Lab Couriers Take Flight
Volatus Aerospace’s Emerging Role in Canada’s Diagnostic Future
PHOTOGRAPHY: COURTESY OF VOLATUS
The idea of transporting critical medical materials by air without a pilot might feel far-fetched. Yet health care has a history of rapidly normalizing what once seemed improbable. There was a time when rooftop helicopter landings were viewed as disruptive or unrealistic. Today, they are an essential part of emergency care. Drone-based delivery of medical samples and therapeutics may be on a similar path. Across Canada, early trials suggest that unmanned aerial systems could one day reshape how medical products with short shelf lives (isotopes, human test samples, prescriptions and essential supplies) move between facilities. Innovations like this would be particularly helpful in regions where access remains challenging. At the forefront of these tests is Volatus Aerospace (formerly Drone Delivery Canada). Volatus led a series of pilot projects examining how drones could safely and efficiently transport medical materials, inspired by logistics disruptions during the COVID-19 pandemic. Their tests in southern Ontario and Fraser Lake, British Columbia, provide valuable insights for those considering how medical sample logistics may evolve in the coming years. Medical sample transportation plays a critical role in turnaround time and diagnostic accuracy. Across much of Canada, samples are still transported by ground courier with vehicles navigating traffic, weather disruptions, long rural distances and in some seasons, closed roads. For the most part, the system works, but it has weaknesses. Delays can compromise time-sensitive samples, particularly those with short stability windows. Already underserved rural and remote communities often face extended transport times or limited service availability. And each delivery requires a driver, a vehicle and fuel, contributing incrementally to health care’s carbon footprint. Drone delivery presents a different model. Drones can bypass traffic entirely, reducing variability and potentially shortening delivery times. The concept is especially compelling in rural or geographically complex regions, including island and northern communities, where access to timely health care services can be challenging at the best of times. It also opens possibilities within urban health care networks, such as connecting hospital campuses with satellite facilities that currently rely on scheduled courier routes. The first major demonstration of this concept in Ontario came in 2022 with the Volatus “Care by Air” initiative. This project brought together a coalition of partners, including McMaster University, Air Canada Cargo, EllisDon, DSV Global Transport & Logistics and Halton Healthcare — a collaboration that reflects the complexity of introducing drone delivery into regulated health care and aviation environments. The project’s starting point was practical. McMaster University, in Hamilton, ON, is a global leader in the production of medical isotopes, which are used in cancer treatment. They can decay quickly and must be transported rapidly to remain clinically useful1. Traditionally, these materials are transported by ground courier. The pilot explored whether Volatus’s Sparrow drone could offer a faster, more predictable alternative by transporting isotopes from a DSV facility in Milton to Oakville Trafalgar Memorial Hospital. Sparrow was a small, remotely piloted aircraft capable of transporting smaller payloads (5 kg) across short distances (20 km).
“At the time of the test, regulatory requirements were strict. “Transport Canada mandated that drones remain within visual line of sight, which meant we needed nine human observers positioned along the entire flight path who could maintain continuous visibility between Milton and Oakville. By 2025, new updated regulations allowed for Beyond Visual Line of Sight (BVLOS) operations under special flight certificates, which was a significant shift, as it reduced operational complexity and moved us closer to scalability.”
— Katt Keuleman from Volatus Aerospace

At the time of the test, regulatory requirements were strict. “Transport Canada mandated that drones remain within visual line of sight, which meant we needed nine human observers positioned along the entire flight path who could maintain continuous visibility between Milton and Oakville,” offered Katt Keuleman from Volatus Aerospace. As the project progressed, and confidence in the technology improved, the number of required visual observers was reduced. “By 2025, new updated regulations allowed for Beyond Visual Line of Sight (BVLOS) operations under special flight certificates, which was a significant shift, as it reduced operational complexity and moved us closer to scalability,” added Keuleman. While operationally complex, the flights were successful, demonstrating that sensitive medical materials could be transported safely by drone in real-world conditions. Building on that foundation, a second phase, called “DroneCare”, expanded the scope beyond isotope delivery to include human diagnostic samples. This marked an important transition from proof-of-concept to clinical relevance. “The drones were now transporting real patient samples, including blood and urine, between health care facilities. The goal was to evaluate whether drones could replace routine courier routes, such as those connecting Milton District Hospital and Oakville Trafalgar Memorial Hospital,” explained Keuleman. This phase introduced new challenges. Human samples require careful handling, including temperature control and secure packaging to preserve integrity and prevent contamination. Regulatory considerations factored into the plan here, too, as these materials can fall under federal dangerous goods classifications 2. Special compliance permits were required again, particularly given the potential risks if a drone were to fail over a populated area.
The aircraft used for phase two was an upgraded version of the Sparrow, known as the Canary, and it was designed with these constraints in mind. It is a relatively small, battery-powered drone with a payload capacity of 4.5 kg and a range of about 30 km. To meet safety requirements, it was equipped with a parachute system that deploys automatically in the event of a malfunction, allowing the drone to descend safely. The Canary enabled Volatus to conduct flight operations over people. This enabled a more direct route between the hospitals and significantly reduced delivery times. Flights were monitored and controlled from a centralized operations control centre in Vaughan, where trained drone pilots oversaw each mission. Volatus received a special flight operation certificate (SFOC) to operate BVLOS while utilizing a ground-based radar system. A different set of challenges emerged in the parallel project Volatus conducted in Fraser Lake, British Columbia. Unlike the Ontario trials, which focused on a hospital network, this initiative examined how drones could support underserved rural and Indigenous communities. This time, the project involved a collaboration with LifeLabs, the University of British Columbia and the Stellat'en First Nation. The impetus for the Fraser Lake initiative was the COVID-19 pandemic, when existing health care logistics were placed under unprecedented strain. Remote communities faced significant barriers to testing and treatment. Samples often had to be transported long distances to major centres, sometimes requiring air travel through hubs like Vancouver. In some cases, patients could be tested locally, but there was no efficient way to move those samples to laboratories for analysis. Access to medications, including antivirals, was also limited and by the time they could be prescribed and delivered, they were no longer useful3. Drone delivery offered a potential solution, at least in theory. Over the course of the pilot, Volatus conducted more than 1,200 flights, each one covering distances of up to 23 km. Again, the test drones were small, battery-operated vehicles capable of carrying 4.5-kg payloads.
Volatus Control Centre in Vaughan, ON | PHOTOGRAPHY: COURTESY OF VOLATUS
The results were promising but highlighted important limitations. Environmental conditions proved to be a major factor. Cold temperatures affected battery performance, grounding operations during parts of the winter. Wind patterns around the lake created unpredictable conditions, while summer heat occasionally led to overheating. Despite these challenges, the drones operated daily flight operations during favourable conditions, completing up to 12 flights per day. Like the Ontario tests, the Fraser Lake project did not result in any permanent delivery system shifts, but it demonstrated that drone logistics could be viable in rural settings. It also underscored the importance of tailoring solutions to local conditions, particularly in a country as geographically and climatically diverse as Canada. “Partnering with academic innovators like UBC to evaluate drones for medical logistics aligns with our commitment to care in the North. We’re monitoring feasibility and safety and will consider participation when the pathways are clearly defined,” offered Lisette Vienneau, BHSc, Regional Director, Diagnostic Services at Northern Health. For medical laboratory professionals, these projects point to several practical applications. In rural and remote areas, drones could significantly reduce the time required to transport samples to centralized laboratories, improving turnaround times and potentially patient outcomes. In urban settings, they could streamline connections between hospital sites, reducing reliance on ground couriers. In emergency situations, drones could deliver critical supplies — such as blood products or medications — directly to where they are needed, bypassing traffic and other delays. There are also broader implications for sustainability. By reducing the number of vehicle trips required for sample transport, drone delivery could help lower the carbon footprint of health care logistics. “While the environmental impact of drone manufacturing and battery production must also be considered, the potential for reducing emissions is notable,” offered Keuleman. At the same time, it is important to remain realistic about the current limitations. “Drones are highly sensitive to weather conditions and generally cannot operate in heavy precipitation, icing or poor visibility,” explained Keuleman. “Payload capacity remains constrained, particularly for battery-powered systems, which must balance weight against range. Larger drones offer greater capability but come with increased regulatory and operational complexity,” she added.
Urban deployment presents additional challenges. Airspace restrictions, proximity to airports, and safety considerations make routine drone delivery in dense cities difficult. “We’re a long way from pizza delivery by drone. Some have heard of Amazon and Walmart’s drone delivery, but those were highly controlled tests in communities with very predictable weather, like Arizona. There are a lot of risks to overcome before we see delivery drones in our neighbourhoods,” she added. Public perception is another factor that can’t be overlooked. Drones are typically associated with surveillance or military use cases, which can create concern in residential communities. During the Ontario trials, Volatus engaged in extensive public outreach. “We informed all the residents along the path that they might see drones overhead during the test period, that they were not being filmed, and that the drones carried technology to prevent crashes. Security and privacy concerns were valid, and we were always aware of public education as a mandatory requirement. Having the community championing these tests was important. We also couldn’t do it without local airports fully supporting the tests,” confirmed Keuleman. Looking ahead, scalability depends on a combination of technological advancements, evolving regulations, and available investment for new infrastructure. Volatus Aerospace’s model envisions an integrated service that includes aircraft, piloting service, and compliance. However, achieving economic viability will require sufficient scale, along with continued improvements in battery technology, navigation systems, and detect-and-avoid capabilities. “The early success of programs like Care-by-Air and DroneCare reinforces the important role drone delivery can play in modern health care logistics,” said Keuleman. “We remain dedicated to exploring opportunities that provide real, meaningful value — particularly when it comes to improving how Canadians access health care services.” Despite these challenges, the trajectory is clear. Drone delivery is unlikely to replace traditional logistics entirely, but it is well-positioned to complement existing systems, particularly in scenarios where speed, reliability, and access are critical. In this sense, it represents an evolution vs. a complete disruption. These early experiments suggest that if drone delivery can work in Canada, across long distances, in harsh weather, and within complex regulatory environments, it can work almost anywhere. For medical laboratory professionals, the implications are significant. Faster, more reliable sample transport has the potential to improve diagnostic workflows, expand access to care in underserved communities, and ultimately improve patient outcomes. The transition will not happen overnight. But as these pilot projects demonstrate, it’s already underway.
Editor’s Note: The projects referenced in this article were conducted under the Drone Delivery Canada (DDC) brand prior to the company’s integration into Volatus Aerospace.
Janet Whalen
CSMLS Marketing & Communications Manager


Janet Whalen
CSMLS Marketing & Communications Manager