SPEAK UP.....now is our chance to be heard!!
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Diary about building a small sustainable organic farm, raising animals,gardening and remodeling our house---with an occasional political commentary.
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MESSAGE:
My name is _________. I am a constituent [or live in your state, if you aren't in their district]. I am calling about the Agriculture Appropriations bill for 2009. I am opposed to NAIS, and I do not want it to be tied to the School Lunch Program. I ask that you work to keep this provision, which was in the House Subcommittee's version, out of the conference version of the Appropriations bill. Please follow the Senate version, which did not include any such provision. I also urge you to stop all funding for NAIS, particularly any mandatory or coercive programs. Thank you for all of your work.
On August 24th I started plants of Red Express Cabbage, Calabrese broccoli and some Nero di Toscano and Lacinato Kale. I put them out in the garden when they were still small and had just about 4 leaves each. Though they have not grown immensely in that time I wanted to post pictures of them to show encourage those of you that do not winter garden that it is easier than you think. The cabbage looks beautiful and the broccoli and kales look as if a few leaves have been tortured. We have though had two stir fry meals off the broccoli tops (no flowers bud yet) and many many meals off our kale. In actuality I have other larger Kale plants so don’t think I am a miracle worker getting many meals off these littler guys. My other kales were from this past spring and lasted through the summer and our waist high to me now. A few leaves will get burnt when it drops low at night but they keep growing new leaves each week and most never do discolor. We eat kale at least once a week if not more — yum.
There are a few reasons why people don’t plant winter foods. Sometimes summer burnout occurs (definitely my main problem) but another is lack of cold frames or frost fabrics and then there is also procrastination. We are all, of course, guilty of this last one. I know I do it when I am uncomfortable or unsure about how to do something. But just by looking at my pictures you can see that though we have had many nights that have dropped into the mid 20’s my plants have made it through without dying. No they do not have a cold frame cover on them nor did I drape frost fabric or quilts or any such thing over them. I could have of course…and they would look a tad nicer. But since my days have always come up in temperature I have not felt that I really HAD to mess with any of that yet. January and February are usually the months we really need frames and fabrics.
Now I know that I live in North Georgia, so of course it is a bit warmer. However, just by tweaking your dates you can accomplish the same thing that I have even if you live in colder areas. My point wasn’t really to tell you when to start or any of that but to show you that even if you don’t have a green house or huge cold frame or spun fabrics…..there are varieties of veggies out their that can do their thing really well even when cold. Which brings me to variety choices.
Part of the reason I decided not to cover some of my plants is I wanted to see if I could find varieties that would take my weather without really needing lots of help. One of the reasons I wanted to do this was because when it does warm up I keep forgetting to uncover the darn things–another of my problems with cold frames. I get busy and forget to open them on a sunny day. Another reason was I am essentially a lazy person on the inside so simpler is better as far as I am concerned. I felt if I could find varieties that will tolerate my nights and days then I may not need cold frames or at least won’t need them as long. Of course a green house would be lovely but since many of us do not have one we must experiment experiment experiment. Since each package of seed is a few dollars at most—less if you seed share—then it is an cheap experiment. My many meals have already paid for my experiment and I still have more lunches and dinners out there. All we needed to do was to read the descriptions on our choices to find some that were suited to colder weather. Here is were I will encourage you to join a group like seed savers since you can find seeds grown by people near you or even in colder areas than you. They can usually give you very good information on how each variety stood up to different weather patterns. Cold and dry, wet and warm, icy, snowy etc.
The last problem I find with growing winter veggies this late is finding meals to use them up in. But that is no big deal now is it? So…again…I am going to encourage you to try this “out of season” growing thing. You could start early this spring with your own experiments. Though do remember the smaller the plant the more likely it will need some cover. But don’t be afraid and don’t procrastinate because your not sure if you can do it. It’s really easier than you think and you will do the V8 smack on your forehead when you finally realize you put it off for so long.
And….last note. I am so sorry Dora didn’t make it M.P. Though I didn’t have time to put one together for today, next week I am going to do an article on sheep/goats and dog attacks and how to treat the animal. I hope to even have a very good friends home made salve recipe to add in—one that can be used for many types of wounds and has an excellent proven track record.
By Jasper Copping
Last Updated: 2:39PM GMT 29 Nov 2008
The technology can generate electricity in water flowing at a rate of less than one knot - about one mile an hour - meaning it could operate on most waterways and sea beds around the globe.
Existing technologies which use water power, relying on the action of waves, tides or faster currents created by dams, are far more limited in where they can be used, and also cause greater obstructions when they are built in rivers or the sea. Turbines and water mills need an average current of five or six knots to operate efficiently, while most of the earth's currents are slower than three knots.
The new device, which has been inspired by the way fish swim, consists of a system of cylinders positioned horizontal to the water flow and attached to springs.
As water flows past, the cylinder creates vortices, which push and pull the cylinder up and down. The mechanical energy in the vibrations is then converted into electricity.
Cylinders arranged over a cubic metre of the sea or river bed in a flow of three knots can produce 51 watts. This is more efficient than similar-sized turbines or wave generators, and the amount of power produced can increase sharply if the flow is faster or if more cylinders are added.
A "field" of cylinders built on the sea bed over a 1km by 1.5km area, and the height of a two-storey house, with a flow of just three knots, could generate enough power for around 100,000 homes. Just a few of the cylinders, stacked in a short ladder, could power an anchored ship or a lighthouse.
Systems could be sited on river beds or suspended in the ocean. The scientists behind the technology, which has been developed in research funded by the US government, say that generating power in this way would potentially cost only around 3.5p per kilowatt hour, compared to about 4.5p for wind energy and between 10p and 31p for solar power. They say the technology would require up to 50 times less ocean acreage than wave power generation.
The system, conceived by scientists at the University of Michigan, is called Vivace, or "vortex-induced vibrations for aquatic clean energy".
Michael Bernitsas, a professor of naval architecture at the university, said it was based on the changes in water speed that are caused when a current flows past an obstruction. Eddies or vortices, formed in the water flow, can move objects up and down or left and right.
"This is a totally new method of extracting energy from water flow," said Mr Bernitsas. "Fish curve their bodies to glide between the vortices shed by the bodies of the fish in front of them. Their muscle power alone could not propel them through the water at the speed they go, so they ride in each other's wake."
Such vibrations, which were first observed 500 years ago by Leonardo DaVinci in the form of "Aeolian Tones", can cause damage to structures built in water, like docks and oil rigs. But Mr Bernitsas added: "We enhance the vibrations and harness this powerful and destructive force in nature.
"If we could harness 0.1 per cent of the energy in the ocean, we could support the energy needs of 15 billion people. In the English Channel, for example, there is a very strong current, so you produce a lot of power."
Because the parts only oscillate slowly, the technology is likely to be less harmful to aquatic wildlife than dams or water turbines. And as the installations can be positioned far below the surface of the sea, there would be less interference with shipping, recreational boat users, fishing and tourism.
The engineers are now deploying a prototype device in the Detroit River, which has a flow of less than two knots. Their work, funded by the US Department of Energy and the US Office of Naval Research, is published in the current issue of the quarterly Journal of Offshore Mechanics and Arctic Engineering.
They're stealing your vote, but you can steal it back. Here are some steps you should take to protect your vote. First, avoid the November 4th minefield. Voters, wherever possible, should vote early and in person. Where feasible, avoid mailing in your ballot, many are rejected for flimsy reasons, and first time voters in many states must include a photocopy of ID. However, if you have a mail-in ballot, don't throw it away. Follow directions, use the correct postage (that's an error that cost a hundred thousand votes last time) and, if possible, walk it in to your elections office.
At the polling station, should you find yourself one of the 2.7 million purged, or your ID rejected, then do your best to resist a "provisional" ballot--one third of which are not counted. Return with proper ID, or call 1-800-OUR VOTE for legal assistance. And never just walk away discouraged. That's just what they want you to do.
WASHINGTON - Intruders could easily break into two U.S. laboratories where researchers handle some of the world's deadliest germs, according to congressional investigators. The Associated Press identified the vulnerable lab locations as Atlanta and San Antonio.
The serious security problems at the two labs were described by the Government Accountability Office in a report expected to be released publicly as early as Thursday. The GAO, Congress' investigative and auditing arm, did not identify the labs except to say they were classified as Biosafety Level 4 facilities, but the report included enough details for the AP — and others knowledgeable about such labs — to determine their locations. Biosafety Level 4 labs do research on deadly germs and toxins.
In Texas, the Southwest Foundation for Biomedical Research features an outside window that looks directly into the room where the deadly germs are handled. The lab, which is privately run, also lacks many security cameras, intrusion detection alarms or visible armed guards at its public entrances. Officials there said they will tighten security.
"We already have an initiative under way to look at perimeter security," said Kenneth Trevett, president of the lab in San Antonio. "We're waiting for additional input but we're not waiting long. The GAO would like us to do some fairly significant things. They would like us to do it sooner rather than later."Unguarded loading dock
The other lab described with weak security in the report is operated by Georgia State University in Atlanta. That lab lacked complete security barriers and any integrated security system, including any live monitoring by security cameras. During their review, investigators said they watched an unidentified pedestrian enter the building through an unguarded loading dock.
"Georgia State clearly wants its BSL-4 to be as safe as possible," said DeAnna Hines, assistant vice president for university relations. "We are already taking steps that will enhance the lab's safety and security standards." Hines did not confirm the school's research lab was the one mentioned in the congressional report as lacking proper security.
Investigators said the lab in San Antonio used unarmed guards inside antiquated guardhouses with a gate across the access road. An outside company monitors alarms at the lab and calls police in emergencies, which investigators said could delay a quick response in a crisis. They called the San Antonio lab the most vulnerable of all the labs they studied.
The federal Centers for Disease Control and Prevention approved the labs in San Antonio and Atlanta to handle the deadly organisms despite the security weaknesses. The three other BSL-4 labs in the U.S. feature impressive security, the report said. Those include the CDC's own facility, also in Atlanta; the Army's lab at Fort Detrick, Md.; and the University of Texas Medical Branch in Galveston.Fort Detrick is on a secure military base, but it is known for a recent internal problem. Bruce Ivins, a scientist at the Army's biodefense lab at Fort Detrick, killed himself in July as prosecutors prepared to indict him for murder in the anthrax letter attacks, which killed five people.
Ebola research
The CDC lab is on the agency's high-security campus.
The viruses researched in the highest security labs include ebola, marburg, junin and lassa. All can cause incurable illnesses.
The chairman of the House Energy and Commerce Committee, Rep. John Dingell, D-Mich., urged the CDC to quickly identify all security weaknesses at the high-containment research labs and fix any problems. Dingell has been investigating security problems associated with such labs around the country. He said at least six additional high-containment labs are under construction.
The Associated Press reported in October 2007 that U.S. laboratories working with deadly organisms have experienced more than 100 accidents and missing shipments since 2003 — and the number is increasing as more labs do the work.
A CDC spokesman, Von Roebuck, said each of the five labs described in the new report has its own security plan designed to fit the lab's particular security assessments.
Though I only wanted a campaign filled with ideas and solutions that is not to be the case. And though I tried to keep an open mind about each candidate I was leaning (I'll admit) a bit democratically. However Sara Palin was an interesting choice...until she opened her mouth. Now she may be able to debate by not answering the questions but when it comes to answering questions she makes me embarrassed to know that the first women VP or Pres that would stand for America could be that un smart sounding. Sorry....but during nuclear talks with Russia I REALLY doubt Putin will give a ding dang about being winked at.
So....on to the newest politcal cut the repubs are throwing at Obama. What I want to know is why:
conservatives may not want to draw attention to the issue of ties to violent radicals -- since John McCain is longtime pals with convicted Watergate burglar Gordon Liddy, who once plotted a journalist's murder (which was never carried out) and has advocated the shooting of federal law enforcement agents.
If Obama needs to answer questions about Ayers, McCain has the same obligation regarding Liddy. How about they both get started?
Who owns your DNA?
Genetic research that can save lives is often stymied by biotech companies' greedy patent claims.
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By Arthur Allen
For years, the parents of children suffering from an implacable genetic disorder called Canavan disease dutifully packed off their blood and tissue samples to Dr. Reuben Matalon, a researcher at Miami Children's Hospital. These shipments were an altruistic, volunteer effort by a devastated group of people -- their own children were dead or dying, but they hoped to prevent the births of more children with the disastrous, inevitably fatal brain disease.
In 1993, their donations paid off when Matalon, parsing the families' DNA, was able to identify a series of gene mutations on chromosome 17 that appeared to indirectly cause the disease, which has mainly affected Ashkenazi Jews. His work raised hopes that Canavan would go the way of Tay-Sachs, a related illness that has nearly disappeared in the Jewish population since couples began routine screening for Tay-Sachs in the early 1970s.
But the Tay-Sachs screening program, apparently, belonged to a kinder, gentler era in medicine. In November 1998, Miami Children's Hospital announced plans to strictly license its patent on the Canavan gene. Not only did Miami Children's demand that clinicians pay a $25 royalty (eventually lowered to $12.50) each time they performed the test; it also put a cap on the number of tests any academic lab could do.
The hospital's stringent licensing agreement is part of an alarming trend in biomedical research. Some biotech companies, universities and even hospitals are seeking to recoup their costs quickly by patenting discoveries that many believe shouldn't be patented at all. The patent license disputes threaten to close off research and clinical applications of some of the biomedical discoveries that Americans have paid billions to enable.
Some of the leading genetics labs in the country would not accept Miami Children's licensing terms and as a result had to stop testing for Canavan disease. "It's a wretched contract and we refused to sign it," says Debra Leonard, director of the molecular pathology laboratory at the University of Pennsylvania hospitals in Philadelphia. Shocked patient groups and scientists could only watch in dismay as bickering lawyers put a squeeze on information they'd worked long and hard to generate.
"We gave our DNA and that of our children to help develop testing and prenatal diagnosis. We sent our blood and skin samples to a doctor at Miami Children's Hospital," says Dr. Judith Tsipis, a Brandeis University biologist whose son, Andreas, died of Canavan disease in 1998 at age 22. "Is it right that they use our genes -- given to help others -- in a way that restricts access and increases cost to testing?
"It's shocking," she says.
"My understanding from the hospital was we needed to file the patent just so I could work with the gene myself," says Matalon, who has since moved to the University of Texas hospital system, where he continues to work on Canavan disease. "I had nothing to do with their licensing decision and I got no penny from any patent."
Canavan disease is one of a growing number of conditions in which patent fights have intruded into genetic medicine. Ninety percent of the 150 U.S. clinical genetics labs in a recent survey reported having withheld tests because of onerous patent claims. Genes for early-onset Alzheimer's and breast cancer are among the most common DNA sequences saddled with restrictive licenses.
Doctors whose clinical practice involves devising means to detect disease-causing genetic mutations are being told they can only perform such tests under licensing agreements that are often so strict the doctors' institutions refuse to sign them.
"This is my medical practice. I can't do what I was trained to do, and I spent a long time training to do it," says Leonard, who is also president of the Association for Molecular Pathology.
The problem will only grow with the approval of thousands of additional gene applications currently pending before the U.S Patent and Trade Office. "This is just the tip of the iceberg," says Leonard. The conflicts over genetic testing -- the first clinical application of the Human Genome Project -- are probably just an opening skirmish in a multisided war for control of the information, drugs and therapies that may arise from the genome discoveries.
Thanks to robots, supercomputers and brainy scientists, the government-led genome project is expected this year or next to finish its sequencing of the estimated 100,000 genes in human DNA. But the mapping of the human chromosomes is really just the start of a new kind of biological understanding. Although scientists now know the DNA sequences of many human genes, they don't understand how most of them work.
While the rest of us await the integration of these molecules into an intelligible language of life, scientists, businessmen and the government squabble over what value to assign the millions of information snippets.
James Watson, who won the Nobel Prize in 1953 for discovering DNA's double-helix structure, resigned as the first director of the NIH genome institute in 1992 in a dispute over whether to patent DNA sequences that a scientist named Craig Venter had discovered. Venter also quit the NIH and formed a gene sequencing partnership with William Haseltine, a Harvard AIDS scientist. Haseltine and Venter now lead competing biotech firms that are racing a government-led consortium to decode vast quantities of human DNA.
Haseltine, Venter and other scientific entrepreneurs have submitted patent applications on millions of bits of DNA, many of whose function isn't clearly understood. The patent office recently raised the bar of knowledge it requires before issuing patents on genes, but Francis Collins, Watson's successor, worries that premature claim-staking on the genome could end up snarling research in legal battles for years.
Using the sophisticated databanks, most of them designed and run by the government, genome-analyzing companies have described possible functions for about half the gene sequences discovered so far. John Doll, who heads the U.S. Patent and Trade Office's biotechnology division, says his office will grant patents for genes when applicants can describe a plausible function for them based on computer searches.
A prime example was the patent awarded last month to Human Genome Sciences for a gene that codes for a protein involved in introducing the HIV virus into cells. When Haseltine filed for the patent in 1995, he didn't know the function of the gene, but was savvy enough to guess it might be a cell membrane receptor. In the meantime, AIDS researchers doing painstaking science uncovered the actual role of the gene. The awarding of the patent -- worth millions if the gene is used to create AIDS drugs or vaccines -- infuriated these scientists as well as patient groups that supported their research.
"Doesn't it bother you," Collins asked Doll during a conference in Washington on Thursday, "that your standard would allow patent protection for roughly 40 percent of human genes, and yet if you ask any working scientist what percent of human genes they know the function of, you'd get, maybe 2 percent?"
"Everybody's filing for these patents," said Doll. "Not just the Incytes of the world; zillions of universities are taking the same approach."
"I don't doubt it for a second but it doesn't make me feel any different," an exasperated Collins responded. "When there's a gold rush, a lot of people go to California."
Other scientists are less restrained in their attacks on the biotech industry. "The idea of patenting DNA sequences is abhorrent to me, but in particular, the way it's being done now is intellectually dishonest," says Robert Nussbaum, a molecular biologist at NIH.
Nussbaum, who works on Parkinson's disease, said the kind of gene patent applications that Doll's office has decided to approve are likely to be shaky in their claims. Even if correct, he said, such claims are based on searches of public databases and "are being done on the backs and shoulders of research funded by the public and charitable foundations. It doesn't seem right that these sequences should be taken and locked up for the purpose of profit making."
Doll points out that hard work has never been a requirement to win a patent from the U.S. Patent Office, which generally tries to be as friendly to patent applicants as possible. "We don't care how you find out something new, only that you're the first to find it," he says. And some biotech officials say that scientists are simply bitter at the fact that technology is transforming the manner in which biological information is gathered.
Officials at Incyte, a Palo Alto, Calif., company that sells its genome information to more than two dozen pharmaceutical and biotech companies, like to point to a discovery made last year by CV Therapeutics, a small California biotech company. Using Incyte's databases and a few simple experiments, scientists from CV Therapeutics were able to identify a set of genes involved in Tangier disease, a heart ailment discovered among people living on Tangier Island in the Chesapeake Bay. CV's discovery took two months, but it was listed by the American Heart Association as one of the top 10 discoveries of 1999.
"Medical research is increasingly a matter of using technologies to gather a bunch of pieces of information," says Lee Bendekgey, general counsel for Incyte. "It's really accelerating things and that's what matters. And when people make discoveries like that, they deserve both public accolades and rewards."
In the 1980s, in a more primitive era of genetics discoveries, it took Francis Collins several years to isolate and clone the cystic fibrosis gene. At the time it was one of the more remarkable chapters in genetics research. The University of Michigan, where Collins made the discovery, holds the patent on the gene. As it happens, Michigan doesn't charge researchers a dime to use it.
Of course, patent holders want people to use their inventions -- if no one uses them, they don't get paid. And intellectual property lawyers say that when the patents on the human genome get sorted out, relevant ones will be bundled into packages that can be licensed to researchers and doctors in useable form -- for a price.
When the Human Genome Project began, ethicists were primarily worried about whether knowledge from the genome would be used for genetic discrimination, or to create genetically enhanced children or eliminate the genetically unfit. But such concerns may be beside the point if the technology is too expensive for anyone but the rich.
Those who care for the genetically vulnerable appear most aware of this paradox. Judith Tsipis' son Andreas never learned to walk, talk or feed himself. But he could think -- and he had a good sense of humor, she says. Asked the difficult question of whether Andreas' birth should never have taken place, Tsipis shrugs off facile answers.
"Andreas was my child and I loved him dearly. He was loved and cared for superbly well but he still had a difficult life, especially toward the end. Would I have wanted him to be born? I can't answer that. But I'm working very hard for screening so that families have all the options, and one option is an abortion. The key thing you need is information, education, and the availability of testing."
"If patents hinder research," she adds, "it will make it harder for people to develop cures for these diseases."
salon.com | March 7, 2000
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