Free tools Windows power users keep installed
One-click scans. No signup required.
Some links on this page are affiliate links: if you buy through them we may earn a commission, at no extra cost to you.
Penn State’s sustainability model, as described in a September 10, 2018 Building Design + Construction profile, was a campus-wide system rather than a collection of efficient buildings. The approach connected a 9.5-acre demonstration site, curriculum, research, operations, community gardens, partnerships and building standards. A building mattered, but its value depended on how it worked with the surrounding ecosystem and the people using it.
What Penn State sustainability looked like in the 2018 profile
The profile presented sustainability as an institutional responsibility spanning Penn State’s colleges and campuses. Buildings were one visible part of that work, alongside teaching, research, facilities management, community projects and outside partnerships. The article’s examples describe conditions and plans reported in 2018; they are not a verification of the university’s facilities, policies or commitments today.
As an Amazon Associate I earn from qualifying purchases.
Recommended Free Tools
| Element described in the 2018 profile | Reported detail | How it supported the wider model |
|---|---|---|
| Sustainability Experience Center site | 9.5 acres near Beaver Stadium in State College | Combined demonstration facilities, food growing, water treatment and education |
| Community gardens | Nearly 100 garden plots | Created a community project linked to land use and food systems |
| Eco Machine | Added in 2009; used living organisms to treat wastewater | Made biological treatment visible as an operating system rather than a hidden utility |
| The Sustainability Institute | Founded in 2013 | Coordinated engagement, curriculum, community projects, operations and research |
| Construction standard reported at the time | LEED described as the minimum for new construction across 24 campuses | Set a baseline for project delivery while broader sustainability work continued |
| Gary Schultz Child Care Center at Hoyt Woods | 21,500 square feet; LEED Platinum | Illustrated how a specific occupied building could embody a high certification level |
| Proposed Experience Center building | Classrooms, laboratories and offices; intended to meet the Living Building Challenge | Would have provided a dedicated teaching and research facility if funding and delivery proceeded |
| Student-farm partnership | $100,000 per year for 10 years from PepsiCo, as reported | Supported ventures connected with sustainability and agriculture |
That combination is the central lesson: performance is not measured only by a building’s energy model. A project can also provide a place to learn, test technologies, grow food, restore ecological functions and involve the surrounding community.
Why a building cannot carry sustainability by itself
Paul Shrivastava, identified in the profile as Penn State’s chief sustainability officer and director of The Sustainability Institute, described the danger of treating a building as an isolated object. Reflecting on an earlier project, he said it “was obsolete the minute it opened” because the design did not fully account for the surrounding environment. His conclusion was direct: “no building alone can promote sustainability. Buildings must be part of larger eco systems,” he says.
Popular on Amazon
For a construction team, that statement changes the project brief. The question is no longer only whether the envelope, mechanical systems or lighting meet a target. It is whether the project:
- reduces energy, water and material demand before adding generation or treatment equipment;
- fits its site’s ecological conditions, transportation patterns and existing infrastructure;
- improves indoor environmental quality and occupant health;
- creates useful connections with teaching, research and community programs; and
- can be operated, monitored and adapted after opening.
Penn State course material frames sustainable buildings in similar practical terms: improve resource efficiency, reduce waste and environmental impact, support occupant health, and consider both demand reduction and on-site generation. Solar, wind and geothermal resources are examples, but the appropriate choice depends on the site.
The Sustainability Experience Center as a living laboratory
A site with several systems operating together
The 2018 profile located the Sustainability Experience Center on 9.5 acres near Beaver Stadium in State College. It described a solar house, greenhouse, community gardens, power plant, wind turbines and an Eco Machine. Nearly 100 garden plots gave the site a direct community use rather than making it solely an institutional demonstration.
The mix matters because each feature could be understood in relation to the others. Renewable-energy equipment could be observed alongside buildings and utility systems. Food-growing areas could connect students and residents with land, water and resource questions. The greenhouse and solar house could function as accessible teaching environments. A site organized this way makes sustainability tangible: visitors can see infrastructure, ecological processes and human activity in one place.
The Eco Machine and biological treatment
The profile said Penn State added its Eco Machine in 2009 and used living organisms to treat wastewater. That description points to a different way of discussing water systems. Instead of treating wastewater as a purely mechanical problem hidden below grade, the installation could show how biological processes contribute to treatment and how water management can become part of an educational landscape.
Also popular on Amazon
The account does not provide current treatment capacity, performance data or operating status. It supports a design principle, however: when a system can safely be made visible and legible, it can teach occupants and visitors how resource flows work.
The proposed building
The article described a proposed Experience Center building with classrooms, laboratories and offices. The plan was expected to meet the Living Building Challenge, but fundraising was required before design and construction. The profile gave a five-year expectation for bringing the building into operation if plans proceeded as intended. That was a 2018 projection, not a current completion date, and the profile does not establish whether the proposal was ultimately built.
For planners, the sequence is important. A demanding performance target cannot be separated from financing, early design decisions and an operating plan. If funding is not secured before design advances, teams may spend time optimizing a project that cannot proceed. Conversely, identifying the target early allows site selection, water strategy, materials, commissioning and occupant programs to be developed as one system.
The Sustainability Institute’s role across campuses
The Sustainability Institute, founded in 2013 according to the profile, supported sustainability efforts across Penn State’s colleges and campuses. Its work included engagement, curriculum, community projects, operations and research. The United Nations Sustainable Development Goals served as a framework for the Institute’s work plan.
This structure gives a university a way to move ideas between departments. A facilities team can test an energy or water strategy; faculty can turn the project into a research question; students can study results; and community programs can apply lessons outside the campus boundary. The institution becomes an ongoing learning network rather than a series of unrelated capital projects.
Also popular on Amazon
Shrivastava also cautioned against copying one campus blindly: “There’s no ‘one size fits all.’ ” A strategy suitable for State College may need a different response at another Penn State location because of climate, available land, existing utilities, water conditions, transportation access, building stock or community priorities.
What the 2018 building standards example does—and does not—show
The profile reported that LEED was the minimum standard for new construction across Penn State’s 24 campuses at that time. It also identified the Gary Schultz Child Care Center at Hoyt Woods as a 21,500-square-foot LEED Platinum building.
These examples show two different roles for certification. A minimum standard can establish a common floor for projects distributed across a large institution. A Platinum project can demonstrate what is possible in a particular building and occupancy type. Neither fact, by itself, proves that every sustainability objective has been met. Certification does not replace careful siting, efficient operations, occupant engagement, ecological restoration or post-occupancy measurement.
Because the article was published in 2018, current construction requirements, certification policies and the child-care center’s status should be checked against present university and project records before being used in a new specification.
Five performance lenses for a campus project
1. Energy and water demand
Start with demand reduction. A tighter envelope, effective shading, efficient equipment, right-sized systems and controls can reduce the energy a project needs before on-site generation is considered. Water efficiency follows the same logic: reduce potable demand, manage stormwater and evaluate non-potable uses before adding treatment or supply infrastructure.
Also popular on Amazon
On-site resources such as solar, wind or geothermal can then be assessed against the actual site. The course material does not prescribe one technology for every project; it presents these resources as options selected according to local conditions.
2. Site and surrounding ecosystem
Assess the project’s relationship to soils, vegetation, drainage, habitat, heat exposure, existing utilities and movement across the campus. A building that performs well in isolation can still increase runoff, remove valuable habitat or force inefficient transportation patterns. Site planning should therefore be part of the sustainability analysis from the earliest feasibility work.
3. Occupant health and community benefit
Indoor environmental quality includes ventilation, daylight, thermal comfort, acoustics and material choices, but a campus project can also support health outside the room. The garden plots described at the Experience Center show how food production and community participation can become part of a construction program. Child-care, classroom and laboratory projects should be evaluated for the people who occupy them and for the public uses they enable.
The Tool Desk
Outbyte PC Repair FREERepair Windows errors before they cause bigger problemsFix Now →Outbyte Driver Updater FREEScan for outdated or missing drivers - takes under a minuteDriver Scan →4. Education and research value
Visible meters, water-treatment landscapes, renewable-energy equipment and adaptable spaces can turn a facility into a teaching instrument. Classrooms and laboratories in the proposed Experience Center would have made the building itself part of the curriculum. Designers should decide what occupants can observe, what data can be accessed and which systems can safely support experiments without compromising operations.
5. Standards, commissioning and long-term operation
Certification can organize requirements, but performance depends on execution. Set measurable goals during programming, assign responsibility for verification, commission systems, train operators and establish a post-occupancy review. The goal is not simply to open a certified building; it is to keep the building useful, efficient and adaptable as conditions change.
Also popular on Amazon
Funding and partnerships are part of the infrastructure
The profile reported an agreement in which PepsiCo would invest $100,000 per year for 10 years to support ventures such as a student farm. That was a reported 2018 commitment, not verified current funding. Its significance is structural: sustainability programs often require resources beyond a single capital budget. Operating funds, research support, community partnerships and philanthropic or corporate commitments can make it possible to maintain gardens, collect data, run educational programs and test new practices.
Partnerships also require clear boundaries. A project should define who owns equipment, who operates it, how data is shared, what happens when funding ends and how the work serves the public mission. Treating those questions as part of project delivery reduces the risk that a demonstration becomes an unsupported installation after the initial enthusiasm or grant period.
PC Slower Than It Used to Be?
A free scan shows the junk files, broken settings and background clutter dragging Windows down - then fixes them in one click.Free scan · Windows 10 & 11Outdated Drivers Are Slowing You Down
One free scan finds every outdated or missing driver and matches the right update for your exact hardware.Free scan · exact hardware matchA construction workflow for sustainability beyond the footprint
- Define the outcome. Write goals for resource efficiency, waste, environmental impact, occupant health, education and community use before selecting systems or pursuing certification.
- Study the site. Map climate, solar and wind exposure, water flows, soils, habitat, existing utilities, transportation and neighboring programs. Use those findings to shape massing and placement.
- Reduce demand first. Optimize envelope, orientation, shading, lighting, equipment, controls and water fixtures before sizing generation or treatment systems.
- Evaluate on-site resources. Compare solar, wind and geothermal opportunities with the site’s conditions, maintenance capacity and long-term operating plan.
- Make systems teachable. Where safety and operations allow, expose resource flows through dashboards, interpretive elements, accessible equipment rooms or landscape features.
- Connect users and partners. Provide spaces or programs for students, researchers, staff, residents and community organizations, with responsibilities documented before opening.
- Verify and learn. Commission the building, train operators, monitor performance and use post-occupancy findings to improve the project and inform future campuses.
This workflow reflects the model described in the 2018 Penn State profile: a building is an instrument within a larger social, ecological and institutional system.
What readers should take from the Penn State example
Penn State’s 2018 story is useful because it links scales that are often separated in construction discussions. The 9.5-acre Experience Center site, the Eco Machine added in 2009, the nearly 100 garden plots, the Sustainability Institute founded in 2013, the LEED baseline reported across 24 campuses and the proposed Living Building Challenge facility all point to the same conclusion: sustainability is a management and learning framework as much as a design label.
The strongest project is therefore not necessarily the one with the most visible technology. It is the one that reduces demand, fits its place, protects occupant health, creates community value, teaches people how it works and remains accountable in operation. That is how a building can support sustainability beyond its own footprint.
Quick Recap
Product prices and availability are accurate as of the date/time indicated and are subject to change. Any price and availability information displayed on Amazon at the time of purchase will apply.
Quick wins for a faster PC:
Clear out junk files and repair common Windows errorsFree Scan →Scan for outdated or missing drivers - takes under a minuteDriver Scan →Repair Windows errors before they cause bigger problemsFix Now →
