The constitutionality of proposed health care
Dr. Weeks’ Comment: good for our Washington state AG Rob McKenna.
From: Rohr, Shelley (ATG) [mailto:ShelleyR@ATG.WA.GOV]
Sent: Wednesday, February 03, 2010 4:52 PM
To: blackr20@comcast.net
Subject: RE: CCTN# 177275, Black, Robert -(Public) -
Thank you for your message to Attorney General Rob McKenna expressing concerns about the constitutionality of the Senate Health Care. He has asked me to respond to you on his behalf.
As you may know, in a statement on December 22, 2009, Attorney General McKenna said, “The arrangement that requires Washington state taxpayers, and those around the country, to permanently pay Nebraska’s additional Medicaid costs carries a price tag of untold millions. It raises key constitutional questions about whether residents of certain states should receive special privileges, based on the deal-making skills of their senators.”
On December 30, 2009, Attorney General McKenna joined 12 other attorneys general in sending a letter to House Speaker Nancy Pelosi and Senate Majority Leader Harry Reid, warning them that the special treatment provision in the Senate health care bill inserted at the request of Sen. Ben Nelson is “constitutionally flawed” and asking them to remove it. The letter also indicates there may be other legal or constitutional issues in the proposed health care legislation.
Attorney General McKenna continues to monitor this legislation and is actively working with his counterparts from other states to hold Congress accountable.
If this legislation passes with unconstitutional provisions intact, he stands ready with other state attorneys general to take the action necessary defend the state’s interests.
Sincerely,
Janelle M. Guthrie, APR
Communications Director
Office of Attorney General Rob McKenna
Cell phones – dialing your grave.
Dr. Weeks’ Comment: An unbiased view is very very worrisome.
Talk about a smart bomb for population control!
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Message from Author
Hey all – I spent almost a year working on this piece about cell-phone radiation – find it online at
http://www.gq.com/cars-gear/gear-and-gadgets/201002/warning-cell-phone-radiation, or in the February hard copy of the magazine – interviewing dozens of sources, reading scores of reports, and the bad news is in: Cell-phone radiation, now being pumped directly into the brains of 4.5 billion handset users worldwide, is likely causing havoc in the electrical systems by which our brains and bodies operate. All biology is electric, as one of my sources tells me in the article. If
you add massive levels of electropollution such as cell-phone microwaves into the environment, you’re going to disturb the
functioning of living systems, with possibly huge ramifications over the long term: brain tumors, cancers, weird neurological disorders, sperm die-offs, genetic damage, behavioral changes, sleep changes, changes in learning and memory and mental acuity. Similar data is being gathered about the dangers of wifi radiation, which operates at
microwave frequencies not very different and often exactly the same as those frequencies used in cell-phone technology. Anyway, read about it, weep, smash your cell-phone, or don’t. To quote one of the scientists in the piece: “The public should know if they are taking a risk with cell phones. What we’re doing is a grand world experiment without informed consent.”
Cheers,
Chris Ketcham
http://www.gq.com/cars-gear/gear-and-gadgets/201002/warning-cell-phone-radiation
Gear + Gadgets
Warning: Your Cell Phone May Be Hazardous to Your Health
Ever worry that that gadget you spend hours holding next to your head might be damaging your brain? Well, the evidence is starting to pour in, and it’s not pretty. So why isn’t anyone in America doing anything about it?
By Christopher Ketcham
Photograph by Tom Schierlitz
February 2010
Lower prostate cancer risk
Dr. Weeks’ Comment: Why not?
Stay Active to Reduce Your Risk of Prostate Cancer
Can an active lifestyle protect a man from prostate cancer? Research reported in the journal Cancer Causes and Control (Volume 19, page 107) suggests that it might …
Much effort has been devoted to searching for lifestyle or environmental factors that might serve as promoters for prostate cancer. The incidence of microscopic prostate cancer (cancers too small to be seen except under a microscope) is similar among men in the United States and in all other countries that have been examined. However, the mortality rates from prostate cancer differ from one country to another and even within different regions of the United States.
These differences suggest that factors such as diet, exercise, body weight, or exposure to certain substances or forces influence prostate cancer’s progression from microscopic tumors to clinically significant ones. Some factors are believed to encourage the growth of prostate cancer, whereas others may have a protective effect.
A long-term study of men working in the aerospace industry suggests that having a physically active job may reduce the risk of prostate cancer by nearly half.
Researchers studied the effects of occupational physical activity on prostate cancer risk among 2,167 men who had worked at a nuclear and rocket engine testing facility in Southern California between the 1950s and 1990s. Over a 10-year period between January 1988 and December 1999, 362 of the men developed prostate cancer.
Compared with men who did not develop the prostate cancer, these men were more likely to have had sedentary jobs that mainly involved sitting. Sedentary jobs included positions such as managers, data analysts, inspectors, administrators, and senior engineers. Jobs requiring high levels of continuous activity included positions like junior mechanics, patrolmen, firemen, electricians, janitors, truck-lift operators, and welders.
Bottom line: The researchers speculated that men who are continually active during the day may have lower levels of androgens (male hormones), which can be altered with physical activity. If you have a sedentary job, try to compensate by engaging in regular exercise and physically challenging sports or hobbies. It’s good for your heart and could help your prostate as well.
SSRI no better than placebo.. worse actually.
Dr. Weeks’ Comment: Old news. Had the ’scientific” journals reported the real and total science in the firest place, had the marketers not gagged the investigators (see the fiasco of how the unpublished data on Paxil bordered on the criminal) the fad of SSRI medications would never have been tolerated.
Where were the “experts” on this debate?
They were in the pockets of Big Pharma.
The Depressing News About Antidepressants
Although the year is young, it has already brought my first moral dilemma. In early January a friend mentioned that his New Year’s resolution was to beat his chronic depression once and for all. Over the years he had tried a medicine chest’s worth of antidepressants, but none had really helped in any enduring way, and when the side effects became so unpleasant that he stopped taking them, the withdrawal symptoms (cramps, dizziness, headaches) were torture. Did I know of any research that might help him decide whether a new antidepressant his doctor recommended might finally lift his chronic darkness at noon?
Hence the moral dilemma. The placebo effect—that is, a medical benefit you get from an inert pill or other sham treatment—rests on the holy trinity of belief, expectation, and hope. But telling someone with depression who is being helped by antidepressants, or who (like my friend) hopes to be helped, threatens to topple the whole house of cards. Explain that it’s all in their heads, that the reason they’re benefiting is the same reason why Disney’s Dumbo could initially fly only with a feather clutched in his teeth—believing makes it so—and the magic dissipates like fairy dust in a windstorm. So rather than tell my friend all this, I chickened out. Sure, I said, there’s lots of research showing that a new kind of antidepressant might help you. Come, let me show you the studies on PubMed.
It seems I am not alone in having moral qualms about blowing the whistle on antidepressants. That first analysis, in 1998, examined 38 manufacturer-sponsored studies involving just over 3,000 depressed patients. The authors, psychology researchers Irving Kirsch and Guy Sapirstein of the University of Connecticut, saw—as everyone else had—that patients did improve, often substantially, on SSRIs, tricyclics, and even MAO inhibitors, a class of antidepressants that dates from the 1950s. This improvement, demonstrated in scores of clinical trials, is the basis for the ubiquitous claim that antidepressants work. But when Kirsch compared the improvement in patients taking the drugs with the improvement in those taking dummy pills—clinical trials typically compare an experimental drug with a placebo—he saw that the difference was minuscule. Patients on a placebo improved about 75 percent as much as those on drugs. Put another way, three quarters of the benefit from antidepressants seems to be a placebo effect. “We wondered, what’s going on?” recalls Kirsch, who is now at the University of Hull in England. “These are supposed to be wonder drugs and have huge effects.”
The study’s impact? The number of Americans taking antidepressants doubled in a decade, from 13.3 million in 1996 to 27 million in 2005.
To be sure, the drugs have helped tens of millions of people, and Kirsch certainly does not advocate that patients suffering from depression stop taking the drugs. On the contrary. But they are not necessarily the best first choice. Psychotherapy, for instance, works for moderate, severe, and even very severe depression. And although for some patients, psychotherapy in combination with an initial course of prescription antidepressants works even better, the question is, how do the drugs work? Kirsch’s study and, now, others conclude that the lion’s share of the drugs’ effect comes from the fact that patients expect to be helped by them, and not from any direct chemical action on the brain, especially for anything short of very severe depression.
As the inexorable rise in the use of antidepressants suggests, that conclusion can’t hold a candle to the simplistic “antidepressants work!” (unstated corollary: “but don’t ask how”) message. Part of the resistance to Kirsch’s findings has been due to his less-than-retiring nature. He didn’t win many friends with the cheeky title of the paper, “Listening to Prozac but Hearing Placebo.” Nor did it inspire confidence that the editors of the journal Prevention & Treatment ran a warning with his paper, saying it used meta-analysis “controversially.” Al-though some of the six invited commentaries agreed with Kirsch, others were scathing, accusing him of bias and saying the studies he analyzed were flawed (an odd charge for defenders of antidepressants, since the studies were the basis for the Food and Drug Administration’s approval of the drugs). One criticism, however, could not be refuted: Kirsch had analyzed only some studies of antidepressants. Maybe if he included them all, the drugs would emerge head and shoulders superior to placebos.
Kirsch agreed. Out of the blue, he received a letter from Thomas Moore, who was then a health-policy analyst at George Washington University. You could expand your data set, Moore wrote, by including everything drug companies sent to the FDA—published studies, like those analyzed in “Hearing Placebo,” but also unpublished studies. In 1998 Moore used the Freedom of Information Act to pry such data from the FDA. The total came to 47 company-sponsored studies—on Prozac, Paxil, Zoloft, Effexor, Serzone, and Celexa—that Kirsch and colleagues then pored over. (As an aside, it turned out that about 40 percent of the clinical trials had never been published. That is significantly higher than for other classes of drugs, says Lisa Bero of the University of California, San Francisco; overall, 22 percent of clinical trials of drugs are not published. “By and large,” says Kirsch, “the unpublished studies were those that had failed to show a significant benefit from taking the actual drug.”) In just over half of the published and unpublished studies, he and colleagues reported in 2002, the drug alleviated depression no better than a placebo. “And the extra benefit of antidepressants was even less than we saw when we analyzed only published studies,” Kirsch recalls. About 82 percent of the response to antidepressants—not the 75 percent he had calculated from examining only published studies—had also been achieved by a dummy pill.
The extra effect of real drugs wasn’t much to celebrate, either. It amounted to 1.8 points on the 54-point scale doctors use to gauge the severity of depression, through questions about mood, sleep habits, and the like. Sleeping better counts as six points. Being less fidgety during the assessment is worth two points. In other words, the clinical significance of the 1.8 extra points from real drugs was underwhelming. Now Kirsch was certain. “The belief that antidepressants can cure depression chemically is simply wrong,” he told me in January on the eve of the publication of his book The Emperor’s New Drugs: Exploding the Anti-depressant Myth.
The 2002 study ignited a furious debate, but more and more scientists were becoming convinced that Kirsch—who had won respect for research on the placebo response and who had published scores of scientific papers—was on to something. One team of researchers wondered if antidepressants were “a triumph of marketing over science.” Even defenders of antidepressants agreed that the drugs have “relatively small” effects. “Many have long been unimpressed by the magnitude of the differences observed between treatments and controls,” psychology researcher Steven Hollon of Vanderbilt University and colleagues wrote—”what some of our colleagues refer to as ‘the dirty little secret.’ ” In Britain, the agency that assesses which treatments are effective enough for the government to pay for stopped recommending antidepressants as a first-line treatment, especially for mild or moderate depression.
But if experts know that antidepressants are hardly better than placebos, few patients or doctors do. Some doctors have changed their prescribing habits, says Kirsch, but more “reacted with anger and incredulity.” Understandably. For one thing, depression is a devastating, underdiagnosed, and undertreated disease. Of course doctors recoiled at the idea that such drugs might be mirages. If that were true, how were physicians supposed to help their patients?
Two other factors are at work in the widespread rejection of Kirsch’s (and, now, other scientists’) findings about antidepressants. First, defenders of the drugs scoff at the idea that the FDA would have approved ineffective drugs. (Simple explanation: the FDA requires two well-designed clinical trials showing a drug is more effective than a placebo. That’s two, period—even if many more studies show no such effectiveness. And the size of the “more effective” doesn’t much matter, as long as it is statistically significant.) Second, doctors see with their own eyes, and feel with their hearts, that the drugs lift the black cloud from many of their depressed patients. But since doctors are not exactly in the habit of prescribing dummy pills, they have no experience comparing how their patients do on them, and therefore never see that a placebo would be almost as effective as a $4 pill. “When they prescribe a treatment and it works,” says Kirsch, “their natural tendency is to attribute the cure to the treatment.” Hence the widespread “antidepressants work” refrain that persists to this day.
Drug companies do not dispute Kirsch’s aggregate statistics. But they point out that the average is made up of some patients in whom there is a true drug effect of antidepressants and some in whom there is not. As a spokesperson for Lilly (maker of Prozac) said, “Depression is a highly individualized illness,” and “not all patients respond the same way to a particular treatment.” In addition, notes a spokesperson for Glaxo-Smith-Kline (maker of Paxil), the studies analyzed in the JAMA paper differ from studies GSK submitted to the FDA when it won approval for Paxil, “so it is difficult to make direct comparisons between the results. This study contributes to the extensive research that has helped to characterize the role of antidepressants,” which “are an important option, in addition to counseling and lifestyle changes, for treatment of depression.” A spokesperson for Pfizer, which makes Zoloft, also cited the “wealth of scientific evidence documenting [antidepressants'] effects,” adding that the fact that antidepressants “commonly fail to separate from placebo” is “a fact well known by the FDA, academia, and industry.” Other manufacturers pointed out that Kirsch and the JAMA authors had not studied their particular brands.
Even Kirsch’s analysis, however, found that antidepressants are a little more effective than dummy pills—those 1.8 points on the depression scale. Maybe Prozac, Zoloft, Paxil, Celexa, and their cousins do have some non-placebo, chemical benefit. But the small edge of real drugs compared with placebos might not mean what it seems, Kirsch explained to me one evening from his home in Hull. Consider how research on drugs works. Patient volunteers are told they will receive either the drug or a placebo, and that neither they nor the scientists will know who is getting what. Most volunteers hope they get the drug, not the dummy pill. After taking the unknown meds for a while, some volunteers experience side effects. Bingo: a clue they’re on the real drug. About 80 percent guess right, and studies show that the worse side effects a patient experiences, the more effective the drug. Patients apparently think, this drug is so strong it’s making me vomit and hate sex, so it must be strong enough to lift my depression. In clinical-trial patients who figure out they’re receiving the drug and not the inert pill, expectations soar.
That matters because belief in the power of a medical treatment can be self-fulfilling (that’s the basis of the placebo effect). The patients who correctly guess that they’re getting the real drug therefore experience a stronger placebo effect than those who get the dummy pill, experience no side effects, and are therefore disappointed. That might account for antidepressants’ slight edge in effectiveness compared with a placebo, an edge that derives not from the drugs’ molecules but from the hopes and expectations that patients in studies feel when they figure out they’re receiving the real drug.
The boy who said the emperor had no clothes didn’t endear himself to his fellow subjects, and Kirsch has fared little better. A nascent collaboration with a scientist at a medical school ended in 2002 when the scientist was warned not to submit a grant proposal with Kirsch if he ever wanted to be funded again. Four years later, another scientist wrote a paper questioning the effectiveness of antidepressants, citing Kirsch’s work. It was published in a prestigious journal. That ordinarily brings accolades. Instead, his department chair dressed him down and warned him not to become too involved with Kirsch.
But the question of whether antidepressants—which in 2008 had sales of $9.6 billion in the U.S., reported the consulting firm IMS Health—have any effect other than through patients’ belief in them was too important to scare researchers off. Proponents of the drugs have found themselves making weaker and weaker claims. Their last stand is that antidepressants are more effective than a placebo in patients suffering the most severe depression.
So concluded the JAMA study in January. In an analysis of six large experiments in which, as usual, depressed patients received either a placebo or an active drug, the true drug effect—that is, in addition to the placebo effect—was “nonexistent to negligible” in patients with mild, moderate, and even severe depression. Only in patients with very severe symptoms (scoring 23 or above on the standard scale) was there a statistically significant drug benefit. Such patients account for about 13 percent of people with depression. “Most people don’t need an active drug,” says Vanderbilt’s Hollon, a coauthor of the study. “For a lot of folks, you’re going to do as well on a sugar pill or on conversations with your physicians as you will on medication. It doesn’t matter what you do; it’s just the fact that you’re doing something.” But people with very severe depression are different, he believes. “My personal view is the placebo effect gets you pretty far, but for those with very severe, more chronic conditions, it’s harder to knock down and placebos are less adequate,” says Hollon. Why that should be remains a mystery, admits coauthor Robert DeRubeis of the University of Pennsylvania.
Like every scientist who has stepped into the treacherous waters of antidepressant research, Hollon, DeRubeis, and their colleagues are keenly aware of the disconnect between evidence and public impression. “Prescribers, policy-makers, and consumers may not be aware that the efficacy of [antidepressants] largely has been established on the basis of studies that have included only those individuals with more severe forms of depression,” something drug ads don’t mention, they write. People with anything less than very severe depression “derive little specific pharmacological benefit from taking medications. Pending findings contrary to those reported here … efforts should be made to clarify to clinicians and prospective patients that … there is little evidence to suggest that [antidepressants] produce specific pharmacological benefit for the majority of patients.”
Right about here, people scowl and ask how anti-depressants—especially those that raise the brain’s levels of serotonin—can possibly have no direct chemical effect on the brain. Surely raising serotonin levels should right the synapses’ “chemical imbalance” and lift depression. Unfortunately, the serotonin-deficit theory of depression is built on a foundation of tissue paper. How that came to be is a story in itself, but the basics are that in the 1950s scientists discovered, serendipitously, that a drug called iproniazid seemed to help some people with depression. Iproniazid increases brain levels of serotonin and norepinephrine. Ergo, low levels of those neurotransmitters must cause depression. More than 50 years on, the presumed effectiveness of antidepressants that act this way remains the chief support for the chemical-imbalance theory of depression. Absent that effectiveness, the theory hasn’t a leg to stand on. Direct evidence doesn’t exist. Lowering people’s serotonin levels does not change their mood. And a new drug, tianeptine, which is sold in France and some other countries (but not the U.S.), turns out to be as effective as Prozac-like antidepressants that keep the synapses well supplied with serotonin. The mechanism of the new drug? It lowers brain levels of serotonin. “If depression can be equally affected by drugs that increase serotonin and by drugs that decrease it,” says Kirsch, “it’s hard to imagine how the benefits can be due to their chemical activity.”
Perhaps antidepressants would be more effective at higher doses? Unfortunately, in 2002 Kirsch and colleagues found that high doses are hardly more effective than low ones, improving patients’ depression-scale rating an average of 9.97 points vs. 9.57 points—a difference that is not statistically significant. Yet many doctors increase doses for patients who do not respond to a lower one, and many patients report improving as a result. There’s a study of that, too. When researchers gave such nonresponders a higher dose, 72 percent got much better, their symptoms dropping by 50 percent or more. The catch? Only half the patients really got a higher dose. The rest, unknowingly, got the original, “ineffective” dose. It is hard to see the 72 percent who got much better on ersatz higher doses as the result of anything but the power of expectation: the doctor upped my dose, so I believe I’ll get better.
Something similar may explain why some patients who aren’t helped by one antidepressant do better on a second, or a third. This is often explained as “matching” patient to drug, and seemed to be confirmed by a 2006 federal study called STAR*D. Patients still suffering from depression after taking one drug were switched to a second; those who were still not better were switched to a third drug, and even a fourth. No placebos were used. At first blush, the results offered a ray of hope: 37 percent of the patients got better on the first drug, 19 percent more on their second, 6 percent more improved on their third try, and 5 percent more on their fourth. (Half of those who recovered relapsed within a year, however.)
So does STAR*D validate the idea that the key to effective treatment of depression is matching the patient to the drug? Maybe. Or maybe people improved in rounds two, three, and four because depression sometimes lifts due to changes in people’s lives, or because levels of depression tend to rise and fall over time. With no one in STAR*D receiving a placebo, it is not possible to conclude with certainty that the improvements in rounds two, three, and four were because patients switched to a drug that was more effective for them. Comparable numbers might have improved if they had switched to a placebo. But STAR*D did not test for that, and so cannot rule it out.
It’s tempting to look at the power of the placebo effect to alleviate depression and stick an “only” in front of it—as in, the drugs work only through the placebo effect. But there is nothing “only” about the placebo response. It can be surprisingly enduring, as a 2008 study found: “The widely held belief that the placebo response in depression is short-lived appears to be based largely on intuition and perhaps wishful thinking,” scientists wrote in the Journal of Psychiatric Research. The strength of the placebo response drives drug companies nuts, since it makes showing the superiority of a new drug much harder. There is a strong placebo component in the response to drugs for pain, asthma, irritable-bowel syndrome, skin conditions such as contact dermatitis, and even Parkinson’s disease. But compared with the placebo component of antidepressants, the placebo response accounts for a smaller fraction of the benefit from drugs for those disorders—on the order of 50 percent for analgesics, for instance.
Which returns us to the moral dilemma. In any year, an estimated 13.1 million to 14.2 million American adults suffer from clinical depression. At least 32 million will have the disease at some point in their life. Many of the 57 percent who receive treatment (the rest do not) are helped by medication. For that benefit to continue, they need to believe in their pills. Even Kirsch warns—in boldface type in his book, which is in stores this week—that patients on antidepressants not suddenly stop taking them. That can cause serious withdrawal symptoms, including twitches, tremors, blurred vision, and nausea—as well as depression and anxiety. Yet Kirsch is well aware that his book may have the same effect on patients as the crows did on Dumbo when they told him the “magic feather” wasn’t really giving him the power of flight: the little elephant began crashing to earth. Friends and colleagues who believe Kirsch is right ask why he doesn’t just shut up, since publicizing the finding that the effectiveness of antidepressants is almost entirely due to people’s hopes and expectations will undermine that effectiveness.
It’s all well and good to point out that psychotherapy is more effective than either pills or placebos, with dramatically lower relapse rates. But there’s the little matter of reality. In the U.S., most patients with depression are treated by primary-care doctors, not psychiatrists. The latter are in short supply, especially outside cities and especially for children and adolescents. Some insurance plans discourage such care, and some psychiatrists do not accept insurance. Maybe keeping patients in the dark about the ineffectiveness of antidepressants, which for many are their only hope, is a kindness.
Or maybe not. As shown by the explicit criticism of drug companies by the authors of the recent JAMA paper, more and more scientists believe it is time to abandon the “don’t ask, don’t tell” policy of not digging too deeply into the reasons for the effectiveness of antidepressants. Maybe it is time to pull back the curtain and see the wizard for what he is. As for Kirsch, he insists that it is important to know that much of the benefit of antidepressants is a placebo effect. If placebos can make people better, then depression can be treated without drugs that come with serious side effects, not to mention costs. Wider recognition that antidepressants are a pharmaceutical version of the emperor’s new clothes, he says, might spur patients to try other treatments. “Isn’t it more important to know the truth?” he asks. Based on the impact of his work so far, it’s hard to avoid answering, “Not to many people.”
With Sarah Kliff
Find this article at http://www.newsweek.com/id/232781
who can’t relate to this story?
An older, tired-looking dog wandered into my yard. I could tell from his collar and well-fed belly that he had a home and was well taken care of.
He calmly came over to me, I gave him a few pats on his head; he then followed me into my house, slowly walked down the hall, curled up in the corner and fell asleep.
An hour later, he went to the door, and I let him out..
The next day he was back, greeted me in my yard, walked inside and resumed his spot in the hall and again slept for about an hour. This continued off and on for several weeks.
Curious I pinned a note to his collar: ‘I would like to find out who the owner of this wonderful sweet dog is and ask if you are aware that almost every afternoon your dog comes to my house for a nap.’
The next day he arrived for his nap, with a different note pinned to his collar: ‘He lives in a home with 6 children, 2 under the age of 3 – he’s trying to catch up on his sleep. Can I come with him tomorrow?’
“What me feel guilty?” (male vs. female capacities for guilt)
Dr. Weeks’ Comment: Consider the findings: men feel less guilt than women.
Now consider that in light of the fact that women have a much higher incidence of auto-immune illnesses of all kinds. (These are illnesses where the immune cells which should be attacking things penetrating from outside, instead get confused and attack your own cells). Auto-immunity is self attacking self and, like friendly fire in a combat zone, the problem is caused by self against the self.
Now we have a hint: women feel more guilt than men.
In the 1960, the field of (take a deep breath for this one!) psychoneuroimmunology was developed stating that the mind (psycho) talked with the immune system (your defenses) via the neurological system (neuro) – psychoneuroimmunology was the science demonstrating mind-body medicine.
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So, what do you suppose your (old, persistent, chronic, unreasonable, debilitating) sense of guilt is doing to your ability to fight off cancer cells?
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Shed that guilt (and reorient your behavior) with the elegant insights of “CorThot” , corrective thought processes, taught at the Weeks Clinic for Corrective Medicine and Psychiatry.
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Men Feel Less Guilt, Study Suggests
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ScienceDaily (Jan. 26, 2010) — Although changing social and cultural contexts mean guilt has less power today than it once did, a new study has shown that in the West this emotion is “significantly higher” among women. The main problem, according to the experts, is not that women feel a lot of guilt (which they do), but rather that many males feel “too little.”
“Our initial hypothesis was that feelings of guilt are more intense among females, not only among adolescents but also among young and adult women, and they also show the highest scores for interpersonal sensitivity,” says Itziar Etxebarria, lead author of the study and a researcher at the University of the Basque Country (UPV/EHU).
The research, published in the Spanish Journal of Psychology, was carried out using a sample from three age groups (156 teenagers, 96 young people and 108 adults) equally divided between males and females. The team of psychologists asked them what situations most often caused them to feel guilt. They also carried out interpersonal sensitivity tests — the Davis Empathetic Concern Scale, and a questionnaire on Interpersonal Guilt, created purposely for this study.
When it came to comparing the measurements of intensity of habitual guilt of these groups, the researchers saw that this score was significantly higher for women, in all three age groups. “This difference is particularly stark in the 40-50-year-old age group,” points out Etxebarria.
The data also suggest that female teenagers and young women have higher scores than males of the same age. “This is caused by certain educational practices, which demand more of females, and which are sometimes still in use despite belief to the contrary,” claims the scientist.
The authors also found gender differences — similar to those noted for habitual guilt — in the two indices of interpersonal sensitivity, although in the 40-50 age bracket the men’s levels came closer to women’s.
The interpersonal sensitivity of men (especially those aged between 25-33) is “comparatively low.” The experts say a lack of sensitivity could lead to absence or excessive weakness of certain kinds of guilt, such as empathetic guilt, which could be beneficial for interpersonal relationships and for the individual.
Types of guilt
The most common forms of guilt are related to situations where we cause harm to others. Stemming from this, it is normal that this arouses feelings of empathy for the people we may have harmed, which tend to turn into feelings of guilt when we recognise that we are responsible for their suffering.
A previous study, also headed by Itziar Etxebarria, analyses people’s experiences of guilt, differentiating two components — one of these being empathetic (sorrow for the person we have harmed in some way) and the other anxious-aggressive (unease and contained aggression).
The anxious-aggressive kind of guilt is more common in people who have been raised in a more blame-imposing environment, and who are governed by stricter rules about behaviour in general and aggression in particular. “It seems obvious that this component will be more intense among women, and especially in older women,” says Etxebarria.
The greater presence of this component among women, above all those aged between 40 and 50, explains the marked differences in the intensity of habitual guilt in this age group, “just at the age when males move towards females in the two indices of interpersonal sensitivity analyzed,” she explains.
“Educational practices and a whole range of socialising agents must be used to reduce the trend towards anxious-aggressive guilt among women and to strengthen interpersonal sensitivity among men,” concludes the researcher.
Biotherapeutic Drainage
What is Bio-Therapeutic Drainage?
Many of the patients at the Weeks Clinic have the opportunity to experience the therapy of “biotherapeutic drainage” in our practice. A definition for “drainage remedies” states that they “are remedies which promote the excretory functions of a particular organ or organ system”. We use many remedies to effect drainage including drinking good water, sleep and regular exercise. In addition, we sometimes recommend UNDA homeopathic remedies to help drain target tissues or toxins so that they can function better.
The reason this biotherapeutic drainage is necessary can be compared to what you need to do before painting your house. Prior to painting your color of choice, you must wash the walls, repair the holes and then prepare the surface to receive the paint. If you paint the wall before removing impurities, the paint will soon begin to peel and will likely have to be redone before long. The same is true in healing the body. If you do not stack the cards in favor of health, the gains will only be short-lived. This is why drainage is essential to ALL health programs to help restore your body and vitality to what you want it to be. Drainage removes toxins so that the tissues can regenerate and be healthy.
How does Drainage work?
Think of drainage as the process of detoxifying the body by opening the routes of elimination (these are called “emunctories”) and discharging the toxic accumulations. These drainage routes (or emunctories as they were historically called) are separated into two categories: primary, which includes most of the abdominal organs (liver, kidney, intestines, lungs, stomach and pancreas) and secondary, which includes the other naturally existing routes of elimination such as the skin, mucus membranes, nose and genitals. Some people are ill because their natural routes of elimination may not be active and functioning at all times leading to an unnatural accumulation of toxins. These toxins in the body may be considered to be the cause of many different symptoms and diseases. That is to say that your present health concerns may be a result of toxic accumulations in your tissues.
To better understand the role of these UNDA remedies, consider the importance of opening the windows BEFORE your do a big spring house cleaning. You not only want to sweep up the mess but you want good air circulation so that the dust isn’t simply swept up into the air in one room only to settle in the corner of another room! I like to remind people that the Chinese doctors have a saying; “Do not lock the robber in the house.” This means, do not suppress the body’s detoxifying efforts with suppressive medicines. Imagine you have a robber (a disease symptom) in your attic (headache). The UNDA remedies “open the front door” so that the diseased imbalance, the “robber” can be pushed out and the body can be cleansed. Often however, rather than go out the front door, the robber will scoot into the bathroom (headache becomes another symptom like cough or sinus problem). Now we have to secure the attic and drag the robber out of the bathroom – again hoping he will scoot out the front door. This process may be easy or difficult. We need to consult after each set of UNDA remedies in order that we can determine where the robber is in your house. (Hopefully he will leave easily!)
What is a symptom?
It is a natural healing gesture. The body’s efforts to heal itself are expressed in symptoms. Imagine, for example, young Billy and Johnny both have ear infections but Billy has a fever while Johnny has no fever. Tell me, which is the sicker child? The answer is Johnny. Why would I say that? The reason is that Billy is getting better while Johnny is not responding to the infection. His system is more apathetic. A fever is (up to a certain degree!) a therapeutic remedy for the infection because bugs can’t live over a certain temperature while we can. A fever is our way of cleaning house. However, too much of a good thing can be a problem and so too can a symptom be a problem if it goes too far. For example, too high a fever can damage the neurological system of a child (as what happened with Helen Keller.)
A health care practitioner may have told you in the past that you were having a “healing crisis” in response to a remedy but we now know that this discomfort is unnecessary if UNDA biotherapeutic drainage occurs first. Do call the Weeks Clinic if you feel you are having a difficult time with a “healing crisis”.
Michel Bouko Levy of Marseilles, France, a medical doctor and a Drainage practitioner gives this explanation of Drainage: “Cleaning and fortifying of the body is maintained by the emunctories. In most cases you need to help and stimulate the organs touched by chronic disease. This is drainage.” Thus Drainage is involved not only in helping to eliminate toxic accumulation but also serves to stimulate the proper function of organs in order to improve the patients overall health.
The most complete writings on Drainage are available only in French with the best-known books written jointly by medical doctors G. Gueniot and C. Deplanque. They believe that the accumulation of toxins can be a factor in acute and chronic illness, genetic weaknesses, and chronic disease and create blockages to therapeutic treatment. In these texts, the doctors clearly outline the necessity of Drainage, as well as the actions of individual remedies in the UNDA Numbered Compounds, which are the low potency combinations popular in Drainage and used extensively in our office.
Once there has been the gentle elimination of toxins, (the walls have been washed and repaired using our painting analogy), other therapeutics are then available for use to help you achieve and maintain a level of optimal health. That is why during the beginning treatments you receive at our office, we will often utilize Drainage remedies, specifically the UNDA numbers, to start the process of cleansing and clearing your tissues of toxic accumulations which will help you on your path to a higher level of health.
How to take UNDA Number remedies.
Unless otherwise instructed:
Take 7 drops from each UNDA bottle first thing in the morning and last thing at night. Take the remedies sequentially meaning a) take one after the other and b) take the number from lowest to highest in order).
Take the first 7 drops from one bottle DIRECTLY on the tongue and hold in mouth for the count of 30 then swallow and take the next bottles in the same manner. Alternatively, you can put drops sequentially onto a plastic (non-metallic) spoon and then place them on the tongue and hold for the count of 30. The least preferable way to take the UNDA numbers is to put the 7 drops in a small amount (1 oz) of distilled water and take that liquid on the tongue where it is held for maximal absorption for the count of 30. Do NOT take all the drops from each bottle at the SAME time in the same 1 oz of water.
How will I remember to do all this?
HINT: Leave the bottles beside your bed on your bedside table and take 7 drops of each bottle sequentially the very first thing in the morning and the very last thing at night. Used in this manner the bottles last exactly 3 weeks. Therefore, you are encouraged to take the remedies for 3 weeks (until they are used up) then schedule to see Dr. Weeks for brief monthly follow-up visits in order to fine-tune the remedies for optimum drainage. Typically there will be a new series of UNDAs given to move the drainage further along or to address other tissue bloackages.
New lease vs mid-life crisis. Gotta love this option!
How to Live Your Life Twice: Psychologist Busts a Myth and Offers Tips to Counter a Mid-Life Crisis
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ScienceDaily (Jan. 22, 2010) — Elliot Jacques coined the term “mid-life crisis” 40 years ago, when the average lifespan was 70 and “mid-life” came at age 35. Individuals could expect their quality of life to decline from that point forward, Jacques argued, so some extreme reactions to encroaching mortality were to be expected, such as having extra-marital affairs and buying a Corvette.
Not any more, says Prof. Carlo Strenger of Tel Aviv University’s Department of Psychology. In an article co-authored with the Israeli researcher Arie Ruttenberg for the Harvard Business Review last year, and another in the journal Psychoanalytic Psychology, Prof. Strenger posits that the mid-life years are the best time of life to flourish and grow.
Citing research based on empirical evidence and studies from the field, Prof. Strenger says that adult lives really do have second acts.
“Somehow this line has been drawn around the mid and late 40s as the time for a mid-life crisis in our society,” says Prof. Strenger. “But as people live longer and fuller lives, we have to cast aside that stereotype and start thinking in terms of ‘mid-life transition’ rather than ‘mid-life crisis.’” He dismisses the prevailing myth that reaching the years between the 40s and the early 60s means adapting to diminished expectations, both internally and from society.
Thirty-five years of learning
“If you make fruitful use of what you’ve discovered about yourself in the first half of your life,” Dr. Strenger argues, “the second half can be the most fulfilling.”
Most people make many of their most important life decisions before they really know who they are, he says. By age 30, most Americans have already married, decided where to live, bought their first home, and chosen their career. “But at 30, people still have the better part of their adult years ahead of them,” Prof. Strenger says.
The good news is that extended life expectancy, better health practices, education, and a greater emphasis on emotional self-awareness and personal fulfilment have reversed the chances that one will have a mid-life crisis. Neurological research has also disproved the notion that the brain deteriorates after 40. “A rich and fruitful life after 50 is a much more realistic possibility,” he says.
Four tips to avoid a mid-life crisis
How can you transition smoothly through the best years of your life?
“First, and most important,” Prof. Strenger suggests, “invest some sincere thought in the fact that you have more high-quality adult years ahead of you than behind you. Realize what that means in planning for the future.”
Second, he says, think about what you’ve learned about yourself so far. Consider what you’ve found to be your strongest abilities and about the things that most please you, not what your parents or society expected of you when you were young.
Third, don’t be afraid of daunting obstacles in making new changes. “Once you realize how much time you have left in this world, you will find it is profoundly worth it to invest energy in changing in major ways. A new career choice is not an unreasonable move, for example,” Dr. Strenger advises. And you may now have a better chance of succeeding, because your choices will be based on knowledge and experience, rather than youthful blind ambition.
Finally, Prof. Strenger says it is absolutely necessary to make use of a support network. Individuals should discuss major life changes with their colleagues, friends and families. The people who know you best will best be able to support you in the new directions you want to take, he advises, and a professional therapist or counsellor can also be helpful.
Prof. Stenger’s 2004 book on the subject is The Designed Self, published by The Analytic Press. His latest book, Critique of Global Unreason: Individuality and Meaning in the Global Age, will be published by Palgrave this year.
Calcium Channel blockers block Parkinson’s disease development
Dr. Weeks’ Comment: Nice to chance upon these off-label, non-FDA approved benefits.
Common Heart Medications May Also Protect Against Parkinson’s Disease, Study Finds
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ScienceDaily (Jan. 23, 2010) — UCLA researchers have discovered that a specific type of medication used to treat cardiovascular conditions such as hypertension, angina and abnormal heart rhythms may also decrease the risk of developing Parkinson’s disease.
In the first large-scale population-based study of its kind, Dr. Beate Ritz, professor of epidemiology at the UCLA School of Public Health, in collaboration with researchers from the Danish Cancer Society, found that a specific sub-class of dihydropyridine cardiovascular medications was associated with a 26 to 30 percent decrease in the risk of Parkinson’s. The findings appear in an upcoming print edition of the journal Annals of Neurology and are currently available online.
Parkinson’s disease, the second most common neurodegenerative disorder in the United States, is characterized by a loss of voluntary movement, the result of the death of neurons in an area of the brain known as the substantia nigra, which is involved in movement control.
Neurons of the substantia nigra that are important in Parkinson’s are known to have calcium channels in their cell membranes. These calcium channels are structures that allow the cells to transmit electrical charges to each other. Muscles like the heart also contain calcium channels, and the opening of the calcium channel in the heart causes a muscle contraction.
Because cardiac and smooth muscles depend on calcium channels to function, substances that block or modify their action have been used for decades to treat hypertension, angina and arrhythmia in humans. In the heart, the dihydropyridine class of drugs acts on a specific type of channel known as the L-type. Within the dihydropyridine class is a sub-class of medications that can cross the blood-brain barrier, giving them the potential to act on neurons in the brain. It turns out that the neurons that degenerate in Parkinson’s disease also contain a type of L-type calcium channel.
For their study, the researchers turned to Denmark, a country that provides its population with free and equal access to health care. Each health service–related event and prescription is recorded in a database using a unique personal identification number assigned to each Danish citizen at birth or the granting of citizenship.
Using this database, Ritz and her colleagues conducted a population-based, case-control study to evaluate medical histories and medication usage for 1,931 Parkinson’s patients and 9,651 unaffected subjects for a period up to 12 years prior to the diagnosis of Parkinson’s.
By separately evaluating different classes of a variety of drugs prescribed for hypertension, researchers found that only calcium channel blockers of the dihydropyridine sub-class that cross the blood-brain barrier were associated with a significant decrease in the risk of developing Parkinson’s. Other classes of anti-hypertension medications, and dihydropyridines that were not able to cross the blood-brain barrier, were not associated with a lower risk.
“The key was to consider the mode of action of these drugs and whether or not they cross the blood-brain barrier,” Ritz said. “Some do and some don’t. We found that of all the hypertension medications taken by our study subjects, only the subset of dihydropyridine class drugs that cross into the brain, where they might be able to act on the calcium channels of neurons, provided a protective effect. This supports the idea that the mode of action of a given drug and whether it penetrates into the brain are important factors when studying drugs for neuroprotection.”
Although the results are intriguing, Ritz cautions that more detailed studies and a more complete understanding of the biology underlying the action of these medications in the brain are warranted, particularly as some Parkinson’s patients can suffer from low blood pressure, a condition which could be worsened by taking calcium channel blockers inappropriately.
In addition to Ritz, study authors included Shannon L. Rhodes and Lei Qian of UCLA, Dr. Eva Schernhammer of Brigham and Women’s Hospital and Harvard Medical School, and Dr. Jorgen Olsen and Dr. Soren Friis of the Danish Cancer Society. The authors declare no conflict of interest.
The study was supported by a grant from the U.S. National Institute of Environmental Health Sciences. Dr. Ritz also receives support from the U.S. National Institute of Neurological Disorders and Stroke, as part of the Center for the Study of Parkinson’s Disease in the UCLA Department of Neurology.
The UCLA School of Public Health is dedicated to enhancing the public’s health by conducting innovative research, training future leaders and health professionals, translating research into policy and practice, and serving local, national and international communities.
Stress response and diabetes
Dr. Weeks’ Comment: Known to clinicians since diabetes was first described, now the biochemistry is more clearly described.
Stress Peptide and Receptor May Have Role in Diabetes
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ScienceDaily (Jan. 23, 2010) — The neuropeptide corticotropin-releasing factor (CRF) makes cameo appearances throughout the body, but its leading role is as the opening act in the stress response, jump-starting the process along the hypothalamus-pituitary-adrenal (HPA) axis. Researchers at the Salk Institute for Biological Studies have found that CRF also plays a part in the pancreas, where it increases insulin secretion and promotes the division of the insulin-producing beta cells.
These findings, which will be published in this week’s edition of the Proceedings of the National Academy of Sciences, may provide new insights into diabetes, particularly type 1, as well as suggest novel targets for drug intervention.
The pancreas is both an exocrine gland, producing enzymes that are secreted into the gut to help digest food, and an endocrine gland, secreting a cocktail of hormones, including insulin, which is manufactured by beta cells that reside in endocrine islets within the “sea” of exocrine tissue.
Plasma glucose increases after a meal, and, in healthy people, insulin is secreted to instruct the body to take up the glucose and store it in the liver or muscles to bring blood glucose levels down. In diabetes, the glucose metabolism is misregulated: In type 1 diabetes, the immune system attacks the beta cells, which then are unable to produce sufficient insulin. In type 2 diabetes, the most prevalent form of the condition, patients have sufficient beta cells, which still secrete insulin, but the body is unable to respond correctly, and plasma glucose remains constantly elevated.
CRF, in concert with its receptor, CRFR1, has long been known as key to the body’s response to various forms of stress, but the pair is also involved in many more processes, including a number with direct ties to metabolism. As early as the 1980s, studies had suggested that pancreas cells can respond to CRF, but the few limited observations did not demonstrate the nature of the response or which cells or receptors were involved.
Prompted by evidence suggesting that CRF has an effect on beta cells, a team led by first author Mark O. Huising, Ph.D., and senior author Wylie Vale, a professor and head of the Salk Institute’s Clayton Foundation Laboratories for Peptide Biology and holder of the Helen McLoraine Chair in Molecular Neurobiology, sought to verify that effect and determine its underlying mechanism. Working with cell lines, pancreatic islets from mice and human donors, as well as mouse models, Vale’s lab, which discovered CRF in the early 1980s, conducted a series of experiments that collectively demonstrated the presence and actions of CRFR1 in the islets.
“We found that beta cells in the pancreas actually express the CRFR1 receptor,” explains Huising, a postdoctoral fellow in the Clayton Foundation Laboratories. “And once we had established the presence of CRFR1 in the islet, we started filling in the blanks, trying to learn as much about pancreatic CRFR1 as we could.”
What they discovered was that beta cells exposed to CRF, one of the peptides that activate the CRFR1 receptor, can respond in at least two ways. First, they increase their secretion of insulin if they simultaneously encounter high levels of glucose. The higher the levels of glucose, the more insulin they release in response to CRF and the more rapidly blood levels of glucose are reduced.
Working in collaboration with a group at the Panum Institute in Copenhagen, the researchers went on to establish that beta cells exposed to CRF also activate the MAPK pathway, which is a key pathway implicated in beta cell division. Mature, differentiated beta cells can divide, albeit slowly, but if they are exposed to a molecule that will activate the CRFR1 receptor, they will start to divide somewhat more rapidly, which is especially relevant in the context of type 1 diabetes.
“The thinking is that type 1 diabetic patients usually have a few beta cells left in their pancreas, so those remaining beta cells, though not enough to control glucose levels, may seed a population of regenerating beta cells,” Huising says.
While a few gut peptides termed incretins, which are currently used to increase insulin secretion in patients, have also been shown to accelerate beta cell division, the Vale group’s findings suggest an incretin-like effect for a peptide normally associated with the stress response.
“Anything we can find out that will drive proliferation or the division of beta cells is very interesting, and being able to stimulate beta cells to divide a little faster may be part of a solution that may ultimately, hopefully, allow management of type 1 diabetes, ” Vale says. “But because it is an autoimmune condition, making the cells divide won’t be enough. That is why researchers are working hard to solve the problem of destruction of beta cells.”
These results emphasize the complexity of metabolic disorders and identify novel targets to treat diabetes and obesity. One of the key questions remaining for Vale and his group is under what conditions the pancreatic CRFR1 system is utilized and gets activated.
“We know what it can do, but we don’t fully understand the physiological circumstances under which it does it,” Vale says. “This receptor appears to be important within the pancreas. What we haven’t determined, though, is whether this is a stress-linked phenomenon because we still have questions regarding the source of the hormone that acts on pancreatic CRFR1. We would like to know where it is coming from to determine if it is released in stressful conditions to bring about the effects we observed.”
This work was partly supported by grants from the National Institute of Diabetes and Digestive and Kidney Diseases, the Juvenile Diabetes Research Foundation, the Clayton Medical Research Foundation, Inc., and the Leona M. & Harry B. Helmsley Charitable Trust. Researchers who also contributed to the work include Talitha van der Meulen, Joan M. Vaughan, Masahito Matsumoto, Cynthia J. Donaldson, and Hannah Park of the Salk Institute, and Nils Billestrup of the Panum Institute, University of Copenhagen, Denmark.


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