俄勒冈大学高地厅丨美国波特兰丨LEVER

University of Oregon, Highland Hall

Project Info

LOCATION

Portland, Oregon

SCALE

8,600 sf

PROGRAM

Studio Space, Seminar Rooms, Faculty Offices

COMPLETION

2024

The University of Oregon relocated its Portland program to an existing educational campus in North Portland, formerly the home of Concordia University. LEVER was selected to transform a gymnasium turned performing arts facility into a new home for the Department of Architecture. This initiative restores the structure’s historical integrity while transforming it into a contemporary educational facility that supports learning, experimentation, and community. The project embodies the values of the Department by foregrounding a commitment to environmental sustainability.

To reveal the building’s original character, elements such as the dramatic bowstring roof trusses and masonry walls are uncovered, restored, and celebrated. The design also restores clerestory windows, adds two iconic new timber and glass entry vestibules, and incorporates operable ground floor windows to maximize natural light and ventilation. Extensive daylight analysis was conducted in collaboration with the University’s Energy Studies in Buildings Laboratory to ensure optimal daylighting conditions are achieved within the open studios, seminar rooms, and faculty offices. The building transformation also takes advantage of the high bay studio space to increase the building’s thermal performance and enhance user comfort. Mechanically controlled vents and high-volume fans assist with natural ventilation in the summer; and in the winter, they destratify hot and cold air to reduce energy usage. The entire building envelope is upgraded with new, continuous insulation that when combined with a modern HVAC system with integrated heat recovery, will create a high performing building.

Highland Hall emphasizes flexibility, with a large, open plan that accommodates changing configurations of student desks. The design integrates recycled polyester acoustic wall panels for presentations and seminar rooms constructed from 7” mass plywood panels reclaimed from a three-story test structure at the Tallwood Design Institute’s A.A. “Red” Emmerson Advanced Wood Product Lab at Oregon State University. The use of mass plywood for knee walls and conference areas highlights innovative regional materials and the promise of material reuse. The building's seismic upgrade also demonstrates a focus on safety and resilience, aligning with the requirements of architectural education and regional design considerations.

Other community spaces are flexible, serving as student review spaces or open areas for group work.

Existing Building

The design transforms a former gymnasium turned performing arts space into a home for architectural design students and faculty.

6/7

In collaboration with the University’s Energy Studies in Buildings Laboratory, sensors are being embedded in the walls of Highland Hall to study moisture and temperature

7/7

Sensor detail

1/7

Extensive daylight analysis was conducted in collaboration with the University’s Energy Studies in Buildings Laboratory

2/7

To study daylight conditions across diverse seasons and times of day, the team used a heliodon simulation

3/7

Simulating daylight conditions in a full scale model using the heliodon

4/7

The project’s mass plywood interiors use panels reclaimed from material testing completed by the Tallwood Design Institute—a collaboration between the University of Oregon and Oregon State University

5/7

Highland Hall’s structure is uncovered and restored

In collaboration with the University’s Energy Studies in Buildings Laboratory, sensors are being embedded in the walls of Highland Hall to study moisture and temperature

Sensor detail

Extensive daylight analysis was conducted in collaboration with the University’s Energy Studies in Buildings Laboratory

To study daylight conditions across diverse seasons and times of day, the team used a heliodon simulation

The design emphasizes natural ventilation supported by high volume fans and mechanically controlled vents. These strategies ensure the large, open space is high on comfort and low on energy use.