Loading organizations...
§ Private Profile · 1 Main Street, 12th Floor, E90-1201, Cambridge, MA 02142
Photovoltaic Research Laboratory at the Massachusetts Institute of Technology is a company.
Key people at Photovoltaic Research Laboratory at the Massachusetts Institute of Technology.
The Photovoltaics Research Laboratory at the Massachusetts Institute of Technology focuses on reducing solar energy costs through foundational and applied research in current and future photovoltaic technologies. Its technical approach involves detecting, characterizing, and precisely manipulating nanoscale defects within solar energy materials and devices. This enables the engineering of advanced optical, electrical, mechanical, thermal, and magnetic properties in macroscopic energy systems, driving efficiencies for solar power applications.
The laboratory was established with an entry date of November 28, 2007, under the guidance of Principal Investigator Tonio Buonassisi. The core insight behind its creation was the imperative to bridge fundamental scientific advancements with practical, deployable solutions. This dual emphasis acknowledges the need for both groundbreaking academic contributions and tangible industrial integration, with a keen awareness of scientific, policy, and market dynamics in the solar sector.
The research outcomes generated by the laboratory are leveraged by leading photovoltaic companies and innovative startups, facilitating the transition of cutting-edge discoveries into functional solar power systems. Driven by the critical need to address global climate change, the lab's long-term vision is to persistently decrease the cost of solar electricity by concentrating on near- to medium-term solar energy technologies, built upon robust scientific principles.
Key people at Photovoltaic Research Laboratory at the Massachusetts Institute of Technology.
The Photovoltaic Research Laboratory at MIT is an academic research facility dedicated to advancing solar photovoltaic (PV) technologies through basic and applied innovations aimed at reducing the cost of solar energy.[4] It focuses on emerging thin-film PV materials like quantum dots, molecular organics, and perovskites, developing scalable architectures for lightweight, flexible solar cells that achieve high power-to-weight ratios and enable cost-effective manufacturing without silicon wafers.[1][7][8] This work supports global terawatt-scale carbon-free energy by addressing limitations in conventional crystalline silicon PV, such as rigidity and material constraints, while contributing to programs like MIT GridEdge Solar for deployable, durable modules.[1]
Unlike a commercial company, it serves the broader research ecosystem by probing photophysics, chemistry, and large-area processing to prototype high-efficiency alternatives like perovskite-silicon tandems and ultra-thin cells that generate 370 watts per kilogram—18 times more power per kg than traditional panels.[6][7] Its efforts target problems like system-level cost floors, land use, and installation challenges, fostering technologies for buildings, transport, and off-grid applications without heavy encasements.[1][7]
The Photovoltaic Research Laboratory emerged within MIT's ecosystem of energy research labs, with roots in efforts to innovate beyond dominant crystalline silicon PV technologies.[1][4] Its mission crystallized around reducing solar energy costs via fundamental research into emerging materials and scalable manufacturing, aligning with MIT's broader solar initiatives like the ONE Lab and Device Research Lab (DRL).[1][2][4] Key figures include contributors from mechanical engineering professors like Tonio Buonassisi, who leads DOE-funded centers for perovskite tandems, and teams in the Research Laboratory of Electronics developing peel-and-stick ultra-thin cells.[6][7]
Pivotal moments include ONE Lab's integration into the MIT GridEdge Solar program for flexible cells and DRL's advancements in solar thermophotovoltaics (STPV) and radiative cooling aerogels, building on MIT's long-standing PV manufacturing lab focused on emission-free electricity generation.[1][5][9] Recent momentum stems from a 2023 $11.25M DOE award to an MIT-led team for commercializing tandem modules with partners like CubicPV, marking a shift toward industry collaboration.[6]
The lab rides the global PV boom, the fastest-growing energy technology, pushing beyond silicon dominance toward thin-film tandems and flexibles amid declining module costs and net-zero goals.[1][6][8] Timing aligns with supply chain vulnerabilities and DOE priorities for perovskites, as seen in SETO's 2022 funding to lower levelized electricity costs via durable modules.[6] Market forces like material abundance needs and baseload mismatches favor its lightweight designs for rooftops, vehicles, and agrivoltaics, influencing ecosystems by spinning out startups (via related MIT labs) and transferring tech to industry.[3][7]
It amplifies MIT's energy initiative, collaborating with national labs and firms to combat climate change, where tandems could boost efficiency dramatically and radiative cooling addresses daytime overheating in hot climates.[5][6]
Next steps include ultrathin packaging to preserve lightweight benefits without glass, scaling perovskite tandems for commercialization, and deploying aerogels/STPV prototypes in CSP and off-grid cooling.[5][7] Trends like AI-accelerated materials discovery and policy-driven PV expansion will propel it, potentially evolving influence through more spinouts and global standards for flexible PV. This positions the lab to unlock surfaces-as-power-sources, directly advancing its core mission of cost-competitive, ubiquitous solar.[1][7]
