Sustainable Innovation in Campus Design: Carbon-Conserving Strategies  

Carbon-Conserving Projects in Higher Education

Sponsored by Autodesk | The Editors at Architectural Record

This course is part of the Technology and Business of Architecture Academy

Colleges and universities are at the forefront of sustainable innovation, adopting cutting-edge strategies to reduce carbon footprints while enhancing campus infrastructure. This course explores key carbon-saving design and construction advancements, including enclosure retrofits, structural forensics, and adaptive reuse techniques.

Participants will gain insights into high-performance glass facades, next-generation energy infrastructure, and seismically tuned hybrid mass-timber structures. Through real-world case studies, this course highlights how higher education institutions lead the way in resilient, energy-efficient, and forward-thinking design.

SOM Designs an Innovative Double-Skin Facade for MIT’s Forward-Looking Computing College
Exploring High-Performance Envelope Design for Energy Efficiency, Sustainability, and Architectural Innovation
Wanda Lau

Studio Gang Merges Art and Tech at CCA’s Expanded Campus   
California College of the Arts Expansion
Randy Gragg

ZGF Architects’ Geo-Exchange System for Princeton Leads an Underground Revolution
Innovative Geo-Exchange Technology Redefining Campus Energy Efficiency and Sustainability 
James Russell, FAIA Emeritus

Bruner/Cott Architects Gives Harvard’s Gund Hall a High-Tech Facelift
Revitalizing an Architectural Icon with Cutting-Edge Sustainability and Design Innovations
Joann Gonchar, FAIA

VMDO Architects Overhauls a Century-Old Student Residence at George Washington University
Blending Historic Preservation with Modern Sustainability in Student Housing Design
Vernon Mays


Photos © Jason O’Rear
The studio pavilions sit atop the “upper ground,” while cutouts in this second-level slab reveal maker yards.

Colleges and universities are at the forefront of sustainable innovation, adopting cutting-edge strategies to reduce carbon footprints while enhancing campus infrastructure. This course explores key carbon-saving design and construction advancements, including enclosure retrofits, structural forensics, and adaptive reuse techniques.

Participants will gain insights into high-performance glass facades, next-generation energy infrastructure, and seismically tuned hybrid mass-timber structures. Through real-world case studies, this course highlights how higher education institutions lead the way in resilient, energy-efficient, and forward-thinking design.

SOM Designs an Innovative Double-Skin Facade for MIT’s Forward-Looking Computing College
Exploring High-Performance Envelope Design for Energy Efficiency, Sustainability, and Architectural Innovation
Wanda Lau

Studio Gang Merges Art and Tech at CCA’s Expanded Campus   
California College of the Arts Expansion
Randy Gragg

ZGF Architects’ Geo-Exchange System for Princeton Leads an Underground Revolution
Innovative Geo-Exchange Technology Redefining Campus Energy Efficiency and Sustainability 
James Russell, FAIA Emeritus

Bruner/Cott Architects Gives Harvard’s Gund Hall a High-Tech Facelift
Revitalizing an Architectural Icon with Cutting-Edge Sustainability and Design Innovations
Joann Gonchar, FAIA

VMDO Architects Overhauls a Century-Old Student Residence at George Washington University
Blending Historic Preservation with Modern Sustainability in Student Housing Design
Vernon Mays


Photos © Jason O’Rear
The studio pavilions sit atop the “upper ground,” while cutouts in this second-level slab reveal maker yards.

Originally published in Architectural Record

Originally published in March 2025

LEARNING OBJECTIVES
  1. Analyze carbon-saving strategies in higher education projects, including enclosure retrofits, adaptive reuse, and structural forensics, to enhance building performance and sustainability.
  2. Evaluate the role of high-performance glass facades and next-generation energy infrastructure in reducing energy consumption and improving indoor environmental quality.
  3. Assess the benefits of seismically tuned hybrid mass-timber structures in enhancing building resilience, occupant safety, and long-term sustainability.
  4. Identify key principles of low-carbon construction and renovation that contribute to occupant health, safety, and well-being while meeting evolving regulatory and environmental standards.