Payette's ECoRE Building Anchors Penn State's New Engineering Precinct with a 280,000 SF Research HubPayette's ECoRE Building Anchors Penn State's New Engineering Precinct with a 280,000 SF Research Hub

Payette's ECoRE Building Anchors Penn State's New Engineering Precinct with a 280,000 SF Research Hub

UNI Editorial
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Penn State's College of Engineering has needed a flagship for years, something that could consolidate scattered research groups, attract graduate talent, and signal ambition to anyone driving down Atherton Street. The Engineering Collaborative Research and Education Building, designed by Payette and completed in 2024, is that signal: a 280,000 square foot complex that folds laboratories, teaching spaces, and collaborative lounges into a single address at the heart of a new engineering precinct in State College, Pennsylvania.

What makes ECoRE worth studying is not its size but its organizational gambit. Rather than stacking programs into a conventional slab, Payette broke the mass into angled wings arranged around a central courtyard and threaded them with a multi-story atrium that acts as the building's social and circulatory spine. The result is a plan that reads clearly from the inside, encourages collisions between disciplines, and gives every corridor a sightline to something happening on another floor.

A Facade That Works the Street

Curved facade with vertical metal fins rising above landscaped plaza in afternoon light
Curved facade with vertical metal fins rising above landscaped plaza in afternoon light
Street view of the striped brick and glass facade under a clear blue sky with young trees
Street view of the striped brick and glass facade under a clear blue sky with young trees
Glass and metal vertical fin facade with ground-level entry and pedestrians crossing lawns at dusk
Glass and metal vertical fin facade with ground-level entry and pedestrians crossing lawns at dusk

ECoRE's exterior is defined by a rhythmic curtain of vertical metal fins that wrap each volume in a consistent language while allowing variation in depth and spacing. The fins do real work: they manage solar gain on south and west exposures, reduce glare in labs, and give the facade a shimmering, directional quality that shifts as you walk past. Up close, the building is not monolithic. Striped bands of brick and glass break the mass into readable segments, and the ground level opens generously toward the campus plaza.

At dusk the strategy pays off differently. The fins recede and the fully glazed bays behind them light up, turning the building into a lantern that broadcasts activity to the surrounding precinct. It is a straightforward move, but Payette executes it with discipline: no gratuitous cantilevers, no sculptural flourishes, just a well-tuned envelope doing its job.

The Atrium as Social Infrastructure

Multi-story atrium with wide central staircase and triangulated wood ceiling panels above seated students
Multi-story atrium with wide central staircase and triangulated wood ceiling panels above seated students
Multi-level atrium with interconnected walkways, triangulated wood ceiling, and students gathering on multiple floors
Multi-level atrium with interconnected walkways, triangulated wood ceiling, and students gathering on multiple floors
Atrium lounge with scattered colorful seating, floor-to-ceiling glazing overlooking the campus, and triangulated wood ceiling above
Atrium lounge with scattered colorful seating, floor-to-ceiling glazing overlooking the campus, and triangulated wood ceiling above

The central atrium is the building's strongest room. A wide staircase rises through multiple levels beneath a triangulated wood ceiling that gives the space acoustic warmth and geometric identity without relying on expensive custom fabrication. Interconnected walkways cross the void at each floor, creating layered views that make the population of the building visible to itself. You can stand on any level and see students working, walking, or just hanging around on three other floors.

Payette lined the atrium's edges with lounge zones, casual seating clusters, and floor-to-ceiling glazing that pulls daylight deep into the plan. The colorful furniture is a minor note, but the spatial generosity is not. These are genuinely large interstitial zones, not leftover corridors dressed up with a bench. For a research building, where chance encounters between disciplines can seed new collaborations, this kind of shared space is not a luxury. It is program.

Vertical Circulation as Spectacle

Four-story stairwell with vertical slatted walls, students on seating below, and tall glazing to one side
Four-story stairwell with vertical slatted walls, students on seating below, and tall glazing to one side
View through glass wall into double-height atrium with staircase and students working with drones
View through glass wall into double-height atrium with staircase and students working with drones

A four-story stairwell wrapped in vertical wood slats and tall glazing panels doubles as an informal gathering space, with students perched on seating ledges at its base. The slatted walls filter light and sound, creating an environment that feels calm despite its scale. It is a deliberate inversion of the typical engineering building stairwell, which tends to be a fireproof afterthought.

Elsewhere, a glass wall opens onto a double-height volume where students test drones mid-flight, visible to passersby in the atrium. These moments of transparency are not accidental. Payette has made research legible, turning the building's circulation into a continuous gallery of what happens inside.

Where the Work Happens

Glass-walled research laboratory with exposed ceilings, lab benches, and researchers in white coats
Glass-walled research laboratory with exposed ceilings, lab benches, and researchers in white coats
Acoustic testing chamber lined with pyramidal foam baffles and a technician adjusting equipment inside
Acoustic testing chamber lined with pyramidal foam baffles and a technician adjusting equipment inside
Upper-level lounge space with faceted acoustic wood ceiling and students in casual seating
Upper-level lounge space with faceted acoustic wood ceiling and students in casual seating

The labs themselves are handled with pragmatic clarity. Glass-walled research spaces with exposed ceilings and flexible bench layouts sit alongside highly specialized environments like an anechoic chamber lined with pyramidal foam baffles. The range is significant: ECoRE serves mechanical, electrical, acoustical, and aerospace engineering programs, each with distinct spatial and environmental requirements.

Above and between these technical spaces, upper-level lounges with faceted acoustic wood ceilings provide decompression zones. The ceiling panels here echo the triangulated geometry of the atrium but at a tighter scale, creating pockets of visual and acoustic intimacy within a building that otherwise favors openness. The balance between focused research environments and generous social space is what keeps a building like this from feeling like a warehouse.

Campus Grounds and the Courtyard Strategy

Campus plaza with paved walkways and planted beds linking vertically striped facade volumes under daytime clouds
Campus plaza with paved walkways and planted beds linking vertically striped facade volumes under daytime clouds
Fully glazed facade revealing illuminated interior floors and staircase at dusk
Fully glazed facade revealing illuminated interior floors and staircase at dusk

At ground level, ECoRE extends its presence through a landscaped plaza of paved walkways and planted beds that connect the building to the broader campus grid. The angled wings create a sheltered courtyard that acts as an outdoor room, visible from the atrium and accessible from multiple entries. At night, the illuminated interior floors turn the courtyard into a framed stage, reinforcing the building's ambition to be a visible center of activity rather than a closed box.

Plans and Drawings

Axonometric drawing showing central green courtyard surrounded by building volumes and neighboring structures
Axonometric drawing showing central green courtyard surrounded by building volumes and neighboring structures
Site plan drawing with ground floor highlighted in blue adjacent to landscaped oval area
Site plan drawing with ground floor highlighted in blue adjacent to landscaped oval area
Floor plan showing angled wings with offices and circulation corridors highlighted in yellow
Floor plan showing angled wings with offices and circulation corridors highlighted in yellow
Diagram illustrating circulation paths connecting blue and yellow programmatic zones with red arrows
Diagram illustrating circulation paths connecting blue and yellow programmatic zones with red arrows
Section drawing showing stacked floor plates with timber ceiling module detail at right
Section drawing showing stacked floor plates with timber ceiling module detail at right
Elevation drawing showing a rhythmic facade of vertical blue louvers with larger glazed panels
Elevation drawing showing a rhythmic facade of vertical blue louvers with larger glazed panels
Axonometric drawing of three tower variations with vertical fins and human figures for scale
Axonometric drawing of three tower variations with vertical fins and human figures for scale

The axonometric drawing confirms the courtyard-centric strategy: building volumes pinwheel around a central green space, with neighboring structures forming the edges of a loose quadrangle. The site plan shows the ground floor's relationship to a landscaped oval, while the floor plan reveals the angled wings and their corridor logic. Circulation diagrams map the paths that connect blue and yellow programmatic zones, making explicit the building's commitment to cross-pollination between disciplines.

The section drawing reveals stacked floor plates of varying height, accommodating tall lab volumes alongside standard office levels, with a detail callout for the timber ceiling module that gives the atrium its distinctive character. The elevation drawing documents the vertical louver rhythm and its interplay with larger glazed panels. Together, these drawings show a building that was planned with precision and not simply shaped for effect.

Why This Project Matters

University engineering buildings are frequently compromised by competing demands: research wants sealed, controlled environments; teaching wants flexibility; administrators want a building that photographs well for fundraising materials. ECoRE resolves these tensions not through formal gymnastics but through organizational intelligence. The atrium-and-wing plan gives every program its own territory while ensuring no one is more than a staircase away from the communal spine. The facade is dignified without being precious. The labs are real labs, not showpieces.

Payette has built a building that takes its role as precinct anchor seriously. It establishes a scale, a material language, and a public face that future neighbors can respond to without being overshadowed. For Penn State's engineering ambitions, ECoRE is less a monument than a working engine, and that distinction is exactly right.


Engineering Collaborative Research and Education Building (ECoRE) at Penn State University, designed by Payette. State College, Pennsylvania, United States. 280,000 SF. Completed 2024. Photography by Robert Benson Photography and Warren Jagger.


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