As floating solar continues to gain momentum across the United States, the industry needs more than innovative technology to achieve widespread adoption. It also requires reliable field data, university-led research, and collaboration between industry leaders and academic institutions to better understand how floating photovoltaic systems perform in real-world environments.
That’s why AccuSolar created the ASPIRE Program (AccuSolar Program for Innovation, Research, and Education), an initiative designed to strengthen the future of floating photovoltaics by supporting universities, faculty, and research institutions. Through ASPIRE, AccuSolar is investing in the people and knowledge that will shape tomorrow’s floating solar industry. By working alongside university faculty and researchers, the program drives collaboration and generates real-world performance data, while also creating hands-on experience that supports renewable energy workforce development.
Unlike solar technologies that have decades of ground-mounted deployment data behind them, floating photovoltaics is still a relatively young field in the United States. Every new installation adds to a limited but growing pool of information, and every research partnership helps close gaps that developers, utilities, and municipalities currently have to navigate with limited precedent. ASPIRE was built specifically to accelerate that process by giving academic institutions structured, ongoing access to commercial-grade floating solar systems rather than one-off demonstrations.
Why Research and Education Matter
Floating solar remains an emerging technology in the United States. While installations continue to scale, the broader sector benefits immensely from things like university-led field data, peer-reviewed research, and a highly skilled workforce capable of designing, permitting, installing, and maintaining these specialized systems.
The ASPIRE Program was created to address these current industry shortcomings by fostering deep collaboration between higher education and the clean energy sector. A university-backed floating solar research partnership can generate invaluable performance data while giving faculty and researchers hands-on experience with floating photovoltaic systems. Ultimately, every research project, field study, and performance dataset contributes to the global body of floating solar knowledge and directly supports renewable energy workforce development.
This research can also create valuable educational opportunities and help develop professionals with firsthand knowledge of floating solar technology. However, the broader goal of ASPIRE is to establish meaningful research collaborations that produce data and insights capable of supporting the industry’s continued growth.
Much of the floating solar research published to date originates outside the United States, where the technology has been deployed at scale for longer. That international data is useful, but it doesn’t always translate directly to U.S. conditions different climates, water bodies, permitting environments, and grid structures all shape how a floating system performs. ASPIRE is designed to help close that gap by generating data collected specifically from U.S. sites, under U.S. regulatory and environmental conditions, so developers and researchers have a more accurate domestic reference point to work from.
Driving Innovation Through Collaboration
AccuSolar’s floating solar research partnership initiative connects universities with commercial grade floating solar technology and opportunities for applied research. Academic partners can use these systems to evaluate real-world performance, conduct side-by-side studies, investigate environmental conditions, and explore engineering questions that remain relatively underrepresented in existing U.S. floating solar research.
Rather than focusing solely on proprietary product development, these collaborations are intended to contribute knowledge that can benefit the broader floating solar industry. University-led research can provide valuable insights into areas such as system performance, environmental interactions, energy production, installation methodology, mooring performance, and long-term operations. The structure of ASPIRE also allows research priorities to reflect the expertise of each university and the conditions of each site. This creates opportunities to investigate different aspects of floating solar rather than applying a single research model to every partnership.
By encouraging open communication and data sharing between academia and industry, ASPIRE can help expand the amount of real-world information available to researchers, developers, engineers, utilities, and other organizations evaluating floating solar in the United States.
This model also benefits AccuSolar directly, but not in the way a typical product-testing arrangement might. Rather than steering research toward validating a specific product feature, ASPIRE partnerships are structured so that academic partners can pursue the questions most relevant to their own expertise. That independence is intentional. Research that is driven by genuine academic inquiry, and later shared openly, tends to carry more credibility with utilities, regulators, and other developers than research funded solely to support a sales narrative. In that sense, ASPIRE is as much an investment in the industry’s credibility as it is in any single technology.
Spotlight Project: Indiana University
One example of the ASPIRE Program is AccuSolar’s collaboration with Indiana University. Indiana University is currently assembling a laboratory-scale floating solar system alongside a ground-mounted benchmark on campus. The two systems will allow researchers to collect live performance data and conduct side-by-side comparisons between floating and traditional ground-mounted solar technology.
This approach creates an opportunity to generate publishable data in an area where U.S.-based academic literature remains limited. Researchers can evaluate system performance under the same localized environmental conditions, helping isolate and better understand factors associated specifically with floating PV.
The project also places commercial floating solar technology directly within an academic research environment. Faculty, researchers, and students can work with the systems, analyze operational data, and develop research questions based on actual performance rather than theoretical models alone.
Through this floating solar research partnership, the Indiana University project can contribute meaningful data to the broader industry while establishing a model for how universities and floating solar companies can collaborate on applied research.
The side-by-side design of the Indiana University project is worth highlighting on its own. Because the floating and ground-mounted systems sit on the same campus, they experience the same weather patterns, the same seasonal temperature swings, and the same solar irradiance. That shared baseline removes a lot of the guesswork that comes from comparing floating solar data collected at one site against ground-mount data collected somewhere else entirely. It gives researchers a cleaner, more controlled way to isolate what performance differences are actually attributable to the floating platform itself, rather than to differences in location or climate.
Over time, this kind of controlled comparison can help answer some of the questions developers ask most often: how much of a performance advantage, if any, floating systems gain from the cooling effect of water; how installation and maintenance workflows differ between the two technologies; and how mooring and anchoring systems hold up across a full range of seasonal conditions. Indiana University’s early-stage data won’t answer all of those questions at once, but it establishes a framework that can be replicated at other ASPIRE partner sites.
Expanding ASPIRE Research Opportunities
Indiana University represents one application of the ASPIRE model, but the program is designed to support a broader range of research priorities.
Other ASPIRE initiatives are being developed around different research priorities, including environmental monitoring, installation methodology, mooring-system performance, and long-term operational data. By allowing each academic partner to focus on questions relevant to its expertise and site conditions, ASPIRE can help build a broader body of university-led floating solar research.
Future partnerships may also explore topics such as water quality, evaporation, algae growth, system efficiency, or other environmental and engineering considerations associated with floating solar deployment.
This flexibility is an important part of the program. A university with expertise in water resources may approach floating solar differently than an institution focused on electrical engineering, renewable energy performance, agriculture, or environmental science. Connecting these different areas of expertise with real-world floating solar technology can produce a more comprehensive understanding of the technology and its applications.
ASPIRE partnerships may also create opportunities for pilot programs, joint grant applications, original publications, and longer-term research initiatives that bring together academic expertise and industry experience.
AccuSolar anticipates that future ASPIRE partnerships will be selected based on a combination of factors: a university’s existing research strengths, the physical characteristics of the water body available to them, and gaps in the current body of floating solar literature that a given institution is well positioned to address. A partner with a strong environmental science program near a reservoir, for example, might focus on water quality and evaporation reduction, while a partner with an established civil or mechanical engineering department might prioritize mooring performance and structural durability under wind and wave loading. Spreading research priorities across multiple institutions in this way, rather than concentrating them at a single site, is intended to produce a broader and more representative dataset for the industry as a whole.
Preparing the Industry for Long-Term Growth
As floating solar becomes a larger piece of America’s clean energy portfolio, access to credible data and applied research will become increasingly valuable. Developers, utilities, municipalities, engineers, environmental professionals, and other stakeholders need reliable information to evaluate potential projects and better understand how systems perform over time.
University-led research can help address knowledge gaps by providing additional data from different climates, waterbodies, system configurations, and operating conditions. As more research becomes available, the industry can develop a clearer picture of floating solar performance across a wider range of applications.
These collaborations also provide an educational benefit. Working with operating systems and real performance data gives participating faculty and researchers direct exposure to an emerging area of renewable energy, and this experience can also contribute to renewable energy workforce development over time. First and foremost, though, this work strengthens the shared body of floating solar data and collaboration that is driving the industry’s growth.
Credible, third-party data also plays a practical role in de-risking floating solar projects for the organizations evaluating them. Utilities and municipalities weighing a floating installation against a ground-mounted or rooftop alternative need more than manufacturer specifications to make that decision with confidence they need independently generated performance figures, environmental impact assessments, and long-term durability data. University-led research fills that role in a way that internal company data alone cannot, simply because it comes from a source with no direct financial stake in the outcome. As more ASPIRE partnerships come online and begin publishing findings, that body of independently generated evidence should make it easier for the next generation of floating solar projects to move from proposal to construction.
Laying the Foundation for the Future
At AccuSolar, innovation has always been about more than just manufacturing durable floating solar systems. Advancing the industry also means contributing to the research, collaboration, and real-world data needed to better understand floating solar and support its continued deployment.
As floating solar adoption grows across the United States, university-industry collaboration can help create the knowledge base necessary to support that growth. Through ASPIRE, each floating solar research partnership creates an opportunity to investigate new questions, collect meaningful data, and bring additional academic expertise into the floating solar sector.
By connecting universities with real-world floating solar technology, ASPIRE is helping establish a growing network of research initiatives that can contribute to a stronger understanding of floating PV and its applications. Each new partnership has the potential to add another layer of data, expertise, and insight to the industry’s expanding knowledge base.
Frequently Asked Questions
What is the ASPIRE Program?
ASPIRE (AccuSolar Program for Innovation, Research, and Education) is AccuSolar’s initiative connecting universities and research institutions with commercial-grade floating solar technology. The program is built around generating university-led research, field data, and collaborative studies that benefit the broader U.S. floating solar industry, rather than around any single proprietary product.
Which universities are currently participating in ASPIRE?
Indiana University is the program’s spotlight partnership to date, where researchers are building a laboratory-scale floating solar system alongside a ground-mounted benchmark for side-by-side performance comparisons. AccuSolar is actively developing additional partnerships focused on other research priorities, including environmental monitoring, installation methodology, and mooring-system performance.
What kinds of research topics does ASPIRE support?
Research priorities vary by academic partner and are shaped by each institution’s expertise and site conditions. Current and future areas of focus include system performance, energy production, mooring and anchoring durability, installation methodology, long-term operational data, and environmental factors such as water quality, evaporation, and algae growth.
How does ASPIRE benefit the floating solar industry as a whole, rather than just AccuSolar?
ASPIRE partnerships are structured so that academic researchers can pursue questions based on their own expertise rather than a predetermined outcome. That independence is deliberate, findings generated and published through university research carry more credibility with developers, utilities, and regulators than internally generated company data, which helps de-risk floating solar projects for the entire industry, not just AccuSolar customers.
How can a university or research institution get involved with ASPIRE?
Universities, faculty, or research institutions interested in exploring a floating solar research partnership can contact AccuSolar directly to discuss potential collaboration, site requirements, and research priorities that align with their program’s expertise.
Interested in learning more about our ASPIRE Program or exploring opportunities to partner with AccuSolar on future research initiatives? Contact us to learn how we can work together to advance floating solar innovation through research, collaboration, and data-driven education, while also strengthening the renewable energy workforce of tomorrow.
