The Gordie Howe International Bridge has officially opened, marking a new chapter in cross-border infrastructure between Canada and the United States. According to Canadian Architect, the $6.4 billion CDN project includes a 53-hectare Canadian Port of Entry whose architectural design was led by Moriyama Teshima Architects (MTA).
The new crossing, named after Canadian-born hockey legend Gordie Howe, spans the Detroit River and connects Highway 401 in Ontario to I-75 in Michigan. Designed, built, and maintained by the Public-Private Partnership consortium Bridging North America (BNA), the project includes ten buildings and inspection canopies at the Canadian Port of Entry, along with highway works on both sides of the border.
A Civic Gateway Designed by Moriyama Teshima Architects
MTA served as a key member of the AECOM team, lead designer for BNA, and led the architectural design of the Canadian Port of Entry. The firm sought to create an intuitive arrival experience for travellers while providing employees with a dignified and supportive workplace. As MTA Partner Brian Rudy told Canadian Architect, “Designing what is literally the largest front door to Canada, we wanted to create an experience that would be welcoming, smooth and gracious.”
The campus is conceived as a respectful gateway to Canada. Visitors approaching from the bridge or Highway 401 are immediately greeted by views of Black Forest Oak Park, whose woodland landscape forms a constant backdrop, reflecting Canada’s rich natural heritage. The fluid composition of buildings and canopies reinforces the movement of vehicles through the site, creating a sense of openness and ease that helps reduce the stress often associated with border crossings. Architectural references to the adjacent forest, as well as subtle nods to hockey, are woven throughout the campus in its structure, forms, and materials.
Glazing and Envelope Performance at the Port of Entry
The Canadian Port of Entry’s glazing package is central to its architectural expression and environmental performance. Canadian Architect reports that the project’s sustainability features include high-performance double-pane IGUs with thermally broken aluminium frames. These assemblies appear across the campus’s ten buildings and inspection canopies, supporting visual openness and daylighting while addressing thermal performance needs in a continuously operating border facility.
The primary inspection canopy, where visitors first arrive after descending from the bridge, echoes the bridge’s graceful arch in a sculptural gesture spanning the inspection lanes. A secondary canopy frames views of the forest through elegantly arched columns and features a filigree polycarbonate skylight that references the geometry of a hockey net. The main building is defined by a continuous red sunshade that evokes autumn woodland colours, while interior open spaces minimize visual obstructions and maintain clear sightlines to the surrounding context.
For Canadian glazing contractors and specifiers, the use of thermally broken aluminum frames and double-pane IGUs aligns with the performance path familiar in Canadian fenestration standards such as CSA A440. While the Canadian Architect article does not state the specific U-factor or solar heat gain coefficient for the glazing, the envelope approach signals a commitment to high-performance fenestration in a high-security civic setting. The project’s long-term maintenance horizon of 30 years under the P3 agreement places a premium on durable glazing systems that can withstand Ontario’s seasonal temperature swings and snow loads.
Sustainability Credentials and Energy Systems
The Canadian Port of Entry earned the highest-level Envision Platinum Award from the Institute for Sustainable Infrastructure, and it is attaining LEED v4 Silver, according to Canadian Architect. The sustainability strategy includes high-performance wall and roof systems in addition to the glazing package. A cogeneration system provides electricity, offsets heating and snow melting loads using waste heat, and drives an absorption chiller to offset cooling load—a notable integration for a border facility that operates around the clock.
The use of high-performance double-pane IGUs with thermally broken aluminium frames contributes to the project’s energy and comfort goals. In a Canadian context, where winter frost and summer humidity place competing demands on building envelopes, thermally broken frames reduce heat loss and condensation risk at the frame-to-glazing interface. The project’s long-term maintenance horizon under the P3 agreement reinforces the need for durable glazing systems.
What the Crossing Means for the Canadian Glazing Industry
The Gordie Howe International Bridge is a high-profile Canadian project that puts architectural glazing and envelope performance on display. With ten buildings and inspection canopies, the Canadian Port of Entry represents a significant volume of fenestration, curtain wall, and skylight work. Canadian glazing contractors, fabricators, and suppliers can look to the project as a reference point for public-sector work that combines security, durability, and design excellence.
Canadian Architect notes that the project aims to increase capacity, improve safety and resilience, and provide a publicly owned alternative at the busiest Canada–U.S. border crossing. For the glazing supply chain, this means ongoing maintenance and potential future retrofits over the 30-year P3 term. The high-performance double-pane IGUs and thermally broken aluminium frames will be subject to inspection and performance verification, reinforcing the need for quality fabrication and installation.
The Canadian Port of Entry also reflects the broader direction of civic architecture in Canada, where daylighting, views, and energy performance are no longer afterthoughts but core design drivers. As the project moves into operation, it will serve as a case study for how high-performance glazing can contribute to a welcoming, efficient, and resilient border facility. The combination of Moriyama Teshima Architects’ design vision and the project’s sustainability targets demonstrates that even high-security infrastructure can embody the principles of Canadian architecture and envelope innovation.