American Oil Crisis News and Info
In many ways plastics are simply synthetic compounds that mimic and try to improve upon substances we find widespread in nature—polymers such as you might find in wood, leaves, seeds and fur. Bio-based plastics (those derived from biological sources other than fossil fuels) have been around for more than 100 years. In fact, celluloid, the first synthetic plastic ever made was invented in the mid 1800s, and—you guessed it—was bio-based.
In 1877 Russian scientist Dimitri Mendeelev suggested that the large deposits of oil and gas we find under the surface of the Earth could be made without the decay of long-dead organisms in a process called abiotic synthesis of methane.
Since then the theory has been relegated to the back shelf due to a lack of evidence and the prevailing conventional wisdom that all deep oil and gas deposits arise from decaying prehistoric animal and plant material.
While it’s no doubt that the decay of dead animals and plants is one pathway to the creation of Earth’s oil and natural gas deposits (potentially the largest), new research done with high-tech equipment simulating the conditions of deep earth suggests that Mendeelev’s theory is correct.
In an unexpected U-turn, the U.S. Senate has agreed to continue to back research for the next generation of hydrogen cars – funding that the Obama administration had earlier proposed to cut.
The move came last Thursday as Senate members voted to commit $187 million to hydrogen research, almost as much as was promised before the indecision.
They don’t know how it works, but it does.
A team of researchers at Georgia Tech University has developed a new high-tech ceramic material that could make solid oxide fuel cells less costly and less finicky, and much more durable and efficient. The material is called Barium-Zirconium-Cerium-Yttrium-Ytterbuim Oxide. [Ed note: Say that three times fast and you get a gold star.] I don’t know if it’s any less of a tongue twister, but it’s known as BZCYYb for short.
Solid oxide fuel cells are of interest because they can generate energy without the need for an expensive catalyst such as platinum, which is typically used in hydrogen fuel cells. While nanotechnology is enabling the development of hydrogen fuel cells that use less platinum, with BZCYYb the prospects look good for ditching the precious metal entirely in favor of more sustainable technology—if solid oxide systems can be developed in a commercially viable form, that is.
Lithium-ion batteries are great and all—having heralded in a new age of portable electronics and allowed for the possibility of mass-market electric cars—but they have a few major drawbacks. For instance, they have a propensity to catch fire and explode and, although they have a much better energy storage capacity than say lead-acid or nickel metal hydride (NiMH) batteries, they still weigh too much to pack more than a couple hundred miles of range into a passenger car.