Identification of β-Lactams Active against Mycobacterium tuberculosis by a Consortium of Pharmaceutical Companies and Academic Institutions.
Ben S GoldJun ZhangLandys Lopez QuezadaJulia RobertsYan LingMadeleine WoodWasima ShinwariLaurent GoullieuxChristine RoubertLaurent FraisseEric BacquéSophie LagrangeBruno Filoche-RomméMichal ViethPhilip A HipskindLouis N JungheimJeffrey AubéSarah M ScarryStacey L McDonaldKelin LiAndrew PerkowskiQuyen NguyenVeronique Anne DartoisMatthew ZimmermanDavid B OlsenKatherine YoungShilah BonnettDouglas JoerssTanya ParishHelena I M BoshoffKriti AroraClifton E BarryLaura GuijarroSara AncaJoaquín RullasBeatriz Rodríguez-SalgueroMaria S Martínez-MartínezEsther Porras-De FranciscoMónica CachoDavid Barros AguirrePaul W SmithSteven J BerthelCarl NathanRobert H BatesPublished in: ACS infectious diseases (2022)
Rising antimicrobial resistance challenges our ability to combat bacterial infections. The problem is acute for tuberculosis (TB), the leading cause of death from infection before COVID-19. Here, we developed a framework for multiple pharmaceutical companies to share proprietary information and compounds with multiple laboratories in the academic and government sectors for a broad examination of the ability of β-lactams to kill Mycobacterium tuberculosis (Mtb). In the TB Drug Accelerator (TBDA), a consortium organized by the Bill & Melinda Gates Foundation, individual pharmaceutical companies collaborate with academic screening laboratories. We developed a higher order consortium within the TBDA in which four pharmaceutical companies (GlaxoSmithKline, Sanofi, MSD, and Lilly) collectively collaborated with screeners at Weill Cornell Medicine, the Infectious Disease Research Institute (IDRI), and the National Institute of Allergy and Infectious Diseases (NIAID), pharmacologists at Rutgers University, and medicinal chemists at the University of North Carolina to screen ∼8900 β-lactams, predominantly cephalosporins, and characterize active compounds. In a striking contrast to historical expectation, 18% of β-lactams screened were active against Mtb, many without a β-lactamase inhibitor. One potent cephaloporin was active in Mtb-infected mice. The steps outlined here can serve as a blueprint for multiparty, intra- and intersector collaboration in the development of anti-infective agents.
Keyphrases
- mycobacterium tuberculosis
- infectious diseases
- pulmonary tuberculosis
- antimicrobial resistance
- coronavirus disease
- sars cov
- magnetic resonance
- liver failure
- emergency department
- high throughput
- quality improvement
- type diabetes
- drug induced
- adipose tissue
- magnetic resonance imaging
- multidrug resistant
- medical students
- mechanical ventilation
- metabolic syndrome
- health information
- computed tomography
- intensive care unit
- acute respiratory distress syndrome
- respiratory failure
- high fat diet induced
- hiv infected
- aortic dissection
- atopic dermatitis
- wild type
- hepatitis c virus