
Chemical fuel tanks

A new method for hydrogen storage using materials known as chemical hydrides could make fuel-cell vehicles more economically viable.
The technique is currently being researched by scientists at Los Alamos National Laboratory, the University of Alabama and the US Department of Energy’s Chemical Hydrogen Storage Center of Excellence. Read the full story here.

Technology strikes a chord with algal biofuels

An award-winning Los Alamos National Laboratory sound-wave technology is helping Solix Biofuels, Inc. optimize production of algae-based fuel in a cost-effective, scalable, and environmentally benign fashion - paving the way to lowering the carbon footprint of biofuel production. Full story here.

Physicists shed light on mysterious battlefield injury

A common battlefield brain injury could originate in the blast waves of nearby explosions, even though such waves cause relatively small accelerations of a soldier's body.
That is the conclusion of physicists [at Livermore and Los Alamos National Laboratories] who have used computer simulations to study the causes of traumatic brain injury. Full story here.

Illuminating molecules from within

Much of our knowledge about molecular structure and reactivity is based on interpreting how molecules interact with light. In femtochemistry experiments, one usually exploits available knowledge about the way that molecular absorption spectra depend on the instantaneous molecular structure.
Lee Collins at Los Alamos National Laboratory and his collaborators describe what such an experiment would reveal in the case of the hydrogen molecular ion H2+, the "fruit fly" of intense field molecular physics research, which consists of two protons and one electron. Explore the research here.

To subscribe to Los Alamos Report, please e-mail listmanager@lanl.gov and include the words subscribe los alamosreport in the body of your email message; to unscubscribe, include unsubscribe losalamosreport.
Please visit us at www.lanl.gov