Integrated transcriptomic and functional modeling reveals AKT and mTOR synergy in colorectal cancer.

Journal: Scientific reports
Published Date:

Abstract

Colorectal cancer (CRC) treatment remains challenging due to genetic heterogeneity and resistance mechanisms. To address this, we developed a drug discovery pipeline using patient-derived primary CRC cultures with diverse genomic profiles. These cultures closely resemble certain molecular characteristics of primary and metastatic CRC, highlighting their promise as a translational platform for therapeutic evaluation. Importantly, our engineered model and patient-derived cells reflect the complexity and heterogeneity of primary tumors, not observed with standard immortalized cell lines, offering a more clinically relevant system, although further validation is needed. High-throughput screening (HTS) of 4255 compounds identified 33 with selective efficacy against CRC cells, sparing normal, healthy epithelial cells. Among the tested combinations, everolimus (mTOR inhibitor) and uprosertib (AKT inhibitor) demonstrated promising synergy at clinically relevant concentrations, with favorable therapeutic windows confirmed across tested patient-derived cultures. Notably, this synergy, revealed through advanced models, might have been overlooked in traditional immortalized cell lines, highlighting the translational advantage of patient-derived systems. Furthermore, the integration of machine learning into the HTS pipeline significantly improved scalability, cost-efficiency, and predictive accuracy. Our findings underscore the potential of patient-derived materials combined with machine learning-enhanced drug discovery to advance personalized therapies. Specifically, mTOR-AKT inhibition emerges as a promising strategy for CRC treatment, paving the way for more effective and targeted therapeutic approaches.

Authors

  • Marcin Duleba
    Ryvu Therapeutics, Kraków, Poland. marcin.duleba@ryvu.com.
  • Eliza Zimoląg
    Ryvu Therapeutics, Kraków, Poland.
  • Joanna Szuszkiewicz
    Ryvu Therapeutics, Kraków, Poland.
  • Marcin Serocki
    Ryvu Therapeutics, Kraków, Poland.
  • Joanna Szklarczyk
    Ryvu Therapeutics, Kraków, Poland.
  • Olga Dracz
    Ryvu Therapeutics, Kraków, Poland.
  • Alexander Kurzejamski
    Ryvu Therapeutics, Kraków, Poland.
  • Izabella Więckowska
    Ryvu Therapeutics, Kraków, Poland.
  • Marcelina Chmiel
    Ryvu Therapeutics, Kraków, Poland.
  • Barbara Lipert
    Ryvu Therapeutics, Kraków, Poland.
  • Katarzyna Sarad
    Ryvu Therapeutics, Kraków, Poland.
  • Joanna Krawczyk
    Department of Anaesthesia, Aneurin Bevan University Health Board, Newport, UK.
  • Oleksii Bryzghalov
    Ryvu Therapeutics, Kraków, Poland.
  • Agata Stachowicz-Wałaszek
    Ryvu Therapeutics, Kraków, Poland.
  • Karolina Pyziak
    Ryvu Therapeutics, Kraków, Poland.
  • Joanna Drozdowska
    Ryvu Therapeutics, Kraków, Poland.
  • Krzysztof Baczyński
    Ryvu Therapeutics, Kraków, Poland.
  • Konrad Wojtowicz
    Ardigen, Kraków, Poland.
  • Maurycy Chronowski
    Ardigen SA, Podole 76, 30-394 Kraków, Poland.
  • Krzysztof Rataj
    †Department of Medicinal Chemistry, Institute of Pharmacology, Polish Academy of Sciences, 12 Smętna Street, 31-343 Kraków, Poland.
  • Magdalena Otrocka
    Ardigen, Kraków, Poland.
  • Michał Mikula
    Maria Skłodowska-Curie National Research Institute of Oncology, Warsaw, Poland.
  • Paula Feliksiak
    Medical University of Gdańsk, Gdansk, Poland.
  • Rafal Dziadziuszko
    Department of Oncology and Radiotherapy, Faculty of Medicine, Medical University of Gdańsk, Gdańsk, Poland.
  • Tomasz Rzymski
    Ryvu Therapeutics, Kraków, Poland.
  • Andrew Thomason
    Ryvu Therapeutics, Kraków, Poland.
  • Krzysztof Brzózka
    Ryvu Therapeutics, Kraków, Poland.
  • Andrzej Mazan
    Ryvu Therapeutics, Kraków, Poland. andrzej.mazan@ryvu.com.