Innovative Projects Realized

L2M – Reusable immunoassays for biomolecule detection and diagnostics

ELISAs are one of the most utilized immunoassays for rapid disease diagnostics, disease surveillance, biomarker quantification, food inspection, and food analysis. Since the invention of ELISAs over 50 years ago, they have been restricted to single-use disposable test kits. Invention of reusable ELISAs is a potentially market-disrupting advancement that requires market validation. The Lab2Market Validate program will allow for challenges to product commercialization to be addressed by speaking to users and manufacturers of ELISAs. Insights from the Lab2Market Validate program will guide the strategic direction of how to move novel reusable ELISA technologies to market.

L2M – Solar-Driven Hydrogen Production and Value-Added Products from Glycerol Using Photocatalysis

This work focuses on solar-driven hydrogen production and the valorization of glycerol into value-added chemicals using advanced photocatalysis techniques. By combining renewable energy with glycerol waste management, this research addresses two critical challenges: reducing greenhouse gas emissions through clean hydrogen production and creating a sustainable, circular economy by converting biodiesel byproducts into useful chemicals.

There are several key areas of focus:

Photocatalyst development to enhance the efficiency of solar-driven reactions, boosting hydrogen yields.
The application of solar energy to power chemical transformations, which is a crucial step toward green, sustainable energy solutions.
Hydrogen production and storage as a clean energy carrier, helping to decarbonize energy systems.
Glycerol valorization, where waste glycerol from biodiesel production is repurposed into valuable chemicals, thus reducing waste and generating new economic opportunities.
This work contributes to Canada’s green energy goals, including reducing reliance on fossil fuels, promoting net-zero initiatives, and advancing the circular economy by transforming industrial waste into high-value products.

L2M-Regulated Multi-stage Air-pressurized Chambers Helmet (R-MACH)

This project is focused on the design and optimization of a helmet, the Regulated Multi-stage Air-pressurized Chambers Helmet (R-MACH), that incorporates a unique idea aimed at effectively mitigating rotational forces without compromising on weight or performance at high impact velocities. Our novel design leverages interconnected air-pressurized chambers and elastic materials, instead of Expanded Polystyrene (EPS) foam in conventional helmet liners, to optimize shear and axial stiffness. Initial prototypes have been developed, and preliminary testing indicates promising results in reducing rotational forces.

L2M – Street2School

Street2School is a youth-led initiative that addresses the growing issue of educational inequity in Nigeria, particularly among out-of-school children in underserved communities like Zamani. With over 10.5 million children currently out of school in Nigeria, according to UNICEF, our mission is to provide these children with access to quality education, breaking the cycle of poverty and creating long-term opportunities for socio-economic growth.
Our innovative approach focuses on mobile learning spaces equipped with digital tools, internet connectivity, and educational software that deliver interactive and engaging content. These mobile classrooms are designed to be flexible and easily set up in various community locations, making education accessible to children who are unable to attend formal schools due to socio-economic barriers.
Street2School’s model goes beyond traditional academic learning by incorporating life skills and vocational training into the curriculum, ensuring a well-rounded education for each child. With over 70 children already enrolled in the program, we provide personalized mentorship and support through trained volunteer teachers, fostering both academic success and personal development.
Our vision is to scale this initiative across similar underserved communities in Nigeria, working towards creating a future where every child has the opportunity to learn and thrive. By leveraging technology and community engagement, we are committed to transforming education in Nigeria, one mobile classroom at a time.
Street2School strives to create measurable impacts, such as improved literacy rates, increased school enrollment, and better academic performance, ultimately contributing to a more equitable and educated society.

L2M – Sharefric

A platform focused on making high-quality products more affordable and accessible to consumers by promoting a sense of community. The platform’s goal is to support smart buying decisions and empower users to achieve greater value in their shopping experiences. Our platform is committed to transforming the way people shop by making affordability a reality for more consumers.

L2M – ForYourResearch

ForYourResearch is a AI powered software system which makes it faster and easier to conduct literature reviews.

L2M – An AI-Based Cycling Device for Lower Limb Rehabilitation

Pedaling exercises using stationary cycling ergometers are a widely used rehabilitation method for lower limb injury recovery. However, current cycling devices do not allow for individualized training of each leg based on its specific load-carrying capacity. APAD is novel cycling ergometer that will address this gap by designing and developing a smart cycling ergometer capable of delivering tailored rehabilitation programs for individual legs. The device will reduce rehabilitation program duration, save associated healthcare costs, and improve patient outcomes. However, there is a dilemma about the market readiness and also the adoption rate of the technology. The outcome of the proposed project will help the partner organization to identify the market need and end-users’ expectation for better adoption of the technology.

L2M – Revolutionizing Cycling Performance and Preventing Injuries with Real-Time AI Biomechanical Feedback through CycloNova

There is a lack of technology to optimize performance and prevent injuries in cyclists. This is a potential reason leading to an injury rate of 3-50 per 1000 persons. Our solution leverages AI to deliver real-time, accurate biomechanical feedback to riders. By providing actionable insights, it has the potential to reduce injury rates and significantly enhance overall cycling efficiency. This innovation could significantly enhance the cycling experience of millions of riders worldwide.

L2M – Advancing Extracellular Vesicles Isolation via Capillary Microfluidics

This project focuses on developing an innovative passive capillary microfluidic platform for the isolation of extracellular vesicles (EVs), which are essential for diagnostic and therapeutic applications. The goal is to create a more efficient, scalable, and cost-effective method of EV isolation compared to traditional techniques such as ultracentrifugation. This technology will allow for high-purity EV isolation without the need for complex equipment, making it highly appealing for research labs, biotech companies, and clinical settings. The expected benefit to the partner organization includes access to cutting-edge technology that could significantly enhance their research capabilities, streamline EV isolation processes, and offer a competitive edge in the growing field of personalized medicine and biomarker discovery.

L2M- GHGSensing product market readiness plan

This project supports the development of a market readiness plan for the GHGSensing product. The project’s outcome will help the company better understand marketing barriers and develop more realistic product launch strategies. GHGSensing aims to provide a cost-effective solution for large-scale emissions monitoring, enabling farmers to track and reduce their environmental impact more effectively. By facilitating emissions management, this product will contribute to Canada’s climate goals while supporting the agricultural industry in adopting more sustainable practices.

L2M – Nature Home: Innovations at the Intersection of Housing, Sustainability, and Food Access

The proposed project aims to address housing affordability and sustainability challenges in Calgary by integrating greenhouses with residential spaces. This innovative approach seeks to create energy-efficient homes that also support year-round, culturally sensitive food production. The project will tackle regulatory, technical, and social barriers through participatory design, technical simulations, and engagement with stakeholders such as investors, community organizations, and local authorities. The expected benefit to the partner organization is a scalable and market-ready housing model that meets local demand, sets a new standard for sustainable living, and enhances the organization’s reputation as a leader in innovative housing solutions.

Developing Reliable Computational Models for Redox-Induced Electron Transfer

Spintronic materials have the potential to improve the density of computer memory and the speed of computer chips. The key feature of spintronic materials is that electronic changes (e.g., electron addition to a molecule) are coupled to changes in magnetic properties. We are particularly interested in transition-metal compounds that undergo redox-induced electron transfer (RIET) because these molecules have unique electronic and magnetic properties. Unfortunately, existing computational models for these molecules are unreliable because the most popular computational approach for RIET molecules (density functional theory, DFT) is unreliable, and because even in cases where DFT is accurate, current software often fails to solve the resulting equations. By systematically exploring RIET at a fundamental level, we will elucidate the reasons DFT fails and develop new, more reliable, approaches. These new methods will be applicable to many other problems too, including problems related to solar energy and industrial chemical manufacturing.