Our current fossil-fuel-based system is causing potentially catastrophic changes to our planet. The quest for renewable, nonpolluting sources of energy requires us to understand, predict, and ultimately control matter and energy at the electronic, atomic, and molecular levels. Light-source facilities—the synchrotrons of today and the next-generation light sources of tomorrow—are the scientific tools of choice for exploring the electronic and atomic structure of matter. As such these photon-science facilities are uniquely positioned to jump-start a global revolution in renewable and carbon-neutral energy technologies.
To establish the scientific foundations for the kind of transformative breakthroughs needed to build a 21st-century energy economy, we must address fundamental questions involving matter and energy. Below is a sampling of such questions that can be addressed by light-source facilities:
- How can we modify the behavior of electrons and holes in semiconductors to more efficiently convert solar energy into electricity using earth-abundant materials?
- How can we harness photosynthesis and efficiently transform abundant plant material into biofuel? Can we produce fuel directly from sunlight by developing artificial photosynthesis?
- How can we increase the energy capacity and durability of lithium-ion batteries to maintain performance over hundreds to thousands of charge—discharge cycles?
- How can we understand the electrical and chemical properties of a working electrochemical fuel cell to tailor its properties for the production of fuel or electricity?
- How does carbon dioxide interact with naturally occurring materials under ambient conditions during storage, and what can we learn about these materials to improve their capture capacity?
- How can we identify combustion products at the parts-per-million level to improve efficiency and control pollution that results from the burning of fuel?
- How do we tailor the electronic properties of nanostructured catalysts to achieve higher activity or selectivity with inexpensive materials?
Energy Science Highlights
New Insights into Oxygen’s Role in Lithium Battery Capacity
New Fuel Cell Design Powered by Graphene-Wrapped Nanoparticles
Porous Framework Electrocatalysts Are Key to Carbon Dioxide Conversion
X-Ray Microscopy Reveals How Crystal Mechanics Drive Battery Performance
Spectroscopy of Supercapacitor Electrodes In Operando
In Situ Printing of Plastic Solar Cells
Record-Setting Microscopy Illuminates Energy Storage Materials
ALS Evidence Confirms Combustion Theory
An Inside Look at a MOF in Action
New Spectroscopic Technique Reveals the Dynamics of Operating Battery Electrodes
Mapping Particle Charges in Battery Electrodes
The Importance of Domain Size and Purity in High-Efficiency Organic Solar Cells
Two Studies Reveal Details of Lithium-Battery Function
Polarized X-Rays Reveal Molecular Alignment in Printed Electronics
Two Electron Holes in Hematite Facilitate Water Splitting
A Better Anode Design to Improve Lithium-Ion Batteries
AP-XPS Measures Active MIEC Oxides in Action
Heterogeneous Morphology Found in Organic Solar Cells
Platinum Nanoclusters Out-Perform Single Crystals
Structure of All-Polymer Solar Cells Impedes Efficiency
Biomimetic Dye Molecules for Solar Cells
Proton Channel Orientation in Block-Copolymer Electrolyte Membranes
Reaction-Driven Restructuring of Bimetallic Nanoparticle Catalysts
Nanoscale Chemical Imaging of a Working Catalyst
Breakthrough Research on Platinum–Nickel Alloys
Hydrogen Storage in Carbon Nanotubes Through Formation of C-H Bonds
Engineering Metal Impurities in Multicrystalline Silicon Solar Cells
Enol Intermediates Unexpectedly Found in Flames