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Commercialization Priming

In partnership with Genome Quebec

Marque de D2R et Genome Quebec

The Commercialization Priming funding program, in partnership with Génome Québec,Ìýprovides short-term financial support for early-stage efforts that test or validate the commercial potential of well-defined concepts, technologies, or inventions tied to the D2R Initiative’s priority areas.

Applications to this program undergo a comprehensive, multi-step review process. This includes a scientific merit review by external reviewers, followed by reviews from internal and external experts who evaluate both the commercial potential and alignment with D2R. Final approval for co-funding is granted by Génome Québec and D2R’s Research Steering Committee.

Principal investigator Name of project
Benoit Gentil

Collaboration with QurCan Therapeutics to develop an RNA therapy to treat a genetic brain disease

Silvia Vidal Poly-NS saRNA dengue vaccine: A novel platform for T cell-driven protection against severe dengue
Jo Anne Stratton RNA therapies for the treatment of a rare leukodystrophy
Paul Goodyer An mRNA strategy to restore CTNS expression in Cystinosis
Larry Lands Lipid Nanoparticles for Nasal mRNA Vaccines
Anne Gatignol Aptamer-short hairpin RNA conjugation for gene therapy against HIV

Funded project summaries

Conversion of a gene therapy into an RNA therapy using a novel nanoparticle system (or Collaboration with QurCan Therapeutics to develop an RNA therapy to treat a genetic brain disease)

This project aims to develop a new RNA therapy for the rare neurodegenerative disorder ARSACS, using advanced C-TERP nanoparticles to deliver treatment directly to neural cells. Unlike traditional gene therapies that can cause immune reactions and dosage issues, this RNA-based approach offers better control, repeat dosing, and improved delivery to the nervous system. Building on prior success with gene therapy, researchers will compare RNA and DNA delivery methods to determine the most effective strategy for restoring key proteins and protecting nerve cells. Initial studies will use long-term neural cell cultures, paving the way for future testing in animal models and other related conditions. This technology has broad potential for treating rare genetic disorders, and the collaboration with QurCan positions the team for further funding and industry partnerships, with interest already emerging from major pharmaceutical companies.

Principal Investigator:ÌýBenoit Gentil (ÂÌñÉç)
Co-Investigator(s): Heather Durham (Montreal Neurological Institute)
Collaborator(s): John Reid (QurCan), Mohammad Amini (QurCan)
Project duration: 12-months
Relevant D2R Axes: RNA Therapeutics (Axis 2)

Poly-NS saRNA dengue vaccine: A novel platform for T cell-driven protection against severe dengue

This proposal outlines a collaborative effort with the start-up Vaccine for Communities (V4C) to advance dengue vaccine development by leveraging cutting-edge self-amplifying RNA (saRNA) technology. Building on V4C’s intellectual property for the current mRNA vaccine, our laboratory will develop a novel saRNA vaccine and conduct rigorous preclinical testing in validated mouse models of severe dengue disease. The project aims to establish proof of concept for the saRNA platform, demonstrating immunogenicity, protection, and safety through comparative studies with V4C’s mRNA vaccine and the licensed QDENGA (TAK-003) vaccine. Additionally, this research will lay the groundwork for future intellectual property through improvements to the alphavirus-replicon system, enhancing antigen expression, immunogenicity, and tissue-specific delivery.

Principal Investigator:ÌýSilvia VidalÌý(ÂÌñÉç)
Co-Investigator(s):ÌýLeo LiuÌý(ÂÌñÉç)
Collaborator(s): Anavaj Sakuntabhai (Institut Pasteur, Tokyo, Japan, and V4C),ÌýEtienne Simon-Lorière (Institut Pasteur, Paris, France, and V4C)
Project duration: 12-months
Relevant D2R Axes: RNA Therapeutics (Axis 2)

RNA therapies for the treatment of a rare leukodystrophy

ALSP (Adult Leukoencephalopathy with axonal Spheroids and Pigmented glia)Ìýis a genetic disorder caused by mutations in a gene important for immune cell function, especially important for immune cells in the brain, called microglia. When this gene is not working properly patients have motor and cognitive dysfunction leading to death within 6-7 years of diagnosis. It is clear that microglial activation in ALSP induces increased inflammation leading to brain tissue damage, but the therapeutic options for patients remain scarce and are primarily focused onÌýthe management of symptoms. With this proposal we aim to understand how state-of-the art RNA therapies can be optimized to reverse cytotoxicity of human microglia in ALSP patients and provide a novel and disease-modifying treatment strategy.Ìý

Principal Investigator: Jo Anne Stratton (ÂÌñÉç)
Co-Investigator(s): Roberta La Piana (ÂÌñÉç), Thomas Durcan (ÂÌñÉç)
Collaborator(s): Martin Sauvageau (IRCM)
Project duration: 12-months
Relevant D2R Axes: RNA Therapeutics (Axis 2)

An mRNA strategy to restore CTNS expression in Cystinosis

Cystinosis is a rare autosomal recessive disease caused by mutations of the CTNS gene. Without this gene, infants develop failure to thrive, progressive kidney failure and gradual deterioration of other organs.

Our project will show that a stabilized CTNS mRNA in a new lipid nanoparticle (LNP) formulation can prevent deterioration of the kidneys, when delivered early in life to our Ctns-mutant mice and can reverse kidney damage if given later in life.Ìý

We will answer key questions about the design of therapeutic CTNS mRNAs and the novel LNP formulations that target the kidneys.Ìý

Principal Investigator: Paul Goodyer (Research Institute of the ÂÌñÉç Health Centre)
Co-Investigator(s): Elena Torban (Research Institute of the ÂÌñÉç Health Centre)
Project duration: 12-months
Relevant D2R Axes: RNA Therapeutics (Axis 2)

Lipid Nanoparticles for Nasal mRNA Vaccines

RNA vaccines work by giving your body instructions to make a harmless protein that activates your immune system. These instructions are delivered using lipid nanoparticles—tiny fat droplets—which were safely used in COVID-19 vaccines. Instead of injections, this project explores delivering RNA vaccines through a simple nose spray. This nasal method is not only more convenient but could offer better protection for the lungs. The team is developing improved lipid nanoparticles specifically designed for nasal delivery, aiming to boost the immune response and expand the use of RNA vaccines to protect against various serious lung infections.

Principal Investigator: Larry Lands (Research Institute of the ÂÌñÉç Health Centre)
Co-Investigator(s):ÌýN/A
Project duration: 8-months
Relevant D2R Axes: RNA Therapeutics (Axis 2)

Aptamer-short hairpin RNA conjugation for gene therapy against HIV

HIV infection has been cured using bone marrow cell transplantation in a few individuals who received transplants from HIV resistant donors. Due to risks of cell transplant between individuals this procedure cannot be widely used. However, a similar procedure could be effective, in which a person's own cells are modified to make them resistant to HIV. We have identified six anti-HIV RNA-based genes that have great potential to be effective in such a procedure. The development of these genes to safely and effectively generate HIV resistant cells represents one of the most promising avenues for developing a cure for HIV.

Principal Investigator: Anne Gatignol (Jewish General Hospital)
Co-Investigator(s): Jean-Pierre RoutyÌý(Research Institute of the ÂÌñÉç Health Centre)
Project duration: 12-months
Relevant D2R Axes: RNA Therapeutics (Axis 2)

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