Safe

Numéro de référence
26
Texte

Transportation is rock-solid safe, and rail is hands-down the superior choice. The dedicated rail spur would minimize road risks, leverages rail’s excellent safety stats for heavy loads, and use routes designed for control and monitoring. Canada’s stringent regulations ensure this.

To cut through fears about accidents, let’s paint a stark, real-world picture comparing a fossil fuel transport catastrophe to the robust reality of nuclear fuel transport.

Picture this: The night of July 6, 2013, in Lac-Mégantic, Quebec. A runaway train loaded with crude oil slams into the town center at terrifying speed. Tankers rupture in a chain of deafening explosions—fireballs erupt hundreds of feet into the sky, turning night into infernal day. A raging river of burning oil surges through streets, igniting homes, businesses, and cars in a wall of flame hotter than a crematorium. Screams pierce the roar as 47 people perish, some vaporized so completely their remains are never found. Over 30 buildings—half the downtown—reduced to blackened skeletons. Six million litres of toxic crude soak the soil, flow into the Chaudière River, and poison waterways for miles, killing fish, coating birds in suffocating sludge, and leaving a legacy of contaminated sediment that lingers for years. Residents evacuate in terror amid choking black smoke; cleanup costs soar into the hundreds of millions, with ongoing fears of cancer and health issues from the pervasive toxins.   

That’s the visceral horror of a conventional fuel spill: flammable liquid that spreads uncontrollably, burns ferociously, and poisons ecosystems on a massive scale.

Now imagine the absolute worst-case for used nuclear fuel transport—a scenario regulators have obsessed over for decades. These aren’t fragile tankers; the fuel is solid ceramic pellets (like hard, thumb-sized cylinders of uranium dioxide—insoluble, non-flammable, and sealed in robust rods). They’re packed into massive steel casks weighing over 100 tonnes, built like armored fortresses.

Real tests prove it: Engineers have deliberately smashed locomotives into these casks at 130 km/h— the cask dents but holds. Dropped them from cranes nine meters onto concrete—barely a scratch inside. Engulfed them in jet-fuel fires at 800°C for over 30 minutes—still sealed tight.    Globally, over 20,000 shipments of used fuel have occurred without a single radiation release causing harm or environmental damage.

Even in the vanishingly unlikely event a cask is breached and a few pellets spill onto the ground? No explosions. No rivers of fire. No vast toxic plumes drifting for miles. Those pellets sit there like dangerously hot, glowing embers—intensely radioactive up close (lethal exposure in minutes without protection), but the radiation drops off sharply with distance. No spreading, no soaking into water tables like oil, no mass wildlife die-offs. Emergency crews cordon the area, scoop them up remotely, and it’s contained. Localized hazard, not apocalyptic devastation.

Fossil fuel spills unleash widespread, persistent chemical hell. Nuclear fuel’s engineered containment turns even extreme accidents into manageable events with no comparable ecological catastrophe.

This DGR is safe, inclusive, and vital for sustaining nuclear as a cornerstone of clean energy. It honours Indigenous partnerships, protects our shared environment, and advances Canada’s climate leadership. Let’s champion it wholeheartedly—it’s how responsible nations handle the future.

Présenté par
A Brock
Phase
Planification
Avis public
Avis public - Période de consultation publique sur le résumé de la description initiale du projet et possibilité d'aide financière
Pièce(s) jointe(s)
S.O.
Date et heure de soumission
2026-01-11 12 h 58
Date de modification :