFR2. NPA101.3 inhibited phosphorylation of all tested RET oncoproteins as well as VEGFR2 and proliferation of cells transformed by RET. Oral administration of NPA101.3 (10 mg/kg/day) completely prevented formation of tumors induced by RET/C634Y-transformed cells, while it weakened, but did not abrogate, formation of tumors induced by a control oncogene (HRAS/G12V). The balanced synchronous inhibition of both RET and VEGFR2, as well the resistance to demethylation, renders NPA101.3 a potential clinical candidate for RET-driven cancers.
format Online
Article
Text
id pubmed-7901654
institution National Center for Biotechnology Information
language English
publishDate 2020
publisher American Chemical Society
record_format MEDLINE/PubMed
spelling pubmed-79016542021-02-24 Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology Moccia, Marialuisa Frett, Brendan Zhang, Lingtian Lakkaniga, Naga Rajiv Briggs, David C. Chauhan, Rakhee Brescia, Annalisa Federico, Giorgia Yan, Wei Santoro, Massimo McDonald, Neil Q. Li, Hong-yu Carlomagno, Francesca J Med Chem [Image: see text] RET receptor tyrosine kinase is a driver oncogene in human cancer. We recently identified the clinical drug candidate Pz-1, which targets RET and VEGFR2. A key in vivo metabolite of Pz-1 is its less active demethylated pyrazole analogue. Using bioisosteric substitution methods, here, we report the identification of NPA101.3, lacking the structural liability for demethylation. NPA101.3 showed a selective inhibitory profile and an inhibitory concentration 50 (IC(50)) of <0.003 μM for both RET and VEGFR2. NPA101.3 inhibited phosphorylation of all tested RET oncoproteins as well as VEGFR2 and proliferation of cells transformed by RET. Oral administration of NPA101.3 (10 mg/kg/day) completely prevented formation of tumors induced by RET/C634Y-transformed cells, while it weakened, but did not abrogate, formation of tumors induced by a control oncogene (HRAS/G12V). The balanced synchronous inhibition of both RET and VEGFR2, as well the resistance to demethylation, renders NPA101.3 a potential clinical candidate for RET-driven cancers. American Chemical Society 2020-04-16 2020-05-14 /pmc/articles/PMC7901654/ /pubmed/32298114 http://dx.doi.org/10.1021/acs.jmedchem.9b01336 Text en Made available through a Creative Commons CC-BY License (http://pubs.acs.org/page/policy/authorchoice_ccby_termsofuse.html)
spellingShingle Moccia, Marialuisa
Frett, Brendan
Zhang, Lingtian
Lakkaniga, Naga Rajiv
Briggs, David C.
Chauhan, Rakhee
Brescia, Annalisa
Federico, Giorgia
Yan, Wei
Santoro, Massimo
McDonald, Neil Q.
Li, Hong-yu
Carlomagno, Francesca
Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology
title Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology
title_full Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology
title_fullStr Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology
title_full_unstemmed Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology
title_short Bioisosteric Discovery of NPA101.3, a Second-Generation RET/VEGFR2 Inhibitor Optimized for Single-Agent Polypharmacology
title_sort bioisosteric discovery of npa101.3, a second-generation ret/vegfr2 inhibitor optimized for single-agent polypharmacology
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7901654/
https://www.ncbi.nlm.nih.gov/pubmed/32298114
http://dx.doi.org/10.1021/acs.jmedchem.9b01336
work_keys_str_mv AT mocciamarialuisa bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT frettbrendan bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT zhanglingtian bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT lakkaniganagarajiv bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT briggsdavidc bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT chauhanrakhee bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT bresciaannalisa bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT federicogiorgia bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT yanwei bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT santoromassimo bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT mcdonaldneilq bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT lihongyu bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology
AT carlomagnofrancesca bioisostericdiscoveryofnpa1013asecondgenerationretvegfr2inhibitoroptimizedforsingleagentpolypharmacology