Guest guest Posted January 13, 2006 Report Posted January 13, 2006 Hi all. At the risk of giving Tony a stroke (:-) (sorry, Tony!), here is something I just posted on the Experimental list, in response to some prodding by some folks that are known over here, too, I think: Hi, Nelly, Sue, Sheila and the group. Thanks very much for posting this. It has really stimulated my thinking about why Lyme disease is symptomatologically so similar to CFS. First, some review. As we all know, it has been terribly difficult to do the differential diagnosis between Lyme disease and CFS. The symptoms overlap considerably and even the best of the lab tests do not have the sensitivity and selectivity we would all like to see. Symptoms are manifestations of the pathophysiology of a disease, i.e. how the functioning of the body of the sick person is abnormal as a result of the disease. Therefore, if we see that the symptoms of two diseases are very similar, we should suspect that they must have some aspects of pathophysiology in common. Pathophysiology is intimately involved with abnnormal gene expression in the cells of the sick person, because gene expression is a reflection of how the cell is conducting its business, and the misconduct of the business of the cell is pathophysiology. Because of this, I was quite struck some time ago when Sheila reported that Dr. Gow said in a recent talk that he had found that the gene expression pattern in peripheral blood mononuclear cells (monocytes and lymphocytes) is " identical " in CFS and Lyme disease. This implies that the pathophysiology of these two disorders in these cell types is the same. (Note that we can't say anything about what's going on in other cell types in the body in these two disorders from this work. There are no doubt different things that happen in other cell types between Lyme and CFS, and so this is not saying that the two are identical in every way. But in these mononuclear cells, this is saying that the pathophysiology of the two is the same.) As you know, I am of the firm view that in at least a large subset of CFS there is glutathione depletion. In another subset, it looks as though there are genetic variations in the enzymes that make use of glutathione (glutathione transferases and glutathione peroxidases), and the results in terms of pathophysiology are much the same, even though the first group has low glutathione, and the second group may have elevated glutathione. In either subset, the people do not have normal glutathione function. As you also know, based on the work by the DAN! project in autism, I now believe that the basic abnormalities in the biochemistry in autism and CFS are the same or similar. The glutathione depletion brings down the methylation cycle, and a vicious circle develops that produces a host of problems because of the depletion of SAMe (the main methylator in the body), cysteine, glutathione, taurine and sulfate. So, if the pathophysiology of CFS involves the inability to use glutathione effectively, whether because glutathione itself is depleted or because the enzymes that use it have below-normal activity, and if the pathophysiology of CFS and Lyme are indeed identical, then it follows that there must be a problem with the glutathione system in Lyme disease as well. With that introduction, let me now review some things I found in the literature, including the paper to which you (Nelly) drew my attention. I will give the PubMed ID numbers for the references that support these statements. (PMID 1477785) First, in in vitro experiments it has been found that the growth of Borrelia burgdorferi (Bb), the bacterium that causes Lyme disease, in the culture medium is decreased by 80% if cysteine is not present in the culture medium. (PMID 147785) It has been found that cysteine diffuses passively into Bb, i.e. there is no active transporter protein that pumps it into the bacterium. (PMID 1477785) It has been found that Bb incorporates cysteine in three of its proteins. One has a mass of 22 kilodaltons. The others have been identified as outer surface protein A (Osp A), with a mass of 30 kilodaltons, and outer surface protein B (Osp , with a mass of 34 kilodaltons. (PMID 1639493) Bb produces a water-soluble hemolysin. This is a substance that is able to break down red blood cells and release their hemoglobin. It is likely that this substance incorporates a cyteine residue, and this cysteine must be in its reduced state in order for the hemolysin to break down red blood cells. (PMID 16390443) Bb does not produce glutathione, which is the principle non-protein thiol (substance containing an S-H or sulfhydryl group) in human cells. Instead, Bb cells have a high concentration (about 1 millimolar) of reduced coenzyme A (CoASH). Bb also produces a CoA disulfide reductase enzyme that has the responsibility to keep CoASH in its chemically reduced form, so it can function. This enzyme is in turn reduced by NADH (reduced nicotinic acid diethylamide), which is reduced by metabolism of Bb's fuel. (This is analogous to glutathione reductase in human cells, which requires NADPH, which in turn is reduced by the pentose phosphate shunt on glycolysis, which metabolizes glucose as fuel.) In Bb, CoASH is able to reduce hydrogen peroxide, as glutathione peroxidase, together with glutathione, do in human cells. (PMID 11687735) It has been found that when people were infected with Bb and had the characteristic erythema migrans (bulls-eye rash), the total thiol and glutathione in blood analysis were found to be significantly decreased. The activity of glutathione peroxidase was also significantly decreased. Malondialdehyde, a marker for lipid peroxidation, was significantly elevated. After antibiotic treatment with amoxycillin, which eliminated the acute symptoms of Lyme disease, both the total thiol and the glutathione levels recovered to normal. However, the glutathione peroxidase activity was still significantly below normal, and the malondialdehyde remained significantly elevated. This suggested that Bb lowers the thiol and glutathione levels in its host, and inhibits the activity of glutathione peroxidase. I think this also suggests that while antibiotic therapy eliminates acute Lyme symptoms and brings recovery of glutathione levels, the Bb infection may still be suppressing the activity of glutathione peroxidase, and this may be a mechanism involved in long-term (or chronic or post-) Lyme disease. One way in which a pathogen can inhibit its host's glutathione peroxidase activity is to hoard selenium, because this is a cofactor for that enzyme. You may recall that that is the mechanism that Prof. Harry has hypothesized for HIV and AIDS (http://www.hdfoster.com). I could not find any reference in the literature connecting Bb and selenium, and I don't know whether anyone has looked at that. Have any of you who are positive for Lyme had your selenium level measured? It seems pretty clear that Bb uses cysteine and that it depletes glutathione and total thiol (which includes cysteine and protein thiols as well as glutathione) in its host, at least in the acute phase. It also suppresses the activity of glutathione peroxidase, but I'm not sure whether it does it by lowering the host's selenium level, or by some other means. This suppression appears as though it could be chronic. I think there is a good chance that this lowering of glutathione and/or suppressing of the activity of glutathione peroxidase could very well be the explanation for the similarities in symptomatology and the " identical " gene expression in the peripheral blood mononuclear cells in CFS and Lyme disease. It may also be that a host whose glutathione has been depleted by other factors may be more vulnerable to developing Lyme disease, once inoculated with Bb. I am speculating a little here, but this is exciting! If this is true, what are the consequences for treatment of long- term Lyme disease, the subject that Sue raised? I think this remains to be seen, but it does suggest that the DAN! autism treatments may have a contribution to make in the treatment of long- term Lyme disease as I've suggested that they also do in the treatment of CFS. Before we can reach such a conclusion, though, I think it behooves us to get more data on glutathione levels, selenium levels, and glutathione peroxidase activity in people with positive tests for long-term Lyme disease, as well as some experience trying these treatments as part of the treatment of long- term Lyme disease. I'm not suggesting that they would replace other treatments for Lyme disase, such as antibiotic therapy, detoxing of neurotoxins, or other approaches to deal with the bacteria themselves or do deal with particular characteristics of Lyme disease that are not found in autism or CFS. Nevertheless, these treatments might make a significant impact. Time will tell. Thanks for rattling my cage about this, Sheila, Sue and Nelly. Rich Quote
Guest guest Posted January 13, 2006 Report Posted January 13, 2006 Sorry, a little error: NADH is actually reduced nicotinamide adenine dinucleotide. Sorry about that. Rich > > Hi all. > > At the risk of giving Tony a stroke (:-) (sorry, Tony!), here is > something I just posted on the Experimental list, in response to > some prodding by some folks that are known over here, too, I think: > > Hi, Nelly, Sue, Sheila and the group. > > Thanks very much for posting this. It has really stimulated my > thinking about why Lyme disease is symptomatologically so similar to > CFS. > > First, some review. As we all know, it has been terribly difficult > to do the differential diagnosis between Lyme disease and CFS. The > symptoms overlap considerably and even the best of the lab tests do > not have the sensitivity and selectivity we would all like to see. > > Symptoms are manifestations of the pathophysiology of a disease, > i.e. how the functioning of the body of the sick person is abnormal > as a result of the disease. Therefore, if we see that the symptoms > of two diseases are very similar, we should suspect that they must > have some aspects of pathophysiology in common. > > Pathophysiology is intimately involved with abnnormal gene > expression in the cells of the sick person, because gene expression > is a reflection of how the cell is conducting its business, and the > misconduct of the business of the cell is pathophysiology. > > Because of this, I was quite struck some time ago when Sheila > reported that Dr. Gow said in a recent talk that he had found that > the gene expression pattern in peripheral blood mononuclear cells > (monocytes and lymphocytes) is " identical " in CFS and Lyme disease. > This implies that the pathophysiology of these two disorders in > these cell types is the same. (Note that we can't say anything > about what's going on in other cell types in the body in these two > disorders from this work. There are no doubt different things that > happen in other cell types between Lyme and CFS, and so this is not > saying that the two are identical in every way. But in these > mononuclear cells, this is saying that the pathophysiology of the > two is the same.) > > As you know, I am of the firm view that in at least a large subset > of CFS there is glutathione depletion. In another subset, it looks > as though there are genetic variations in the enzymes that make use > of glutathione (glutathione transferases and glutathione > peroxidases), and the results in terms of pathophysiology are much > the same, even though the first group has low glutathione, and the > second group may have elevated glutathione. In either subset, the > people do not have normal glutathione function. > > As you also know, based on the work by the DAN! project in autism, I > now believe that the basic abnormalities in the biochemistry in > autism and CFS are the same or similar. The glutathione depletion > brings down the methylation cycle, and a vicious circle develops > that produces a host of problems because of the depletion of SAMe > (the main methylator in the body), cysteine, glutathione, taurine > and sulfate. > > So, if the pathophysiology of CFS involves the inability to use > glutathione effectively, whether because glutathione itself is > depleted or because the enzymes that use it have below-normal > activity, and if the pathophysiology of CFS and Lyme are indeed > identical, then it follows that there must be a problem with the > glutathione system in Lyme disease as well. > > With that introduction, let me now review some things I found in the > literature, including the paper to which you (Nelly) drew my > attention. I will give the PubMed ID numbers for the references > that support these statements. > > (PMID 1477785) First, in in vitro experiments it has been found > that the growth of Borrelia burgdorferi (Bb), the bacterium that > causes Lyme disease, in the culture medium is decreased by 80% if > cysteine is not present in the culture medium. > > (PMID 147785) It has been found that cysteine diffuses passively > into Bb, i.e. there is no active transporter protein that pumps it > into the bacterium. > > (PMID 1477785) It has been found that Bb incorporates cysteine in > three of its proteins. One has a mass of 22 kilodaltons. The > others have been identified as outer surface protein A (Osp A), with > a mass of 30 kilodaltons, and outer surface protein B (Osp , with > a mass of 34 kilodaltons. > > (PMID 1639493) Bb produces a water-soluble hemolysin. This is a > substance that is able to break down red blood cells and release > their hemoglobin. It is likely that this substance incorporates a > cyteine residue, and this cysteine must be in its reduced state in > order for the hemolysin to break down red blood cells. > > (PMID 16390443) Bb does not produce glutathione, which is the > principle non-protein thiol (substance containing an S-H or > sulfhydryl group) in human cells. Instead, Bb cells have a high > concentration (about 1 millimolar) of reduced coenzyme A (CoASH). > Bb also produces a CoA disulfide reductase enzyme that has the > responsibility to keep CoASH in its chemically reduced form, so it > can function. This enzyme is in turn reduced by NADH (reduced > nicotinic acid diethylamide), which is reduced by metabolism of Bb's > fuel. (This is analogous to glutathione reductase in human cells, > which requires NADPH, which in turn is reduced by the pentose > phosphate shunt on glycolysis, which metabolizes glucose as fuel.) > In Bb, CoASH is able to reduce hydrogen peroxide, as glutathione > peroxidase, together with glutathione, do in human cells. > > (PMID 11687735) It has been found that when people were infected > with Bb and had the characteristic erythema migrans (bulls-eye > rash), the total thiol and glutathione in blood analysis were found > to be significantly decreased. The activity of glutathione > peroxidase was also significantly decreased. Malondialdehyde, a > marker for lipid peroxidation, was significantly elevated. After > antibiotic treatment with amoxycillin, which eliminated the acute > symptoms of Lyme disease, both the total thiol and the glutathione > levels recovered to normal. However, the glutathione peroxidase > activity was still significantly below normal, and the > malondialdehyde remained significantly elevated. This suggested > that Bb lowers the thiol and glutathione levels in its host, and > inhibits the activity of glutathione peroxidase. > > > I think this also suggests that while antibiotic therapy eliminates > acute Lyme symptoms and brings recovery of glutathione levels, the > Bb infection may still be suppressing the activity of glutathione > peroxidase, and this may be a mechanism involved in long-term (or > chronic or post-) Lyme disease. > > One way in which a pathogen can inhibit its host's glutathione > peroxidase activity is to hoard selenium, because this is a cofactor > for that enzyme. You may recall that that is the mechanism that > Prof. Harry has hypothesized for HIV and AIDS > (http://www.hdfoster.com). I could not find any reference in the > literature connecting Bb and selenium, and I don't know whether > anyone has looked at that. Have any of you who are positive for > Lyme had your selenium level measured? > > It seems pretty clear that Bb uses cysteine and that it depletes > glutathione and total thiol (which includes cysteine and protein > thiols as well as glutathione) in its host, at least in the acute > phase. It also suppresses the activity of glutathione peroxidase, > but I'm not sure whether it does it by lowering the host's selenium > level, or by some other means. This suppression appears as though > it could be chronic. I think there is a good chance that this > lowering of glutathione and/or suppressing of the activity of > glutathione peroxidase could very well be the explanation for the > similarities in symptomatology and the " identical " gene expression > in the peripheral blood mononuclear cells in CFS and Lyme disease. > It may also be that a host whose glutathione has been depleted by > other factors may be more vulnerable to developing Lyme disease, > once inoculated with Bb. I am speculating a little here, but this > is exciting! > > If this is true, what are the consequences for treatment of long- > term Lyme disease, the subject that Sue raised? I think this > remains to be seen, but it does suggest that the DAN! autism > treatments may have a contribution to make in the treatment of long- > term Lyme disease as I've suggested that they also do in the > treatment of CFS. Before we can reach such a conclusion, though, I > think it behooves us to get more data on glutathione levels, > selenium levels, and glutathione peroxidase activity in people with > positive tests for long-term Lyme disease, as well as some > experience trying these treatments as part of the treatment of long- > term Lyme disease. I'm not suggesting that they would replace other > treatments for Lyme disase, such as antibiotic therapy, detoxing of > neurotoxins, or other approaches to deal with the bacteria > themselves or do deal with particular characteristics of Lyme > disease that are not found in autism or CFS. Nevertheless, these > treatments might make a significant impact. Time will tell. Thanks > for rattling my cage about this, Sheila, Sue and Nelly. > > Rich > Quote
Guest guest Posted January 14, 2006 Report Posted January 14, 2006 Rich Your wise beyond words.If I gave you constant IV's of toxic substances I would expect your genes to unwind improper strands of DNA.I think anyone that has done any type of investigation on there spine or feet will tell you they suffer bone spurs or a myriad of other problems that are starting to become clearer-which could pretty much determine SOMETHING IS mutating in your DNA.But the first step is to take away the toxic source not go out and blame the DNA. If you sat back and started looking at the simple facts of cfs in just basic block form, everything makes more sense, YOU RELY ON - DOCTORS GAVE HIM AN EVERYTHING'S NORMAL AND THEN YOU STEP UP TO THE PLATE FROM THERE AND GIVE US THIS DRIBBLE THAT IS 100% THE WRONG WAY OF GOING ABOUT THINGS IMO. My other gripe is that many HEALTHY people are having 10.000 dna processes occuring anyminute of the day to there body- we as toxic non healers probably run millions of constant dna repair processes any minute of the day and we just don't get repairs completed BECAUSE WE ARE NOT RECOVERING.The foolish researcher will ignore the obvious mess that's been caused in the blood stream and got to step 3 (glutathione and methylation) for me this is the huge rich V MISTAKE.I think step 1 make your blood like normal people's and make sure that you have the volume to repair all your injury sites. I actually thought dialysis may be the real deal, it's also hard to have a diseased heart muscle (low blood pressure) to WORK WITH. AGAIN GET YOUR ASS DOWN AND AROUND THE ACTUAL PEOPLE, LOOK CAREFULLY AT THERE HIGH INFLAMMATION LEVELS(REDNESS),THERE STRANGE RASHES RAISED RED BUMPS, NON DISCRIPT BODY RASHES, UNUSUAL ACNE PIMPLES, OBSERVE THERE WOUNDS AND HOW EASY THERE TOXIC SKIN BREAKS. JUST GET YOURSELF OFF THIS CRAP SHOOT FROM RESEARCH ARTICLES AND THINKING YOU KNOW US. YOU CAN'T FIX ANYTHING IN MY OPINION BY THEORISING WITHOUT ESTABLISHING IN YOUR OWN MIND WHAT THE CFS/FIBRO PERSON REALLY IS...I THINK YOU MAY ALSO FIND THE ENCEPHALITIS MAY COME FROM A LEAKING SPINAL FLUID THAT NEEDS MORE THAN CHELATION OF MERCURY FROM THE BRAIN, ESPECIALLY WHEN THE BRAIN IS EXPOSED TO THE ENVRONMENT SO EASILY FROM SUCH DEFECTS IN THE SINUSES(WORMHOLES INTO THE BRAIN). > > Hi all. > > At the risk of giving Tony a stroke (:-) (sorry, Tony!), here is > something I just posted on the Experimental list, in response to > some prodding by some folks that are known over here, too, I think: > > Hi, Nelly, Sue, Sheila and the group. > > Thanks very much for posting this. It has really stimulated my > thinking about why Lyme disease is symptomatologically so similar to > CFS. > > First, some review. As we all know, it has been terribly difficult > to do the differential diagnosis between Lyme disease and CFS. The > symptoms overlap considerably and even the best of the lab tests do > not have the sensitivity and selectivity we would all like to see. > > Symptoms are manifestations of the pathophysiology of a disease, > i.e. how the functioning of the body of the sick person is abnormal > as a result of the disease. Therefore, if we see that the symptoms > of two diseases are very similar, we should suspect that they must > have some aspects of pathophysiology in common. > > Pathophysiology is intimately involved with abnnormal gene > expression in the cells of the sick person, because gene expression > is a reflection of how the cell is conducting its business, and the > misconduct of the business of the cell is pathophysiology. > > Because of this, I was quite struck some time ago when Sheila > reported that Dr. Gow said in a recent talk that he had found that > the gene expression pattern in peripheral blood mononuclear cells > (monocytes and lymphocytes) is " identical " in CFS and Lyme disease. > This implies that the pathophysiology of these two disorders in > these cell types is the same. (Note that we can't say anything > about what's going on in other cell types in the body in these two > disorders from this work. There are no doubt different things that > happen in other cell types between Lyme and CFS, and so this is not > saying that the two are identical in every way. But in these > mononuclear cells, this is saying that the pathophysiology of the > two is the same.) > > As you know, I am of the firm view that in at least a large subset > of CFS there is glutathione depletion. In another subset, it looks > as though there are genetic variations in the enzymes that make use > of glutathione (glutathione transferases and glutathione > peroxidases), and the results in terms of pathophysiology are much > the same, even though the first group has low glutathione, and the > second group may have elevated glutathione. In either subset, the > people do not have normal glutathione function. > > As you also know, based on the work by the DAN! project in autism, I > now believe that the basic abnormalities in the biochemistry in > autism and CFS are the same or similar. The glutathione depletion > brings down the methylation cycle, and a vicious circle develops > that produces a host of problems because of the depletion of SAMe > (the main methylator in the body), cysteine, glutathione, taurine > and sulfate. > > So, if the pathophysiology of CFS involves the inability to use > glutathione effectively, whether because glutathione itself is > depleted or because the enzymes that use it have below-normal > activity, and if the pathophysiology of CFS and Lyme are indeed > identical, then it follows that there must be a problem with the > glutathione system in Lyme disease as well. > > With that introduction, let me now review some things I found in the > literature, including the paper to which you (Nelly) drew my > attention. I will give the PubMed ID numbers for the references > that support these statements. > > (PMID 1477785) First, in in vitro experiments it has been found > that the growth of Borrelia burgdorferi (Bb), the bacterium that > causes Lyme disease, in the culture medium is decreased by 80% if > cysteine is not present in the culture medium. > > (PMID 147785) It has been found that cysteine diffuses passively > into Bb, i.e. there is no active transporter protein that pumps it > into the bacterium. > > (PMID 1477785) It has been found that Bb incorporates cysteine in > three of its proteins. One has a mass of 22 kilodaltons. The > others have been identified as outer surface protein A (Osp A), with > a mass of 30 kilodaltons, and outer surface protein B (Osp , with > a mass of 34 kilodaltons. > > (PMID 1639493) Bb produces a water-soluble hemolysin. This is a > substance that is able to break down red blood cells and release > their hemoglobin. It is likely that this substance incorporates a > cyteine residue, and this cysteine must be in its reduced state in > order for the hemolysin to break down red blood cells. > > (PMID 16390443) Bb does not produce glutathione, which is the > principle non-protein thiol (substance containing an S-H or > sulfhydryl group) in human cells. Instead, Bb cells have a high > concentration (about 1 millimolar) of reduced coenzyme A (CoASH). > Bb also produces a CoA disulfide reductase enzyme that has the > responsibility to keep CoASH in its chemically reduced form, so it > can function. This enzyme is in turn reduced by NADH (reduced > nicotinic acid diethylamide), which is reduced by metabolism of Bb's > fuel. (This is analogous to glutathione reductase in human cells, > which requires NADPH, which in turn is reduced by the pentose > phosphate shunt on glycolysis, which metabolizes glucose as fuel.) > In Bb, CoASH is able to reduce hydrogen peroxide, as glutathione > peroxidase, together with glutathione, do in human cells. > > (PMID 11687735) It has been found that when people were infected > with Bb and had the characteristic erythema migrans (bulls-eye > rash), the total thiol and glutathione in blood analysis were found > to be significantly decreased. The activity of glutathione > peroxidase was also significantly decreased. Malondialdehyde, a > marker for lipid peroxidation, was significantly elevated. After > antibiotic treatment with amoxycillin, which eliminated the acute > symptoms of Lyme disease, both the total thiol and the glutathione > levels recovered to normal. However, the glutathione peroxidase > activity was still significantly below normal, and the > malondialdehyde remained significantly elevated. This suggested > that Bb lowers the thiol and glutathione levels in its host, and > inhibits the activity of glutathione peroxidase. > > > I think this also suggests that while antibiotic therapy eliminates > acute Lyme symptoms and brings recovery of glutathione levels, the > Bb infection may still be suppressing the activity of glutathione > peroxidase, and this may be a mechanism involved in long-term (or > chronic or post-) Lyme disease. > > One way in which a pathogen can inhibit its host's glutathione > peroxidase activity is to hoard selenium, because this is a cofactor > for that enzyme. You may recall that that is the mechanism that > Prof. Harry has hypothesized for HIV and AIDS > (http://www.hdfoster.com). I could not find any reference in the > literature connecting Bb and selenium, and I don't know whether > anyone has looked at that. Have any of you who are positive for > Lyme had your selenium level measured? > > It seems pretty clear that Bb uses cysteine and that it depletes > glutathione and total thiol (which includes cysteine and protein > thiols as well as glutathione) in its host, at least in the acute > phase. It also suppresses the activity of glutathione peroxidase, > but I'm not sure whether it does it by lowering the host's selenium > level, or by some other means. This suppression appears as though > it could be chronic. I think there is a good chance that this > lowering of glutathione and/or suppressing of the activity of > glutathione peroxidase could very well be the explanation for the > similarities in symptomatology and the " identical " gene expression > in the peripheral blood mononuclear cells in CFS and Lyme disease. > It may also be that a host whose glutathione has been depleted by > other factors may be more vulnerable to developing Lyme disease, > once inoculated with Bb. I am speculating a little here, but this > is exciting! > > If this is true, what are the consequences for treatment of long- > term Lyme disease, the subject that Sue raised? I think this > remains to be seen, but it does suggest that the DAN! autism > treatments may have a contribution to make in the treatment of long- > term Lyme disease as I've suggested that they also do in the > treatment of CFS. Before we can reach such a conclusion, though, I > think it behooves us to get more data on glutathione levels, > selenium levels, and glutathione peroxidase activity in people with > positive tests for long-term Lyme disease, as well as some > experience trying these treatments as part of the treatment of long- > term Lyme disease. I'm not suggesting that they would replace other > treatments for Lyme disase, such as antibiotic therapy, detoxing of > neurotoxins, or other approaches to deal with the bacteria > themselves or do deal with particular characteristics of Lyme > disease that are not found in autism or CFS. Nevertheless, these > treatments might make a significant impact. Time will tell. Thanks > for rattling my cage about this, Sheila, Sue and Nelly. > > Rich > Quote
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