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Topics: Energy issues

  • Patrik Johansson took up his role as new battery professor on 1 March 2025. He was previously Professor of Physics at Chalmers University of Technology. Photo: The European Commission

    World-leading battery researcher joins Uppsala University

    Professor Patrik Johansson is the new director of the flagship project Battery 2030+. He has led many large international research projects and was most recently director of the EU research programme the Graphene Flagship.

  • Marika Edoff, Professor of Solar Cell Technology at Uppsala University, responsible for the study.

    Uppsala University sets new world record for CIGS solar cells

    Uppsala University is the new world record holder for electrical energy generation from CIGS solar cells. The new world record is 23.64 per cent efficiency. The measurement was made by an independent institute and the results are published in the journal Nature Energy.

  • Some increase in cancer after 1986 Chernobyl disaster

    The nuclear accident in Chernobyl in 1986 led to the spread of radioactivity across Sweden and Europe. In a long-term study now published in Environmental Epidemiology, researchers have used new, more specific calculation methods to show the connection between radiation dose and certain types of cancer.

  • Aviation fuel directly from carbon dioxide, water and sunlight

    In the quest for fossil-free fuels for aircraft, a new study shows that isoprene could be part of a future solution. Isoprene can be produced by blue-green algae from sunlight, water and ordinary carbon dioxide. The productivity of the cyanobacteria increases if they are exposed to violet light or higher temperatures, and isoprene is ideally suited for photochemical processing into aviation fuels.

  • DNA Gives Clues to Clean and Effective Energy Production

    Researchers from several universities have, by studying helical molecules in the body such as DNA, received clues as to how energy production in fuel cells can be made more efficient without admixture of carbon dioxide and heavy metals. The new research shows how the helical molecules, found naturally in all oxygen-dependent life, catalyses energy production in the cells.

  • The polymer dots in the black solution (inset image) can absorb more light, and show better photocatalytic properties, than the single-component polymer dots in the coloured solutions. Photo: P-Cat

    Producing more sustainable hydrogen with composite polymer dots

    Hydrogen for energy use can be extracted in an environmentally friendly way from water and sunlight, using photocatalytic composite polymer nanoparticles developed by researchers at Uppsala University. In laboratory tests, these “polymer dots” showed promising performance and stability alike. The study has been published in the Journal of the American Chemical Society.

  • Ions in molten salts can go “against the flow”

    In a new article a research group at Uppsala University show, using computer simulations, that ions do not always behave as expected. In their research on molten salts, they were able to see that, in some cases, the ions in the salt mixture they were studying affect one another so much that they may even move in the “wrong” direction – that is, towards an electrode with the same charge.

  • Photoelectrochemical cell that is used in the study to investigate semiconductor performance under rays of simulated sun. Photo: Sascha Ott

    New semiconductor coating may pave way for future green fuels

    Hydrogen gas and methanol for fuel cells or as raw materials for the chemicals industry, for example, could be produced more sustainably using sunlight, a new Uppsala University study shows. In this study, researchers have developed a new coating material for semiconductors that may create new opportunities to produce fuels in processes that combine direct sunlight with electricity.

  • BATTERY 2030+ – large-scale European initiative for battery research starts up

    The European research initiative BATTERY 2030+ is now getting going. The ambition is to make Europe a world-leader in the development and production of the batteries of the future. These batteries need to store more energy, have a longer life, and be safer and more environmentally friendly than today’s batteries in order to facilitate the transition to a more climate-neutral society.

  • New research on metallic nanoparticles may lead to improved solar cells

    In a new study, a research group at Uppsala University explain their outstanding success in harvesting “hot electron holes”. The results of their work can be used to improve solar cells, photochemical reactions and photosensors. The scientific article is published in Nature Materials.

  • Varied cloud cover, such as here outside the Ångström Laboratory at Uppsala University, makes reliable forecasts of solar irradiance challenging. Credit: Joakim Munkhammar

    New solar forecasting model performs best

    A new mathematical model for predicting variations in solar irradiance has been developed at Uppsala University. It may help to promote more efficient use of electricity from solar energy. In tests of various data models, the model proved capable of making highly reliable forecasts, and emerged as the best for this purpose in some respects.

  • An All-Organic Proton Battery Energised for Sustainable Energy Storage

    Sustainable energy storage is in great demand. Researchers at Uppsala University have therefore developed an all-organic proton battery that can be charged in a matter of seconds. The battery can be charged and discharged over 500 times without any significant loss of capacity. Their work has been published in the scientific journal Angewandte Chemie.

  • Inventing the Sustainable Batteries of the Future

    The European large-scale research initiative BATTERY 2030+ presents the long-term research roadmap that outlines the actions needed to invent the sustainable batteries of the future.

  • Solar energy becomes biofuel without solar cells

    Soon we will be able to replace fossil fuels with a carbon-neutral product created from solar energy, carbon dioxide and water. Researchers at Uppsala University have successfully produced microorganisms that can efficiently produce the alcohol butanol using carbon dioxide and solar energy, without needing to use solar cells. The results have been published in Energy & Environmental Science.

  • Artificial enzymes convert solar energy into hydrogen gas

    In a new scientific article, researchers at Uppsala University describe how, using a completely new method, they have synthesised an artificial enzyme that functions in the metabolism of living cells. These enzymes can utilise the cell’s own energy, and thereby enable hydrogen gas to be produced from solar energy.

  • Synthetic chemistry and biology in new method for more efficient hydrogen gas production

    Hydrogen gas has long been proposed as a promising energy carrier for future energy applications, but generating the gas from water has proved inefficient. In an article in the journal Energy and Environmental Science, scientists at Uppsala University now present an alternative, interdisciplinary method based on principles from nature.

  • One in five residents overuses electricity at neighbours’ expense

    Household electricity use falls by more than 30% when residents are obliged to pay for their own personal consumption. This is shown in a new study by researchers at Uppsala University’s and the Research Institute of Industrial Economics (IFN), published in the Proceedings of the National Academy of Sciences of the USA (PNAS).

  • Watching how plants make oxygen

    In a new study, an international team of researchers made significant progress in visualizing the process how plants split water to produce oxygen. The results are published in Nature.

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