Liquid Coal – Temporarily Frozen

I don’t quite know how to react.

Chemical & Engineering News: Latest News – Support Voiced For Geo-Engineering Research To Combat Global Warming

The call to at least consider audacious geo-engineering steps that would fill the stratosphere with globe-cooling aerosols to check global warming got louder last week. In Science, Tom M. L. Wigley of the National Center for Atmospheric Research, in Boulder, Colo., writes that reducing carbon dioxide emissions is the long-term solution to global warming but that nearer term engineering of the atmosphere might provide “additional time to address the economic and technological challenges faced by a mitigation-only approach” (DOI: 10.1126/science.1131728). Last month, Nobelist Paul J. Crutzen of the Max Planck Institute for Chemistry, in Mainz, Germany, made headlines with an essay in the journal Climatic Change calling for more research into the pros and cons of injecting sulfate-based aerosols into the stratosphere as a sunlight-reflecting, cooling foil to global warming (C&EN, Aug. 7, page 19).

The paper is still not out for public consumption, because “YOUR INSTITUTIONAL SUBSCRIPTION DOES NOT INCLUDE THIS ITEM:” (How an organization that is funded wholly by government (taxpayer) money can publish in journals that make you pay to read their contents is the subject of a different rant). Nevertheless, this modeling effort builds on Crutzen’s earlier essay which I just finished reading.

Sulfate particles reflect incoming solar radiation, reducing the amount of light incident on earth and lowering the average temperature. This has been known for years, and I am sure every aerosol scientist has thought “Well, if there was some way of putting particles in the atmosphere to reflect more light, this whole global warming thing would just go away”. But the obvious issue with this approach is that sulfates in the troposphere are nasty, they cause acid rain, haze, increased mortality, etc. Crutzen expands on this further.

The great advantage of placing reflective particles in the stratosphere is their long residence time of about 1–2 years, compared to a week in the troposphere. Thus, much less sulfur, only a few percent, would be required in the stratosphere to achieve similar cooling as the tropospheric sulfate aerosol (e.g., Dickinson, 1996; Schneider, 1996; NAS, 1992; Stern, 2005). This would make it possible to reduce air pollution near the ground, improve ecological conditions and reduce the concomitant climate warming. The main issue with the albedo modification method is whether it is environmentally safe, without significant side effects

Which I guess is the key question, let alone the practicalities of introducing and maintaining 5.3 Tg (terra grams or million metric tonnes) of sulfur in the stratosphere successfully. This is a 10% increase from the current emissions of 55 Tg/year, so I guess it is not a terribly large number. Crutzen estimates that it will cost 25-30 billion dollars per year to have a loading of 1-2 Tg (to combat the most optimistic global warming scenario), though he cites a personal communication with someone at the National Academy of Sciences in 1992. This number is bogus, how do you know what something will cost if you don’t know how you’re going to do it? Crutzen has some ideas…

Locally, the stratospheric albedo modification scheme, even when conducted at remote tropical island sites or from ships, would be a messy operation. An alternative may be to release a S-containing gas at the earth’s surface, or better from balloons, in the tropical stratosphere

In other words, speculation at this point in time. The bottom line is this, the idea is not revolutionary, heck, even I thought of this in the mid 90s when I was doing sulfate aerosol work. The mechanics of how this will be done without causing some unforeseen other major issue is the real question that will take years to answer. Meanwhile, this silly personal virtue called conservation still works, look at this graph (from an NY Times article through the Washington Monthly), if Cali can do it, so can you.

Excellent article, read in full, and let the next mass market pig you eat weigh on your conscience a little bit.

I have attended meetings organized by the North Carolina Environmental Justice Network recently, and Smithfield foods is high on their agenda for the mind blowing pollution that overwhelmingly affects the poor and rural African-American communities, for their appalling safety record, and early American style treatment of its workers. See this PBS video for more. It is truly heartbreaking to hear testimony from people who live near hog farms, how the stench is overwhelming, omnipresent, and travels in your clothes and system wherever you go.

Some Excerpts:

Rolling Stone : Pork’s Dirty Secret: The nation’s top hog producer is also one of America’s worst polluters

Smithfield Foods, the largest and most profitable pork processor in the world, killed 27 million hogs last year. That’s a number worth considering. A slaughter-weight hog is fifty percent heavier than a person. The logistical challenge of processing that many pigs each year is roughly equivalent to butchering and boxing the entire human populations of New York, Los Angeles, Chicago, Houston, Philadelphia, Phoenix, San Antonio, San Diego, Dallas, San Jose, Detroit, Indianapolis, Jacksonville, San Francisco, Columbus, Austin, Memphis, Baltimore, Fort Worth, Charlotte, El Paso, Milwaukee, Seattle, Boston, Denver, Louisville, Washington, D.C., Nashville, Las Vegas, Portland, Oklahoma City and Tucson.

To appreciate what this agglomeration of hog production does to the people who live near it, you have to appreciate the smell of industrial-strength pig shit. The ascending stench can nauseate pilots at 3,000 feet. On the day we fly over Smithfield’s operation there is little wind to stir up the lagoons or carry the stink, and the region’s current drought means that lagoon operators aren’t spraying very frequently. It is the best of times. We can smell the farms from the air, but while the smell is foul it is intermittent and not particularly strong.Unsurprisingly, prolonged exposure to hog-factory stench makes the smell extremely hard to get off. Hog factory workers stink up every store they walk into. I run into a few local guys who had made the mistake of accepting jobs in hog houses, and they tell me that you just have to wait the smell out: You’ll eventually grow new hair and skin. If you work in a Smithfield hog house for a year and then quit, you might stink for the next three months.

Epidemiological studies show that those who live near hog lagoons suffer from abnormally high levels of depression, tension, anger, fatigue and confusion. “We are used to farm odors,” says one local farmer. “These are not farm odors.” Sometimes the stink literally knocks people down: They walk out of the house to get something in the yard and become so nauseous they collapse. When they retain consciousness, they crawl back into the house.

Successful Farming magazine warned — six years ago. There simply is no regulatory solution to the millions of tons of searingly fetid, toxic effluvium that industrial hog farms discharge and aerosolize on a daily basis. Smithfield alone has sixteen operations in twelve states. Fixing the problem completely would bankrupt the company. According to Dr. Michael Mallin, a marine scientist at the University of North Carolina at Wilmington who has researched the effects of corporate farming on water quality, the volumes of concentrated pig waste produced by industrial hog farms are plainly not containable in small areas. The land, he says, “just can’t absorb everything that comes out of the barns.” From the moment that Smithfield attained its current size, its waste-disposal problem became conventionally insoluble.

Nice, huh! Still eating factory pork?

it could happen soon, imagine your car parked in the sun with a plastic solar coating on the roof. Imagine every building surface generating clean electrical energy. Well, it could happen very soon (if hyperbolic sciencedaily press releases are to be believed, at any rate!).

ScienceDaily: New Plastic Solar Cell Breaks Efficiency Record

In order to be considered a viable technology for commercial use, solar cells must be able to convert about 8 percent of the energy in sunlight to electricity. Wake Forest researchers hope to reach 10 percent in the next year, said Carroll, who is also associate professor of physics at Wake Forest.

Because they are flexible and easy to work with, plastic solar cells could be used as a replacement for roof tiling or home siding products or incorporated into traditional building facades. These energy harvesting devices could also be placed on automobiles. Since plastic solar cells are much lighter than the silicon solar panels structures do not have to be reinforced to support additional weight.

Screw ethanol, put all your energy into developing solar and wind energy, battery technology and electric vehicles. See how much better an idea that is compared to corn ethanol.