Stephen Forrest

By putting a twist on new “2D” semiconductors, researchers have demonstrated their potential for using single photons to transmit information.

Covering foundations to applications, the new book by Prof. Stephen Forrest fills a gap in this exciting field

By reflecting nearly all the light they can’t turn into electricity, they help pave the way for storing renewable energy as heat.

Transparent solar panels on windows could take a bite out of a building’s electricity needs.

‘Noncritical’ in-person research begins ramping up, with public-health protocols.

The researcher-entrepreneur who helped bring OLED displays to the masses envisions a future of efficient lighting and next-gen solar power.

From rubbing elbows with royalty to finding yourself a casual seatmate to a member of U2, Professor Emeritus Gérard Mourou, Prof. Donna Strickland, and their former U-M colleagues shared their experiences and reflections on the 2018 Nobel Prize ceremony.

Prof. Stephen Forrest, who serves as co-chair of the commission, attended the forum to address concerns and give updates on the plan of action.

Finally, proof that organic photovoltaics can be as reliable as inorganic, with real-life desert testing

The new working group showcased Michigan’s strength in Quantum Science at a workshop attended by researchers throughout the University of Michigan.

Stephen R. Forrest has been selected as U-M’s 2020 Henry Russel Lecturer, the university’s highest honor for senior faculty members.

Prof. Stephen Forrest is co-chair of U-M’s Commission on Carbon Neutrality as part of U-M’s commitment to combat climate change and craft a sustainable future for all.

Prof. Stephen Forrest is developing an automated high-yield roll-to-roll process to manufacture organic LEDs for lighting.

New sustainability research garners support from Department of Energy’s Solar Energy Technologies Office.

Windows in the buildings of the future could double as efficient solar cells.

The REACT workshop pairs U-M researchers with K-12 science educators to introduce primary school teachers to new laboratory science and classroom-friendly activities.

The multi-layered organic solar cells will be able to curve in clothing or be transparently built into windows.

The group brought together experts in radar and remote sensing, integrated circuits, imaging, navigation, power, communications, and nano-fabrication.

Buildings, clothing could generate power.

This series of talks features world-renowned faculty with a long history at Michigan.

Scar tissue left over from heart attacks creates dead zones that don’t beat. Bioengineered patches could fix that.

With their gift, Stephen and Rosamund Forrest are making it possible for more graduate and undergraduate students pursue their dreams

Forrest and colleagues received the award for “pioneering work on organic devices, leading to organic light-emitting diode displays.”

Membership in the NAS is one of the highest distinctions for a scientist or engineer in the United States.

The legislation authorizes programs and funding levels for agencies including the National Science Foundation and the National Institutes of Standards and Technology.

Kirigami could be the key to flat, lightweight solar cells that can track the sun across the sky.

Prof. Forrest is internationally-renowned and easily one of the most prolific inventors in academia today.

Prof. Forrest is widely acknowledged as one of the most successful academic inventors and entrepreneurs today.

Forrest started 5 companies, holds more than 260 U.S. patents, and directs the Optoelectronic Components and Materials Laboratory

The grant is aimed at advancing organic photovoltaics, a carbon-based version of solar technology that promises to change the way the sun’s energy is collected.

The 2014 LNF (Lurie Nanofabrication Facility) User Symposium highlighted the cutting-edge research enabled by Michigan's world-class facility.

Researchers at the University have extended the lifetime of blue organic light emitting diodes by a factor of ten.

Researchers at the University of Michigan and Queens College used light to create links between organic and inorganic semiconductors in an optical cavity.

The Fellowship will help Song to continue his studies in the area of optoelectronics.

The team is working toward building organic lasers that, like many inorganic lasers today, can be excited with electricity rather than light.