Guest guest Posted February 22, 2012 Report Share Posted February 22, 2012 Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck?Cheers,-- Sent from my Palm Pre Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 No,LDN is my last resort before going under the knife. I hope I don't reach to that stage but with this disorder and difficulty in finding nutritious food at reasonable price in this country, you never know where you will end up in future. I have decided that I will never take Remicade or Humira or similar immuno-modulators, so this is the only one I am left with before the surgery. Plus, hardly any Gastroenterologists is really keen on prescribing it. It needs to be compounded and the dosing is pretty tricky.Hope this answers your question. Noel Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck?Cheers, -- Sent from my Palm Pre Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Noel, You might be interested in checking out the BodyEcology website. -Tammy Sent from my Kindle Fire Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Noel am sure u ve looked at gaps.me or even bought the book??? It sound like it would help u.. And uo little boy Sent from my iPod No,LDN is my last resort before going under the knife. I hope I don't reach to that stage but with this disorder and difficulty in finding nutritious food at reasonable price in this country, you never know where you will end up in future. I have decided that I will never take Remicade or Humira or similar immuno-modulators, so this is the only one I am left with before the surgery. Plus, hardly any Gastroenterologists is really keen on prescribing it. It needs to be compounded and the dosing is pretty tricky.Hope this answers your question. Noel Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck?Cheers, -- Sent from my Palm Pre Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 @ Tammy,Are you talking about http://bodyecology.com/ I have not but will look into it.@ ,Didn't get which book you are talking about. Could you please post Amazon link? With the diet, I gave up on alcohol (I used to drink occasionally anyways), turned completely vegetarian and eat almost everything in moderation. For a period of 3 years, I did a lot of testing with food but none of the foods turned out to be the triggers for my ulcerative colitis or migraine. Actually, my UC is pretty much under control with the meds and lifestyle I have, its the migraine that wreaks havoc twice a month. Thats where the original reply came from as NSAID work well for my migraine but I had to use it for much for 3 years that it gives me serious reaction now. Thankfully, DS doesn't have any gut issues and I am seriously hoping that he doesn't get one.Noel Noel am sure u ve looked at gaps.me or even bought the book??? It sound like it would help u.. And uo little boy Sent from my iPod No,LDN is my last resort before going under the knife. I hope I don't reach to that stage but with this disorder and difficulty in finding nutritious food at reasonable price in this country, you never know where you will end up in future. I have decided that I will never take Remicade or Humira or similar immuno-modulators, so this is the only one I am left with before the surgery. Plus, hardly any Gastroenterologists is really keen on prescribing it. It needs to be compounded and the dosing is pretty tricky.Hope this answers your question. Noel Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck?Cheers, -- Sent from my Palm Pre Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Yep! That's the one. : ) Click around. Donna Gates has been at it a long time and really knows her stuff. -Tammy Sent from my Kindle Fire Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Compounding LDN is not tricky at all. Any compounding pharmacy can do it and coastal happily gives the formula away to any pharmacy that asks if they don't have it.BUT you don't actually have to have it compounded. We tend to have it compounded because it's dosed at night and our kids are usually in bed by then. Adults can take a 5mg pill and be done with it.My son didn't have gut issues so I can't make any claims on how LDN did there. But LDN was good in this house. Not a wow, but still very good. Insurance covers it, too. We had ours compounded by a local compounder and they compounded it in regular hypoallergenic base but then I asked for them to do the emu oil and they had no problem with it. ~ Antiviral Therapy 101~~ Make a biomed book ~~ gryffinstail.wordpress.com ~~ @Gryffins_Tail ~ No,LDN is my last resort before going under the knife. I hope I don't reach to that stage but with this disorder and difficulty in finding nutritious food at reasonable price in this country, you never know where you will end up in future. I have decided that I will never take Remicade or Humira or similar immuno-modulators, so this is the only one I am left with before the surgery. Plus, hardly any Gastroenterologists is really keen on prescribing it. It needs to be compounded and the dosing is pretty tricky.Hope this answers your question. Noel Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck?Cheers, -- Sent from my Palm Pre Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Noel, I doubt your gastroenterologist has talked to you about this, but there actually is a strong association between oxalate and Crohns disease. Some of the reasons for that association have only been discovered in the last three years, and are still probably sequestered in the " ivory tower " and not changing the way gastroenterologists think about this disease. If you do a search on Crohns and oxalate in pubmed, you will find 72 articles coming up, so this is a strong association, but if you start reading the articles, you will quickly get the impression that the lines of causality are thought in this way: Crohn's ----> high oxalate absorption in gut ---> renal problems Gastroenterologists have heard from the renal people that there is no reason to warn those with Crohns about the dangers of high oxalate food until they have already developed renal problems. This would be like telling people not to reduce cholesterol until they need vascular surgery to correct the clogged arteries. That makes no sense! This is the key reason when I was talking with the Polish team that designed the first study of oxalate issues in autism, we knew that a PRIMARY issue to address was the myth that people don't have oxalate issues until they have renal problems. Our study showed that NONE of the kids in our study had renal issues, and they also were missing key risk factors that would have been the only things to raise suspicions, but those children with obvious risks were elminated from the study so we only studied those whose doctor's would have thought couldn't possibly have an oxalate issue. Not only were these children high in blood or urine or both in oxalate, but some got into lofty territory that is only seen in the genetic hyperoxalurias, that are as rare as one in a million persons. So, it will not be a gastroenterologist who will begin to ask if there is any chance the arrows might work back the other direction, that the oxalate that gets high in Crohn's may happen before the disease shows up, and that the oxalate problem may drive the GI disorder. He won't ask, because he has been taught not to ask that question. You may be aware that Trying_Low_Oxalates was set up to help anybody who wanted to reduce oxalate, so we do get people with other risk groups known associated with oxalate. That has included people with cystic fibrosis. The thinking there was that the antibiotics given in treatment were the setup for developing oxalate problems, but then scientific work in the last few years showed that the cystic fibrosis transporter (that is broken in that disease) coordinates its activity with a family of oxalate transporters. So we got listmates with cystic fibrosis doing LOD before they developed renal issues, and low and behold, instead of their lungs getting worse each year, as expected, their lungs got better and better on the low oxalate diet. So, in other words, oxalate was having effects on the disease itself that no one realized could be there. I just suspect Crohn's may be similar. It is possible that shifts in oxalate trafficking may be part of what causes the distressed reactions in the gut, but sense GI docs don't know about oxalate trafficking, or what it would change (if you wonder if he knows anything about oxalate transport, just ask). I don't think scientists will figure this out if this is the case because case histories are really what drives new investigations. That means patients, fed up with waiting for the doctors to hear about the science, may just try reducing oxalate and see if it produces the needed change. Diet is certainly something the patient CAN control. One thing that argues a bit for this connection is the success of VSL#3, a probiotic you can buy on the web that can be bought with a prescription, or at half the strength without a prescription. This product was developed for ulcerative colitis and pouchitis, but it can reduce intestinal inflammation. A scientist I know named Steve did a study a number of years back that found VSL#3, among other commercially available probiotics, was the winner in being able to degrade oxalate. It may help to reduce the inflammation. Another source for help could be the product N-acetyl glucosamine. This is not the same thing as glucosamine sulfate. Simon Murch, a colleague of Andy Wakefield at the Royal Free Hospital years ago did a study looking at the effectiveness of this product in keeping people from needing to go under the knife who had Crohn's disease and related intestinal inflammation. I've put that study below. You may be aware that it was Andy Wakefield's work on the association of measles with Crohn's disease that set him up for an interest in the gastrointestinal disturbances in autism. In past presentations, I have talked about a little boy with autism who went to a DAN! doctor who was thoroughly into using the antifungal parade and the longer this was used with him, the more sickly he became and his autism wasn't improving, either. His parents, advised by a therapist whose child went to a different doctor, shifted physicians and went to a doctor who recommended the low oxalate diet and quit using the antifungals. This boy had already had an intestinal biopsy and was measles positive (from vaccine), but he didn't start getting better until he went LOD and quit getting the antifungal medication. He did well, I think, for several years, but I heard recently heard that he had again been given antifungals, and, unfortunately, he again crashed as he had done years before. I have no idea what therapies your son has received, but maybe the story of this other little boy would interest you. Right now I am trying to get more updated information to this boy's doctor that shows when these other therapies that make a big hit on the liver, may backfire. These are people that don't speak English, so things will need to be translated. So, this is just food for thought with a wish that you can turn this around for your child before they have to do surgery. It is often after the surgeries that the more serious oxalate issues in Crohn's come on, now associated with short bowel syndrome. At that point they will advise a low oxalate diet to protect from renal issues which themselves can be fatal. I hope their is solution you can find before the surgery, but please read the literature on what changes after the surgery to understand its risks. Those are spelled out in pubmed. Wouldn't it be better to try the diet change BEFORE the surgery was necessary to see if it would help with the gut inflammation and maybe get rid of the need for surgery? I wish I had more Crohn's people on our listserve to tell you their stories, but they just haven't found us yet. Please see the references below, but use them as a springboard to learn more, and you are very welcome if you would like to join us on TLO to learn more about how to do a low oxalate diet. Also, some resources are available at www.lowoxalate.info. Clin Nephrol. 2006 Mar;65(3):216-21. Amelioration of anemia after kidney transplantation in severe secondary oxalosis. Bernhardt WM, Schefold JC, Weichert W, Rudolph B, Frei U, Groneberg DA, Schindler R. Source Division of Nephrology and Hypertension, Friedrich University Erlangen-Nürnberg, Erlangen, Germany. wanja.bernhardt@... Abstract INTRODUCTION: In small bowel disease such as M. Crohn, the intestinal absorption of oxalate is increased. Severe calcium oxalate deposition in multiple organs as consequence of enteric hyperoxaluria may lead to severe organ dysfunction and chronic renal failure. The management of hemodialyzed patients with short bowel syndrome may be associated with vascular access problems and oxalate infiltration of the bone marrow leading to pancytopenia. Although the risk of recurrence of the disease is very high after renal transplantation, it may be the ultimate therapeutic alternative in secondary hyperoxaluria. CASE: Here, we report a patient with enteric oxalosis due to Crohn's disease. He developed end-stage renal disease, erythropoietin-resistant anemia, oxalate infiltration of the bone marrow and severe vascular access problems. Following high-urgency kidney transplantation, daily hemodiafiltration of 3 hours was performed for 2 weeks to increase oxalate clearance. Despite tubular and interstitial deposition of oxalate in the renal transplant, the patient did not require further hemodialysis and the hematocrit levels normalized. DISCUSSION: Early treatment of hyperoxaluria due to short bowel syndrome is essential to prevent renal impairment. Declining renal function leads to a further increase in oxalate accumulation and consecutive oxalate deposition in the bone marrow or in the vascular wall. If alternative treatments such as special diet or daily hemodialysis are insufficient, kidney transplantation may be a therapeutic alternative in severe cases of enteric oxalosis despite a possible recurrence of the disease. PMID: 16550754 Nutrition. 1999 Jul-Aug;15(7-8):633-7. Management of patients with a short bowel. Nightingale JM. Source Leicester Royal Infirmary NHS Trust, UK. Abstract Short bowel syndrome most commonly results after bowel resections for Crohn's disease. The normal human small intestinal length ranges from about 3 to 8 m, thus if the initial small intestinal length is short, a relatively small resection of the intestine may result in the problems of a short bowel. Two types of patient with a short bowel are encountered in clinical practice: those with their jejunum anastomosed to a functioning colon, and those with a jejunostomy. Both types of patient have problems absorbing adequate macronutrients, and both need long-term vitamin B12 therapy. Patients with a jejunostomy also have major problems with large stomal losses of water, sodium, and magnesium. This high-volume jejunostomy output is treated by restricting oral fluids, giving a glucose-saline solution to drink, and using drugs that either reduce gastrointestinal motility (loperamide or codeine phosphate) or secretions (H2 antagonists, proton pump inhibitors, or octreotide). Patients whose jejunal length is less than 100 cm, and whose stomal output is greater than their oral intake, benefit most from antisecretory drugs. In patients with a retained colon, bacterial fermentation of unabsorbed carbohydrate in the colon results in energy being salvaged. However, they have increased oxalate absorption and a 25% chance of developing calcium oxalate renal stones. Thus patients with a colon are advised to eat a high-energy diet rich in carbohydrate but low in oxalate. Patients with a jejunostomy need a high-energy iso-osmolar diet with added salt. Both patient types have a 45% prevalence of gallstones. With current therapy most patients with a short bowel have a normal body mass index and a good quality of life. PMID: 10422101 Aliment Pharmacol Ther. 2000 Dec;14(12):1567-79. A pilot study of N-acetyl glucosamine, a nutritional substrate for glycosaminoglycan synthesis, in paediatric chronic inflammatory bowel disease. Salvatore S, Heuschkel R, Tomlin S, Davies SE, S, - JA, French I, Murch SH. Source University Department of Paediatric Gastroenterology, Royal Free, London, UK. Abstract BACKGROUND: The breakdown of glycosaminoglycans is an important consequence of inflammation at mucosal surfaces, and inhibition of metalloprotease activity may be effective in treating chronic inflammation. AIM: To report an alternative approach, using the nutriceutical agent N-acetyl glucosamine (GlcNAc), an amino-sugar directly incorporated into glycosaminoglycans and glycoproteins, as a substrate for tissue repair mechanisms. METHODS: GlcNAc (total daily dose 3-6 g) was administered orally as adjunct therapy to 12 children with severe treatment-resistant inflammatory bowel disease (10 Crohn's disease, 2 ulcerative colitis). Seven of these children suffered from symptomatic strictures. In addition, similar doses were administered rectally as sole therapy in nine children with distal ulcerative colitis or proctitis resistant to steroids and antibiotics. Where pre- and post-treatment biopsies were available (nine cases), histochemical assessment of epithelial and matrix glycosaminoglycans and GlcNAc residues was made. FINDINGS: Eight of the children given oral GlcNAc showed clear improvement, while four required resection. Of the children with symptomatic Crohn's stricture, only 3 of 7 have required surgery over a mean follow-up of > 2.5 years, and endoscopic or radiological improvement was detected in the others. Rectal administration induced remission in two cases, clear improvement in three and no effect in two. In all cases biopsied there was evidence of histological improvement, and a significant increase in epithelial and lamina propria glycosaminoglycans and intracellular GlcNAc. CONCLUSIONS: GlcNAc shows promise as an inexpensive and nontoxic treatment in chronic inflammatory bowel disease, with a mode of action which is distinct from conventional treatments. It may have the potential to be helpful in stricturing disease. However, controlled trials and an assessment of enteric-release preparations are required to confirm its efficacy and establish indications for use. PMID: 11121904 Eur J Paediatr Neurol. 2011 Sep 10. [Epub ahead of print] A potential pathogenic role of oxalate in autism. Konstantynowicz J, Porowski T, Zoch-Zwierz W, Wasilewska J, Kadziela-Olech H, Kulak W, Owens SC, Piotrowska-Jastrzebska J, Kaczmarski M. Source Department of Pediatrics and Developmental Disorders, Medical University of Bialystok, Poland. Abstract BACKGROUND: Although autistic spectrum disorders (ASD) are a strongly genetic condition certain metabolic disturbances may contribute to clinical features. Metabolism of oxalate in children with ASD has not yet been studied. AIM: The objective was to determine oxalate levels in plasma and urine in autistic children in relation to other urinary parameters. METHOD: In this cross-sectional study, plasma oxalate (using enzymatic method with oxalate oxidase) and spontaneous urinary calcium oxalate (CaOx) crystallization (based on the Bonn-Risk-Index, BRI) were determined in 36 children and adolescents with ASD (26 boys, 10 girls) aged 2-18 years and compared with 60 healthy non-autistic children matched by age, gender and anthropometric traits. RESULTS: Children with ASD demonstrated 3-fold greater plasma oxalate levels [5.60 (5th-95th percentile: 3.47-7.51)] compared with reference [(1.84 (5th-95th percentile: 0.50-4.70) & #956;mol/L (p < 0.05)] and 2.5-fold greater urinary oxalate concentrations (p < 0.05). No differences between the two groups were found in urinary pH, citraturia, calciuria or adjusted CaOx crystallization rates based on BRI. Despite significant hyperoxaluria no evidence of kidney stone disease or lithogenic risk was observed in these individuals. CONCLUSIONS: Hyperoxalemia and hyperoxaluria may be involved in the pathogenesis of ASD in children. Whether this is a result of impaired renal excretion or an extensive intestinal absorption, or both, or whether Ox may cross the blood brain barrier and disturb CNS function in the autistic children remains unclear. This appears to be the first report of plasma and urinary oxalate in childhood autism. Copyright © 2011 European Paediatric Neurology Society. Published by Elsevier Ltd. All rights reserved. PMID: 21911305 > > > > > > Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck? > > Cheers, > > > > > > -- Sent from my Palm Pre > > > > > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Hi ,Thanks a lot for taking efforts to write such detailed email with references. Just curious if you are a scientist by profession.Actually I know of oxalates issue with UC folks but my theory is different than yours. The way I learned is, its the intestinal pH thats the cause of the trouble and guess what, been to the ER twice last year for kidney stone. Still going to the urologist to check calcium and oxalate excretion. I posted message about my theory (thats where this all conversation began) Luckily the urology intern was aware of it and we discussed almost for 30 minutes on UC and renal issues. The way he mentioned and I read around is, for some reason intestinal pH decreases, may be due to your incomplete digestion or affected intestinal linings do not secrete bicarbonate (as a result of inflammation) thats supposed to be there to keep pH alkaline. Majority of Oxalates are in insoluble form in alkaline pH, due to the acidity now, they become soluble and they get reabsorbed. Kidney tries to excrete them but as the inflammation increases, this re-absorption increases too. When it becomes too much for the kidney, it turns into a stone. This is not only with the kidney but can also happen with gall bladder. So essentially, low oxalate diet can help but will not guarantee that there will no stones in future, should the inflammation persists. After kidney stone issue, I started avoiding high oxalate foods though. Glucosamine connection is new to me. I will check the article.With VSL#3, its the only probiotics that is super potent. There is no other. I considered VSL#3 many a times but the cost is prohibitive and my insurance does not cover it. They recently came up with patient assistance but I don't qualify for it. If you look the other way around to this story, I found a weak connection between UC and Autism. There have been many pointers but scientifically its difficult to prove it. I am participating in one clinical trial for DS and one of the question on their questionnaire was, if any parents or first family members have Irritable Bowel Disease. I have been mining data for this reverse connection but the results are not what I would like to see. With my son, I am really on the fence with the BioMed stuff. I read a lot but many of the things fail to convince me, so at the moment, all my son is getting is MB12 oral and some homeopathic stuff along with regular therapies. I am on the list to learn more from other parents and their experiences. Luckily, my son doesn't show any of the symptoms usually reported on this list. He is a happy kid with limited language and limited social skills, so I decided to concentrate on these issues through therapy. Plus, I am super hard-wired for not to do anything that doesn't come up with scientific evidence (Agreed that there is a LOT of bad science but I decided that I will trust Pubmed more than a DAN! doctor. Me and DW poked a lot of holes in Bock's book and his stories), and hence I said, I will prefer surgery to immuno-modulators, there is just not enough evidence that its a 'good' medication to 'treat' UC/Crohns. It just masks symptoms but underlying cause, whatever it is, remains. Again, thanks a lot for the detailed mail and reference. I will make sure to check everything.Noel Noel, I doubt your gastroenterologist has talked to you about this, but there actually is a strong association between oxalate and Crohns disease. Some of the reasons for that association have only been discovered in the last three years, and are still probably sequestered in the " ivory tower " and not changing the way gastroenterologists think about this disease. If you do a search on Crohns and oxalate in pubmed, you will find 72 articles coming up, so this is a strong association, but if you start reading the articles, you will quickly get the impression that the lines of causality are thought in this way: Crohn's ----> high oxalate absorption in gut ---> renal problems Gastroenterologists have heard from the renal people that there is no reason to warn those with Crohns about the dangers of high oxalate food until they have already developed renal problems. This would be like telling people not to reduce cholesterol until they need vascular surgery to correct the clogged arteries. That makes no sense! This is the key reason when I was talking with the Polish team that designed the first study of oxalate issues in autism, we knew that a PRIMARY issue to address was the myth that people don't have oxalate issues until they have renal problems. Our study showed that NONE of the kids in our study had renal issues, and they also were missing key risk factors that would have been the only things to raise suspicions, but those children with obvious risks were elminated from the study so we only studied those whose doctor's would have thought couldn't possibly have an oxalate issue. Not only were these children high in blood or urine or both in oxalate, but some got into lofty territory that is only seen in the genetic hyperoxalurias, that are as rare as one in a million persons. So, it will not be a gastroenterologist who will begin to ask if there is any chance the arrows might work back the other direction, that the oxalate that gets high in Crohn's may happen before the disease shows up, and that the oxalate problem may drive the GI disorder. He won't ask, because he has been taught not to ask that question. You may be aware that Trying_Low_Oxalates was set up to help anybody who wanted to reduce oxalate, so we do get people with other risk groups known associated with oxalate. That has included people with cystic fibrosis. The thinking there was that the antibiotics given in treatment were the setup for developing oxalate problems, but then scientific work in the last few years showed that the cystic fibrosis transporter (that is broken in that disease) coordinates its activity with a family of oxalate transporters. So we got listmates with cystic fibrosis doing LOD before they developed renal issues, and low and behold, instead of their lungs getting worse each year, as expected, their lungs got better and better on the low oxalate diet. So, in other words, oxalate was having effects on the disease itself that no one realized could be there. I just suspect Crohn's may be similar. It is possible that shifts in oxalate trafficking may be part of what causes the distressed reactions in the gut, but sense GI docs don't know about oxalate trafficking, or what it would change (if you wonder if he knows anything about oxalate transport, just ask). I don't think scientists will figure this out if this is the case because case histories are really what drives new investigations. That means patients, fed up with waiting for the doctors to hear about the science, may just try reducing oxalate and see if it produces the needed change. Diet is certainly something the patient CAN control. One thing that argues a bit for this connection is the success of VSL#3, a probiotic you can buy on the web that can be bought with a prescription, or at half the strength without a prescription. This product was developed for ulcerative colitis and pouchitis, but it can reduce intestinal inflammation. A scientist I know named Steve did a study a number of years back that found VSL#3, among other commercially available probiotics, was the winner in being able to degrade oxalate. It may help to reduce the inflammation. Another source for help could be the product N-acetyl glucosamine. This is not the same thing as glucosamine sulfate. Simon Murch, a colleague of Andy Wakefield at the Royal Free Hospital years ago did a study looking at the effectiveness of this product in keeping people from needing to go under the knife who had Crohn's disease and related intestinal inflammation. I've put that study below. You may be aware that it was Andy Wakefield's work on the association of measles with Crohn's disease that set him up for an interest in the gastrointestinal disturbances in autism. In past presentations, I have talked about a little boy with autism who went to a DAN! doctor who was thoroughly into using the antifungal parade and the longer this was used with him, the more sickly he became and his autism wasn't improving, either. His parents, advised by a therapist whose child went to a different doctor, shifted physicians and went to a doctor who recommended the low oxalate diet and quit using the antifungals. This boy had already had an intestinal biopsy and was measles positive (from vaccine), but he didn't start getting better until he went LOD and quit getting the antifungal medication. He did well, I think, for several years, but I heard recently heard that he had again been given antifungals, and, unfortunately, he again crashed as he had done years before. I have no idea what therapies your son has received, but maybe the story of this other little boy would interest you. Right now I am trying to get more updated information to this boy's doctor that shows when these other therapies that make a big hit on the liver, may backfire. These are people that don't speak English, so things will need to be translated. So, this is just food for thought with a wish that you can turn this around for your child before they have to do surgery. It is often after the surgeries that the more serious oxalate issues in Crohn's come on, now associated with short bowel syndrome. At that point they will advise a low oxalate diet to protect from renal issues which themselves can be fatal. I hope their is solution you can find before the surgery, but please read the literature on what changes after the surgery to understand its risks. Those are spelled out in pubmed. Wouldn't it be better to try the diet change BEFORE the surgery was necessary to see if it would help with the gut inflammation and maybe get rid of the need for surgery? I wish I had more Crohn's people on our listserve to tell you their stories, but they just haven't found us yet. Please see the references below, but use them as a springboard to learn more, and you are very welcome if you would like to join us on TLO to learn more about how to do a low oxalate diet. Also, some resources are available at www.lowoxalate.info. Clin Nephrol. 2006 Mar;65(3):216-21. Amelioration of anemia after kidney transplantation in severe secondary oxalosis. Bernhardt WM, Schefold JC, Weichert W, Rudolph B, Frei U, Groneberg DA, Schindler R. Source Division of Nephrology and Hypertension, Friedrich University Erlangen-Nürnberg, Erlangen, Germany. wanja.bernhardt@... Abstract INTRODUCTION: In small bowel disease such as M. Crohn, the intestinal absorption of oxalate is increased. Severe calcium oxalate deposition in multiple organs as consequence of enteric hyperoxaluria may lead to severe organ dysfunction and chronic renal failure. The management of hemodialyzed patients with short bowel syndrome may be associated with vascular access problems and oxalate infiltration of the bone marrow leading to pancytopenia. Although the risk of recurrence of the disease is very high after renal transplantation, it may be the ultimate therapeutic alternative in secondary hyperoxaluria. CASE: Here, we report a patient with enteric oxalosis due to Crohn's disease. He developed end-stage renal disease, erythropoietin-resistant anemia, oxalate infiltration of the bone marrow and severe vascular access problems. Following high-urgency kidney transplantation, daily hemodiafiltration of 3 hours was performed for 2 weeks to increase oxalate clearance. Despite tubular and interstitial deposition of oxalate in the renal transplant, the patient did not require further hemodialysis and the hematocrit levels normalized. DISCUSSION: Early treatment of hyperoxaluria due to short bowel syndrome is essential to prevent renal impairment. Declining renal function leads to a further increase in oxalate accumulation and consecutive oxalate deposition in the bone marrow or in the vascular wall. If alternative treatments such as special diet or daily hemodialysis are insufficient, kidney transplantation may be a therapeutic alternative in severe cases of enteric oxalosis despite a possible recurrence of the disease. PMID: 16550754 Nutrition. 1999 Jul-Aug;15(7-8):633-7. Management of patients with a short bowel. Nightingale JM. Source Leicester Royal Infirmary NHS Trust, UK. Abstract Short bowel syndrome most commonly results after bowel resections for Crohn's disease. The normal human small intestinal length ranges from about 3 to 8 m, thus if the initial small intestinal length is short, a relatively small resection of the intestine may result in the problems of a short bowel. Two types of patient with a short bowel are encountered in clinical practice: those with their jejunum anastomosed to a functioning colon, and those with a jejunostomy. Both types of patient have problems absorbing adequate macronutrients, and both need long-term vitamin B12 therapy. Patients with a jejunostomy also have major problems with large stomal losses of water, sodium, and magnesium. This high-volume jejunostomy output is treated by restricting oral fluids, giving a glucose-saline solution to drink, and using drugs that either reduce gastrointestinal motility (loperamide or codeine phosphate) or secretions (H2 antagonists, proton pump inhibitors, or octreotide). Patients whose jejunal length is less than 100 cm, and whose stomal output is greater than their oral intake, benefit most from antisecretory drugs. In patients with a retained colon, bacterial fermentation of unabsorbed carbohydrate in the colon results in energy being salvaged. However, they have increased oxalate absorption and a 25% chance of developing calcium oxalate renal stones. Thus patients with a colon are advised to eat a high-energy diet rich in carbohydrate but low in oxalate. Patients with a jejunostomy need a high-energy iso-osmolar diet with added salt. Both patient types have a 45% prevalence of gallstones. With current therapy most patients with a short bowel have a normal body mass index and a good quality of life. PMID: 10422101 Aliment Pharmacol Ther. 2000 Dec;14(12):1567-79. A pilot study of N-acetyl glucosamine, a nutritional substrate for glycosaminoglycan synthesis, in paediatric chronic inflammatory bowel disease. Salvatore S, Heuschkel R, Tomlin S, Davies SE, S, - JA, French I, Murch SH. Source University Department of Paediatric Gastroenterology, Royal Free, London, UK. Abstract BACKGROUND: The breakdown of glycosaminoglycans is an important consequence of inflammation at mucosal surfaces, and inhibition of metalloprotease activity may be effective in treating chronic inflammation. AIM: To report an alternative approach, using the nutriceutical agent N-acetyl glucosamine (GlcNAc), an amino-sugar directly incorporated into glycosaminoglycans and glycoproteins, as a substrate for tissue repair mechanisms. METHODS: GlcNAc (total daily dose 3-6 g) was administered orally as adjunct therapy to 12 children with severe treatment-resistant inflammatory bowel disease (10 Crohn's disease, 2 ulcerative colitis). Seven of these children suffered from symptomatic strictures. In addition, similar doses were administered rectally as sole therapy in nine children with distal ulcerative colitis or proctitis resistant to steroids and antibiotics. Where pre- and post-treatment biopsies were available (nine cases), histochemical assessment of epithelial and matrix glycosaminoglycans and GlcNAc residues was made. FINDINGS: Eight of the children given oral GlcNAc showed clear improvement, while four required resection. Of the children with symptomatic Crohn's stricture, only 3 of 7 have required surgery over a mean follow-up of > 2.5 years, and endoscopic or radiological improvement was detected in the others. Rectal administration induced remission in two cases, clear improvement in three and no effect in two. In all cases biopsied there was evidence of histological improvement, and a significant increase in epithelial and lamina propria glycosaminoglycans and intracellular GlcNAc. CONCLUSIONS: GlcNAc shows promise as an inexpensive and nontoxic treatment in chronic inflammatory bowel disease, with a mode of action which is distinct from conventional treatments. It may have the potential to be helpful in stricturing disease. However, controlled trials and an assessment of enteric-release preparations are required to confirm its efficacy and establish indications for use. PMID: 11121904 Eur J Paediatr Neurol. 2011 Sep 10. [Epub ahead of print] A potential pathogenic role of oxalate in autism. Konstantynowicz J, Porowski T, Zoch-Zwierz W, Wasilewska J, Kadziela-Olech H, Kulak W, Owens SC, Piotrowska-Jastrzebska J, Kaczmarski M. Source Department of Pediatrics and Developmental Disorders, Medical University of Bialystok, Poland. Abstract BACKGROUND: Although autistic spectrum disorders (ASD) are a strongly genetic condition certain metabolic disturbances may contribute to clinical features. Metabolism of oxalate in children with ASD has not yet been studied. AIM: The objective was to determine oxalate levels in plasma and urine in autistic children in relation to other urinary parameters. METHOD: In this cross-sectional study, plasma oxalate (using enzymatic method with oxalate oxidase) and spontaneous urinary calcium oxalate (CaOx) crystallization (based on the Bonn-Risk-Index, BRI) were determined in 36 children and adolescents with ASD (26 boys, 10 girls) aged 2-18 years and compared with 60 healthy non-autistic children matched by age, gender and anthropometric traits. RESULTS: Children with ASD demonstrated 3-fold greater plasma oxalate levels [5.60 (5th-95th percentile: 3.47-7.51)] compared with reference [(1.84 (5th-95th percentile: 0.50-4.70) & #956;mol/L (p < 0.05)] and 2.5-fold greater urinary oxalate concentrations (p < 0.05). No differences between the two groups were found in urinary pH, citraturia, calciuria or adjusted CaOx crystallization rates based on BRI. Despite significant hyperoxaluria no evidence of kidney stone disease or lithogenic risk was observed in these individuals. CONCLUSIONS: Hyperoxalemia and hyperoxaluria may be involved in the pathogenesis of ASD in children. Whether this is a result of impaired renal excretion or an extensive intestinal absorption, or both, or whether Ox may cross the blood brain barrier and disturb CNS function in the autistic children remains unclear. This appears to be the first report of plasma and urinary oxalate in childhood autism. Copyright © 2011 European Paediatric Neurology Society. Published by Elsevier Ltd. All rights reserved. PMID: 21911305 > > > > > > Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck? > > Cheers, > > > > > > -- Sent from my Palm Pre > > > > > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 " Gut Solutions " is a WONDERFUL and quick, usable source on foundational and holistic treatment (diet, supplement) of GI problems, with a section on Chrohn's. A good, old friend from high school picked it up after my recommendation. Her husband was essentially disabled from Chrohn's and in and out of the hospital. He had some surgical intervention, and still had significant issues. He is doing really well now, and found a mainstream but " integrative " GI specialist in Washington D.C. who uses the tests recommended in the book. I have used this book to address our digestive system issues and we have reversed eosinophilic disorder, mast cell activation disorder, duodenal ulcers (all Mia), and advanced celiac (me, with MCAD). At the time I had advanced celiac, I was losing weight no matter what I ate and had many severe, disabling, chronic symptoms indicative of Chrohn's and UC. My GI specialist recommended several invasive tests to confirm Chrohn's and UC. I scheduled the tests but was worried because Mia had had anaphylaxis with anesthesia the year before, which is a significant risk with MCAD. This, with some other troubling family history related to contrast dyes, and at the end of the day I couldn't take the risk of either dying or becoming completely handicapped for a period following the testing. This was the start of our walk away from mainstream solutions and back to integrative/holistic solutions. I still have some issues, and am reminded when I waver from the few remaining diet restrictions (mainly gluten, which on top of significant GI issues causes eruptions of a poison ivy like rash on my hands, and a few other unmentionable things), but all in all, we have had life changing, significant success with longterm recovery through diet and supplement recommendations from this book. Using a LOT of glutamine powder, I feel, was a life saver for us- of note- which we discoverd through a friend treating Autism but is also recommended in the book. I hope this helps. I truly feel your pain. There is nothing worse than Chrohns. Here it is on Amazon, with some reviews: http://www.amazon.com/Gut-Solutions-Natural-Digestive-Conditions/product-reviews\ /0971930929 One last note, Mia has been on LDN for over a year now and she has handled it well. It has been a good one over all for her. We have found compounding pharmacies nearby but also there are some that doctors use essentially mail order. Have you looked for an integrative GI specialist? In our experience if a doctor assumes the label integrative, they are well versed in both standard medical care and nutritional/supplemental therapies as well. A good balance. > > > ** > > > > > > > > Thanks everyone for the info on my crohns and uc email. Noel, others, have > > you ever tried LDN with any luck? > > Cheers, > > > > -- Sent from my Palm Pre > > > > > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 What is LDN?Sent: Thursday, February 23, 2012 11:29 AMTo: mb12valtrex Subject: Re: Crohns and ucCompounding LDN is not tricky at all. Any compounding pharmacy can do it and coastal happily gives the formula away to any pharmacy that asks if they don't have it.BUT you don't actually have to have it compounded. We tend to have it compounded because it's dosed at night and our kids are usually in bed by then. Adults can take a 5mg pill and be done with it.My son didn't have gut issues so I can't make any claims on how LDN did there. But LDN was good in this house. Not a wow, but still very good. Insurance covers it, too. We had ours compounded by a local compounder and they compounded it in regular hypoallergenic base but then I asked for them to do the emu oil and they had no problem with it. [The entire original message is not included] Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Sent: Thursday, February 23, 2012 11:29 AMTo: mb12valtrex Subject: Re: Crohns and ucCompounding LDN is not tricky at all. Any compounding pharmacy can do it and coastal happily gives the formula away to any pharmacy that asks if they don't have it.BUT you don't actually have to have it compounded. We tend to have it compounded because it's dosed at night and our kids are usually in bed by then. Adults can take a 5mg pill and be done with it.My son didn't have gut issues so I can't make any claims on how LDN did there. But LDN was good in this house. Not a wow, but still very good. Insurance covers it, too. We had ours compounded by a local compounder and they compounded it in regular hypoallergenic base but then I asked for them to do the emu oil and they had no problem with it. [The entire original message is not included] Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Of interest, I wrote a post about our GI issues in this thread. VSL is what was prescribed for us. That and a low ox, gluten free diet, with Glutamine powder daily, were life changers for us. I apologize for thumping this bible, but I strongly feel that oxalate issues point to parasite issues. When I treated for parasites I suddenly could eat oxalates again. It was overnight. Oxalates are root crop protections against being eaten by bugs and other soil organisms. Salicylates are similar protections for the leaves of plants. So it seems to me that when the parasites in our intestines get the oxalates and salicylates, they get aggravated or die, releasing compounds that aggravate nearby mast cells, causing degranulation with associated vessel permeability, among other things. Do you have any thoughts on this ? I would love to hear an opinion. Thanks, > > Noel, > > I doubt your gastroenterologist has talked to you about this, but there actually is a strong association between oxalate and Crohns disease. Some of the reasons for that association have only been discovered in the last three years, and are still probably sequestered in the " ivory tower " and not changing the way gastroenterologists think about this disease. > > If you do a search on Crohns and oxalate in pubmed, you will find 72 articles coming up, so this is a strong association, but if you start reading the articles, you will quickly get the impression that the lines of causality are thought in this way: > > Crohn's ----> high oxalate absorption in gut ---> renal problems > > Gastroenterologists have heard from the renal people that there is no reason to warn those with Crohns about the dangers of high oxalate food until they have already developed renal problems. This would be like telling people not to reduce cholesterol until they need vascular surgery to correct the clogged arteries. That makes no sense! > > This is the key reason when I was talking with the Polish team that designed the first study of oxalate issues in autism, we knew that a PRIMARY issue to address was the myth that people don't have oxalate issues until they have renal problems. Our study showed that NONE of the kids in our study had renal issues, and they also were missing key risk factors that would have been the only things to raise suspicions, but those children with obvious risks were elminated from the study so we only studied those whose doctor's would have thought couldn't possibly have an oxalate issue. Not only were these children high in blood or urine or both in oxalate, but some got into lofty territory that is only seen in the genetic hyperoxalurias, that are as rare as one in a million persons. > > So, it will not be a gastroenterologist who will begin to ask if there is any chance the arrows might work back the other direction, that the oxalate that gets high in Crohn's may happen before the disease shows up, and that the oxalate problem may drive the GI disorder. He won't ask, because he has been taught not to ask that question. > > You may be aware that Trying_Low_Oxalates was set up to help anybody who wanted to reduce oxalate, so we do get people with other risk groups known associated with oxalate. That has included people with cystic fibrosis. The thinking there was that the antibiotics given in treatment were the setup for developing oxalate problems, but then scientific work in the last few years showed that the cystic fibrosis transporter (that is broken in that disease) coordinates its activity with a family of oxalate transporters. So we got listmates with cystic fibrosis doing LOD before they developed renal issues, and low and behold, instead of their lungs getting worse each year, as expected, their lungs got better and better on the low oxalate diet. So, in other words, oxalate was having effects on the disease itself that no one realized could be there. > > I just suspect Crohn's may be similar. It is possible that shifts in oxalate trafficking may be part of what causes the distressed reactions in the gut, but sense GI docs don't know about oxalate trafficking, or what it would change (if you wonder if he knows anything about oxalate transport, just ask). I don't think scientists will figure this out if this is the case because case histories are really what drives new investigations. That means patients, fed up with waiting for the doctors to hear about the science, may just try reducing oxalate and see if it produces the needed change. Diet is certainly something the patient CAN control. > > One thing that argues a bit for this connection is the success of VSL#3, a probiotic you can buy on the web that can be bought with a prescription, or at half the strength without a prescription. This product was developed for ulcerative colitis and pouchitis, but it can reduce intestinal inflammation. A scientist I know named Steve did a study a number of years back that found VSL#3, among other commercially available probiotics, was the winner in being able to degrade oxalate. It may help to reduce the inflammation. > > Another source for help could be the product N-acetyl glucosamine. This is not the same thing as glucosamine sulfate. Simon Murch, a colleague of Andy Wakefield at the Royal Free Hospital years ago did a study looking at the effectiveness of this product in keeping people from needing to go under the knife who had Crohn's disease and related intestinal inflammation. I've put that study below. > > You may be aware that it was Andy Wakefield's work on the association of measles with Crohn's disease that set him up for an interest in the gastrointestinal disturbances in autism. > > In past presentations, I have talked about a little boy with autism who went to a DAN! doctor who was thoroughly into using the antifungal parade and the longer this was used with him, the more sickly he became and his autism wasn't improving, either. His parents, advised by a therapist whose child went to a different doctor, shifted physicians and went to a doctor who recommended the low oxalate diet and quit using the antifungals. This boy had already had an intestinal biopsy and was measles positive (from vaccine), but he didn't start getting better until he went LOD and quit getting the antifungal medication. He did well, I think, for several years, but I heard recently heard that he had again been given antifungals, and, unfortunately, he again crashed as he had done years before. > > I have no idea what therapies your son has received, but maybe the story of this other little boy would interest you. Right now I am trying to get more updated information to this boy's doctor that shows when these other therapies that make a big hit on the liver, may backfire. These are people that don't speak English, so things will need to be translated. > > So, this is just food for thought with a wish that you can turn this around for your child before they have to do surgery. It is often after the surgeries that the more serious oxalate issues in Crohn's come on, now associated with short bowel syndrome. At that point they will advise a low oxalate diet to protect from renal issues which themselves can be fatal. I hope their is solution you can find before the surgery, but please read the literature on what changes after the surgery to understand its risks. Those are spelled out in pubmed. > > Wouldn't it be better to try the diet change BEFORE the surgery was necessary to see if it would help with the gut inflammation and maybe get rid of the need for surgery? I wish I had more Crohn's people on our listserve to tell you their stories, but they just haven't found us yet. > > Please see the references below, but use them as a springboard to learn more, and you are very welcome if you would like to join us on TLO to learn more about how to do a low oxalate diet. Also, some resources are available at www.lowoxalate.info. > > > > Clin Nephrol. 2006 Mar;65(3):216-21. > Amelioration of anemia after kidney transplantation in severe secondary oxalosis. > Bernhardt WM, Schefold JC, Weichert W, Rudolph B, Frei U, Groneberg DA, Schindler R. > Source > > Division of Nephrology and Hypertension, Friedrich University Erlangen-Nürnberg, Erlangen, Germany. wanja.bernhardt@... > Abstract > INTRODUCTION: > > In small bowel disease such as M. Crohn, the intestinal absorption of oxalate is increased. Severe calcium oxalate deposition in multiple organs as consequence of enteric hyperoxaluria may lead to severe organ dysfunction and chronic renal failure. The management of hemodialyzed patients with short bowel syndrome may be associated with vascular access problems and oxalate infiltration of the bone marrow leading to pancytopenia. Although the risk of recurrence of the disease is very high after renal transplantation, it may be the ultimate therapeutic alternative in secondary hyperoxaluria. > CASE: > > Here, we report a patient with enteric oxalosis due to Crohn's disease. He developed end-stage renal disease, erythropoietin-resistant anemia, oxalate infiltration of the bone marrow and severe vascular access problems. Following high-urgency kidney transplantation, daily hemodiafiltration of 3 hours was performed for 2 weeks to increase oxalate clearance. Despite tubular and interstitial deposition of oxalate in the renal transplant, the patient did not require further hemodialysis and the hematocrit levels normalized. > DISCUSSION: > > Early treatment of hyperoxaluria due to short bowel syndrome is essential to prevent renal impairment. Declining renal function leads to a further increase in oxalate accumulation and consecutive oxalate deposition in the bone marrow or in the vascular wall. If alternative treatments such as special diet or daily hemodialysis are insufficient, kidney transplantation may be a therapeutic alternative in severe cases of enteric oxalosis despite a possible recurrence of the disease. > > PMID: > 16550754 > > Nutrition. 1999 Jul-Aug;15(7-8):633-7. > Management of patients with a short bowel. > Nightingale JM. > Source > > Leicester Royal Infirmary NHS Trust, UK. > Abstract > > Short bowel syndrome most commonly results after bowel resections for Crohn's disease. The normal human small intestinal length ranges from about 3 to 8 m, thus if the initial small intestinal length is short, a relatively small resection of the intestine may result in the problems of a short bowel. Two types of patient with a short bowel are encountered in clinical practice: those with their jejunum anastomosed to a functioning colon, and those with a jejunostomy. Both types of patient have problems absorbing adequate macronutrients, and both need long-term vitamin B12 therapy. Patients with a jejunostomy also have major problems with large stomal losses of water, sodium, and magnesium. This high-volume jejunostomy output is treated by restricting oral fluids, giving a glucose-saline solution to drink, and using drugs that either reduce gastrointestinal motility (loperamide or codeine phosphate) or secretions (H2 antagonists, proton pump inhibitors, or octreotide). Patients whose jejunal length is less than 100 cm, and whose stomal output is greater than their oral intake, benefit most from antisecretory drugs. In patients with a retained colon, bacterial fermentation of unabsorbed carbohydrate in the colon results in energy being salvaged. However, they have increased oxalate absorption and a 25% chance of developing calcium oxalate renal stones. Thus patients with a colon are advised to eat a high-energy diet rich in carbohydrate but low in oxalate. Patients with a jejunostomy need a high-energy iso-osmolar diet with added salt. Both patient types have a 45% prevalence of gallstones. With current therapy most patients with a short bowel have a normal body mass index and a good quality of life. > > PMID: > 10422101 > > Aliment Pharmacol Ther. 2000 Dec;14(12):1567-79. > A pilot study of N-acetyl glucosamine, a nutritional substrate for glycosaminoglycan synthesis, in paediatric chronic inflammatory bowel disease. > Salvatore S, Heuschkel R, Tomlin S, Davies SE, S, - JA, French I, Murch SH. > Source > > University Department of Paediatric Gastroenterology, Royal Free, London, UK. > Abstract > BACKGROUND: > > The breakdown of glycosaminoglycans is an important consequence of inflammation at mucosal surfaces, and inhibition of metalloprotease activity may be effective in treating chronic inflammation. > AIM: > > To report an alternative approach, using the nutriceutical agent N-acetyl glucosamine (GlcNAc), an amino-sugar directly incorporated into glycosaminoglycans and glycoproteins, as a substrate for tissue repair mechanisms. > METHODS: > > GlcNAc (total daily dose 3-6 g) was administered orally as adjunct therapy to 12 children with severe treatment-resistant inflammatory bowel disease (10 Crohn's disease, 2 ulcerative colitis). Seven of these children suffered from symptomatic strictures. In addition, similar doses were administered rectally as sole therapy in nine children with distal ulcerative colitis or proctitis resistant to steroids and antibiotics. Where pre- and post-treatment biopsies were available (nine cases), histochemical assessment of epithelial and matrix glycosaminoglycans and GlcNAc residues was made. > FINDINGS: > > Eight of the children given oral GlcNAc showed clear improvement, while four required resection. Of the children with symptomatic Crohn's stricture, only 3 of 7 have required surgery over a mean follow-up of > 2.5 years, and endoscopic or radiological improvement was detected in the others. Rectal administration induced remission in two cases, clear improvement in three and no effect in two. In all cases biopsied there was evidence of histological improvement, and a significant increase in epithelial and lamina propria glycosaminoglycans and intracellular GlcNAc. > CONCLUSIONS: > > GlcNAc shows promise as an inexpensive and nontoxic treatment in chronic inflammatory bowel disease, with a mode of action which is distinct from conventional treatments. It may have the potential to be helpful in stricturing disease. However, controlled trials and an assessment of enteric-release preparations are required to confirm its efficacy and establish indications for use. > > PMID: > 11121904 > > Eur J Paediatr Neurol. 2011 Sep 10. [Epub ahead of print] > A potential pathogenic role of oxalate in autism. > Konstantynowicz J, Porowski T, Zoch-Zwierz W, Wasilewska J, Kadziela-Olech H, Kulak W, Owens SC, Piotrowska-Jastrzebska J, Kaczmarski M. > Source > > Department of Pediatrics and Developmental Disorders, Medical University of Bialystok, Poland. > Abstract > BACKGROUND: > > Although autistic spectrum disorders (ASD) are a strongly genetic condition certain metabolic disturbances may contribute to clinical features. Metabolism of oxalate in children with ASD has not yet been studied. > AIM: > > The objective was to determine oxalate levels in plasma and urine in autistic children in relation to other urinary parameters. > METHOD: > > In this cross-sectional study, plasma oxalate (using enzymatic method with oxalate oxidase) and spontaneous urinary calcium oxalate (CaOx) crystallization (based on the Bonn-Risk-Index, BRI) were determined in 36 children and adolescents with ASD (26 boys, 10 girls) aged 2-18 years and compared with 60 healthy non-autistic children matched by age, gender and anthropometric traits. > RESULTS: > > Children with ASD demonstrated 3-fold greater plasma oxalate levels [5.60 (5th-95th percentile: 3.47-7.51)] compared with reference [(1.84 (5th-95th percentile: 0.50-4.70) & #956;mol/L (p < 0.05)] and 2.5-fold greater urinary oxalate concentrations (p < 0.05). No differences between the two groups were found in urinary pH, citraturia, calciuria or adjusted CaOx crystallization rates based on BRI. Despite significant hyperoxaluria no evidence of kidney stone disease or lithogenic risk was observed in these individuals. > CONCLUSIONS: > > Hyperoxalemia and hyperoxaluria may be involved in the pathogenesis of ASD in children. Whether this is a result of impaired renal excretion or an extensive intestinal absorption, or both, or whether Ox may cross the blood brain barrier and disturb CNS function in the autistic children remains unclear. This appears to be the first report of plasma and urinary oxalate in childhood autism. > > Copyright © 2011 European Paediatric Neurology Society. Published by Elsevier Ltd. All rights reserved. Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Low Dose Naltrexone ~ Antiviral Therapy 101~~ Make a biomed book ~~ gryffinstail.wordpress.com ~~ @Gryffins_Tail ~ What is LDN?Sent: Thursday, February 23, 2012 11:29 AMTo: mb12valtrex Subject: Re: Crohns and ucCompounding LDN is not tricky at all. Any compounding pharmacy can do it and coastal happily gives the formula away to any pharmacy that asks if they don't have it.BUT you don't actually have to have it compounded. We tend to have it compounded because it's dosed at night and our kids are usually in bed by then. Adults can take a 5mg pill and be done with it.My son didn't have gut issues so I can't make any claims on how LDN did there. But LDN was good in this house. Not a wow, but still very good. Insurance covers it, too. We had ours compounded by a local compounder and they compounded it in regular hypoallergenic base but then I asked for them to do the emu oil and they had no problem with it. [The entire original message is not included] Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Noel, I was just reading an interesting presentation on Chronic Fatigue. It mentions a supplement called Dragons Earth which is used in the treatment of Crohns. It made me think of you. Have you heard of it? -Tammy Sent from my Kindle Fire Sent: Thu Feb 23 11:46:32 EST 2012 To: mb12valtrex Subject: Re: Crohns and uc Yep! That's the one. : ) Click around. Donna Gates has been at it a long time and really knows her stuff. -Tammy Sent from my Kindle Fire Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 Cheryl,how long is your son on LDN? did you stop and reintroduce or you never stopped? Sorry I didn't understand the relationship LDN/emu oil? Grace From: cheryl biomed.mom ; To: <mb12valtrex >; Subject: Re: Crohns and uc Sent: Thu, Feb 23, 2012 5:29:26 PM Compounding LDN is not tricky at all. Any compounding pharmacy can do it and coastal happily gives the formula away to any pharmacy that asks if they don't have it.BUT you don't actually have to have it compounded. We tend to have it compounded because it's dosed at night and our kids are usually in bed by then. Adults can take a 5mg pill and be done with it.My son didn't have gut issues so I can't make any claims on how LDN did there. But LDN was good in this house. Not a wow, but still very good. Insurance covers it, too. We had ours compounded by a local compounder and they compounded it in regular hypoallergenic base but then I asked for them to do the emu oil and they had no problem with it. ~ Antiviral Therapy 101~~ Make a biomed book ~~ gryffinstail.wordpress.com ~~ @Gryffins_Tail ~ No,LDN is my last resort before going under the knife. I hope I don't reach to that stage but with this disorder and difficulty in finding nutritious food at reasonable price in this country, you never know where you will end up in future. I have decided that I will never take Remicade or Humira or similar immuno-modulators, so this is the only one I am left with before the surgery. Plus, hardly any Gastroenterologists is really keen on prescribing it. It needs to be compounded and the dosing is pretty tricky.Hope this answers your question. Noel Thanks everyone for the info on my crohns and uc email. Noel, others, have you ever tried LDN with any luck?Cheers, -- Sent from my Palm Pre Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 23, 2012 Report Share Posted February 23, 2012 , The literature I've read on roots and oxalate is that plants, that can't " prepare their meals to bring to their mouth " have to have ways of getting minerals up to them to absorb. A lot of roots (not all) produce oxalic acid to secrete to the soil in order to find and bind minerals, and there is apparently then an uptake system for bringing the mineral oxalate back into the plant. Plants have special cells called idioblasts to isolate the oxalate they make from the rest of the plant, and this keeps it from becoming toxic to the plant and also is a store of calcium. The type of bugs that oxalate provides resistance to are big bugs with big teeth. I saw a lecture at the University of Houston given by a scientist I met at the FASEB summer research symposium on oxalate that was seven years ago, but in this new lecture he was showing how they had isolated the gene for making oxalate in a particular plant that bugs like to eat, but not enthusiastically. They removed that gene through genetic manipulation and it was surprising how unchanged the plant appeared to be, not even altered in the calcium it contained. But, when they put these caterpillars in a place where it was equally convenient to eat the plant that had oxalate and the one that did not, the caterpillars took one bite of the oxalate laden plant and abandoned it, but they ate every leaf of the one without oxalate. He showed pictures of their teeth, and the oxalate broke their teeth off when they tried to eat it because for them it was like eating rocks. No wonder they left it alone. This is not an issue with bacteria or parasites, for which these rocks would be boulders. ,I'm not familiar with a role with parasites and I don't see support for such a role in pubmed. Most creatures have similar vulnerabilities, but there are some bacteria, like oxalobacter formigenes, that are oxalate obligates, in that they must have oxalate for food and have an oxalate oxidase to utilize it. This microbe is a strict anaerobe, so it doesn't live out in the wide, wide world but only in the deep dark places of the gut. I found the article below showing that some African scientists found oxalate crystals packaged with some pseudomonas infections. I think I know one of these scientists who may now do the labwork for Enterolabs, here in Dallas! Pseudomonas is a bacteria that gets to be a problem in cystic fibrosis, the disease I mentioned before where problems in membrane transport make the lungs and gut produce globby mucus that lacks the appropriate microbial barrier. This barrier is compromised because of problems in the interaction of the cystic fibrosis transporter with one of the transporters for sulfate and oxalate. I've written a lot about that relationship on TLO. An article below suggests that the calcium oxalate crystal may provide an attraction for the bacteria when it is about to make a biofilm. Oxalate is not all that toxic to bacteria in that doctors have found some people form " infection stones " that basically get a bacteria encrusted with oxalate, and being entombed in oxalate doesn't kill it. Later, as the crystal dissolves, the bacteria can easily reinfect. This is a big deal with lithotripsy, because people can get sick again after having surgery to break up stones in the kidney. Bacteria have alternative pathways they can use that bypasses normal metabolism and allows them to survive when they cannot find their usual food. , where did you get the idea about a connection to parasites? There are some sites on the web that make unsupported claims that oxalate does things that you really cannot find in the literature, and their sites will generally lack references. I really do try to help people be wise about how many people who don't know their stuff try to make it look like they do know their stuff. The references are generally the giveaway. , did you know that some forms of oxalate crystals can actually look sort of like parasites, and people have made mistakes that way? See article below on that. What was your treatment for parasites? What do you think it changed? I'd love to hear your take on that... Lab Anim. 1981 Jul;15(3):277-9. Pathogenic microbes isolated from rabbit urine. Akinboade OA, Adegoke GO, Ogunji FO, Nwufoh KJ. Abstract Asymptomatic urinary tract infections were recovered from the urine of 40 of 100 rabbits, and identical bacteria were isolated when the rabbits were retested. Urine samples which yielded significant growths of bacteria also had pus cells. Some specimens yielded more than 2 different isolates, and staphylococci were the most frequently isolated bacteria. Oxalate and uric acid crystals were seen in 6% of the samples, particularly those with significant growths of Pseudomonas aeruginosa. No ova, parasites or fungal elements were seen in 'wet-mount' preparations and no fungi were seen when urine samples were cultured. Female rabbits showed a higher number of bacterial isolates than males. Animals with significant isolates were treated with suitable antibiotics and repeat samples yielded no growth. PMID: 7289580 Kansenshogaku Zasshi. 1995 Aug;69(8):913-8. [Formation of experimental rat bladder calculus and adherence of Pseudomonas aeruginosa to the calculus]. [Article in Japanese] Takahata M, Kurose S, Shinmura Y, Watanabe Y, Narita H, Hasegawa M. Source Research Laboratory, Toyama Chemical Co. Ltd. Abstract The formation of experimental bladder calculus was studied. The calculus was formed by the uptake of ethylene glycolwater (1%) and retaining the silk thread in rat bladder with high frequency. The components of the calculus were calcium oxalate and calcium phosphate from the results of the electron prove micro analysis (EPMA) and ion chromatography. On the 7th day after the beginning of experiment, Pseudomonas aeruginosa was inoculated to the rat bladder via the urethra. Seven days after the infection, P. aeruginosa adhered to the surface of the calculus such as an aspect of a biofilm. It was considered that this experimental model was useful to study the adherence of bacteria, biofilm formation and its chemotherapy by antibacterial agents. PMID: 7594785 Acta Cytol. 2000 May-Jun;44(3):429-32. Liesegang rings in cytologic samples accompanied by calcium oxalate-like crystals. A report of three cases. Kumar N, Jain S. Source Department of Pathology, Maulana Azad Medical College, New Delhi, India. Abstract BACKGROUND: The presence of Liesegang rings (LRs) in cytologic specimens is a morphologic curiosity. The exact mechanism of formation and composition of these peculiar rings is a mystery. Their morphologic resemblance to parasites is well recognized and illustrated. Their association with calcium oxalate-like crystals and their presence in a tubercular lymph node are described for the first time below. CASES: Giemsa-stained aspiration smears from an enlarged lymph node and two breast lumps showed purple rings of variable morphology resembling ova, larvae or adult parasites. Misdiagnosis of parasites was avoided by careful evaluation. In all three cases the LRs were associated with calcium oxalate-like crystals and were nonbirefringent. CONCLUSION: LRs can be mistaken for ova, larvae or adult parasites. Awareness of their varied morphology is helpful in avoiding misinterpretation and overdiagnosis of parasitic lesions. The coexistence of LRs and crystals was an unusual finding in this study. PMID: 10834005 > > > > Noel, > > > > I doubt your gastroenterologist has talked to you about this, but there actually is a strong association between oxalate and Crohns disease. Some of the reasons for that association have only been discovered in the last three years, and are still probably sequestered in the " ivory tower " and not changing the way gastroenterologists think about this disease. > > > > If you do a search on Crohns and oxalate in pubmed, you will find 72 articles coming up, so this is a strong association, but if you start reading the articles, you will quickly get the impression that the lines of causality are thought in this way: > > > > Crohn's ----> high oxalate absorption in gut ---> renal problems > > > > Gastroenterologists have heard from the renal people that there is no reason to warn those with Crohns about the dangers of high oxalate food until they have already developed renal problems. This would be like telling people not to reduce cholesterol until they need vascular surgery to correct the clogged arteries. That makes no sense! > > > > This is the key reason when I was talking with the Polish team that designed the first study of oxalate issues in autism, we knew that a PRIMARY issue to address was the myth that people don't have oxalate issues until they have renal problems. Our study showed that NONE of the kids in our study had renal issues, and they also were missing key risk factors that would have been the only things to raise suspicions, but those children with obvious risks were elminated from the study so we only studied those whose doctor's would have thought couldn't possibly have an oxalate issue. Not only were these children high in blood or urine or both in oxalate, but some got into lofty territory that is only seen in the genetic hyperoxalurias, that are as rare as one in a million persons. > > > > So, it will not be a gastroenterologist who will begin to ask if there is any chance the arrows might work back the other direction, that the oxalate that gets high in Crohn's may happen before the disease shows up, and that the oxalate problem may drive the GI disorder. He won't ask, because he has been taught not to ask that question. > > > > You may be aware that Trying_Low_Oxalates was set up to help anybody who wanted to reduce oxalate, so we do get people with other risk groups known associated with oxalate. That has included people with cystic fibrosis. The thinking there was that the antibiotics given in treatment were the setup for developing oxalate problems, but then scientific work in the last few years showed that the cystic fibrosis transporter (that is broken in that disease) coordinates its activity with a family of oxalate transporters. So we got listmates with cystic fibrosis doing LOD before they developed renal issues, and low and behold, instead of their lungs getting worse each year, as expected, their lungs got better and better on the low oxalate diet. So, in other words, oxalate was having effects on the disease itself that no one realized could be there. > > > > I just suspect Crohn's may be similar. It is possible that shifts in oxalate trafficking may be part of what causes the distressed reactions in the gut, but sense GI docs don't know about oxalate trafficking, or what it would change (if you wonder if he knows anything about oxalate transport, just ask). I don't think scientists will figure this out if this is the case because case histories are really what drives new investigations. That means patients, fed up with waiting for the doctors to hear about the science, may just try reducing oxalate and see if it produces the needed change. Diet is certainly something the patient CAN control. > > > > One thing that argues a bit for this connection is the success of VSL#3, a probiotic you can buy on the web that can be bought with a prescription, or at half the strength without a prescription. This product was developed for ulcerative colitis and pouchitis, but it can reduce intestinal inflammation. A scientist I know named Steve did a study a number of years back that found VSL#3, among other commercially available probiotics, was the winner in being able to degrade oxalate. It may help to reduce the inflammation. > > > > Another source for help could be the product N-acetyl glucosamine. This is not the same thing as glucosamine sulfate. Simon Murch, a colleague of Andy Wakefield at the Royal Free Hospital years ago did a study looking at the effectiveness of this product in keeping people from needing to go under the knife who had Crohn's disease and related intestinal inflammation. I've put that study below. > > > > You may be aware that it was Andy Wakefield's work on the association of measles with Crohn's disease that set him up for an interest in the gastrointestinal disturbances in autism. > > > > In past presentations, I have talked about a little boy with autism who went to a DAN! doctor who was thoroughly into using the antifungal parade and the longer this was used with him, the more sickly he became and his autism wasn't improving, either. His parents, advised by a therapist whose child went to a different doctor, shifted physicians and went to a doctor who recommended the low oxalate diet and quit using the antifungals. This boy had already had an intestinal biopsy and was measles positive (from vaccine), but he didn't start getting better until he went LOD and quit getting the antifungal medication. He did well, I think, for several years, but I heard recently heard that he had again been given antifungals, and, unfortunately, he again crashed as he had done years before. > > > > I have no idea what therapies your son has received, but maybe the story of this other little boy would interest you. Right now I am trying to get more updated information to this boy's doctor that shows when these other therapies that make a big hit on the liver, may backfire. These are people that don't speak English, so things will need to be translated. > > > > So, this is just food for thought with a wish that you can turn this around for your child before they have to do surgery. It is often after the surgeries that the more serious oxalate issues in Crohn's come on, now associated with short bowel syndrome. At that point they will advise a low oxalate diet to protect from renal issues which themselves can be fatal. I hope their is solution you can find before the surgery, but please read the literature on what changes after the surgery to understand its risks. Those are spelled out in pubmed. > > > > Wouldn't it be better to try the diet change BEFORE the surgery was necessary to see if it would help with the gut inflammation and maybe get rid of the need for surgery? I wish I had more Crohn's people on our listserve to tell you their stories, but they just haven't found us yet. > > > > Please see the references below, but use them as a springboard to learn more, and you are very welcome if you would like to join us on TLO to learn more about how to do a low oxalate diet. Also, some resources are available at www.lowoxalate.info. > > > > > > > > Clin Nephrol. 2006 Mar;65(3):216-21. > > Amelioration of anemia after kidney transplantation in severe secondary oxalosis. > > Bernhardt WM, Schefold JC, Weichert W, Rudolph B, Frei U, Groneberg DA, Schindler R. > > Source > > > > Division of Nephrology and Hypertension, Friedrich University Erlangen-Nürnberg, Erlangen, Germany. wanja.bernhardt@ > > Abstract > > INTRODUCTION: > > > > In small bowel disease such as M. Crohn, the intestinal absorption of oxalate is increased. Severe calcium oxalate deposition in multiple organs as consequence of enteric hyperoxaluria may lead to severe organ dysfunction and chronic renal failure. The management of hemodialyzed patients with short bowel syndrome may be associated with vascular access problems and oxalate infiltration of the bone marrow leading to pancytopenia. Although the risk of recurrence of the disease is very high after renal transplantation, it may be the ultimate therapeutic alternative in secondary hyperoxaluria. > > CASE: > > > > Here, we report a patient with enteric oxalosis due to Crohn's disease. He developed end-stage renal disease, erythropoietin-resistant anemia, oxalate infiltration of the bone marrow and severe vascular access problems. Following high-urgency kidney transplantation, daily hemodiafiltration of 3 hours was performed for 2 weeks to increase oxalate clearance. Despite tubular and interstitial deposition of oxalate in the renal transplant, the patient did not require further hemodialysis and the hematocrit levels normalized. > > DISCUSSION: > > > > Early treatment of hyperoxaluria due to short bowel syndrome is essential to prevent renal impairment. Declining renal function leads to a further increase in oxalate accumulation and consecutive oxalate deposition in the bone marrow or in the vascular wall. If alternative treatments such as special diet or daily hemodialysis are insufficient, kidney transplantation may be a therapeutic alternative in severe cases of enteric oxalosis despite a possible recurrence of the disease. > > > > PMID: > > 16550754 > > > > Nutrition. 1999 Jul-Aug;15(7-8):633-7. > > Management of patients with a short bowel. > > Nightingale JM. > > Source > > > > Leicester Royal Infirmary NHS Trust, UK. > > Abstract > > > > Short bowel syndrome most commonly results after bowel resections for Crohn's disease. The normal human small intestinal length ranges from about 3 to 8 m, thus if the initial small intestinal length is short, a relatively small resection of the intestine may result in the problems of a short bowel. Two types of patient with a short bowel are encountered in clinical practice: those with their jejunum anastomosed to a functioning colon, and those with a jejunostomy. Both types of patient have problems absorbing adequate macronutrients, and both need long-term vitamin B12 therapy. Patients with a jejunostomy also have major problems with large stomal losses of water, sodium, and magnesium. This high-volume jejunostomy output is treated by restricting oral fluids, giving a glucose-saline solution to drink, and using drugs that either reduce gastrointestinal motility (loperamide or codeine phosphate) or secretions (H2 antagonists, proton pump inhibitors, or octreotide). Patients whose jejunal length is less than 100 cm, and whose stomal output is greater than their oral intake, benefit most from antisecretory drugs. In patients with a retained colon, bacterial fermentation of unabsorbed carbohydrate in the colon results in energy being salvaged. However, they have increased oxalate absorption and a 25% chance of developing calcium oxalate renal stones. Thus patients with a colon are advised to eat a high-energy diet rich in carbohydrate but low in oxalate. Patients with a jejunostomy need a high-energy iso-osmolar diet with added salt. Both patient types have a 45% prevalence of gallstones. With current therapy most patients with a short bowel have a normal body mass index and a good quality of life. > > > > PMID: > > 10422101 > > > > Aliment Pharmacol Ther. 2000 Dec;14(12):1567-79. > > A pilot study of N-acetyl glucosamine, a nutritional substrate for glycosaminoglycan synthesis, in paediatric chronic inflammatory bowel disease. > > Salvatore S, Heuschkel R, Tomlin S, Davies SE, S, - JA, French I, Murch SH. > > Source > > > > University Department of Paediatric Gastroenterology, Royal Free, London, UK. > > Abstract > > BACKGROUND: > > > > The breakdown of glycosaminoglycans is an important consequence of inflammation at mucosal surfaces, and inhibition of metalloprotease activity may be effective in treating chronic inflammation. > > AIM: > > > > To report an alternative approach, using the nutriceutical agent N-acetyl glucosamine (GlcNAc), an amino-sugar directly incorporated into glycosaminoglycans and glycoproteins, as a substrate for tissue repair mechanisms. > > METHODS: > > > > GlcNAc (total daily dose 3-6 g) was administered orally as adjunct therapy to 12 children with severe treatment-resistant inflammatory bowel disease (10 Crohn's disease, 2 ulcerative colitis). Seven of these children suffered from symptomatic strictures. In addition, similar doses were administered rectally as sole therapy in nine children with distal ulcerative colitis or proctitis resistant to steroids and antibiotics. Where pre- and post-treatment biopsies were available (nine cases), histochemical assessment of epithelial and matrix glycosaminoglycans and GlcNAc residues was made. > > FINDINGS: > > > > Eight of the children given oral GlcNAc showed clear improvement, while four required resection. Of the children with symptomatic Crohn's stricture, only 3 of 7 have required surgery over a mean follow-up of > 2.5 years, and endoscopic or radiological improvement was detected in the others. Rectal administration induced remission in two cases, clear improvement in three and no effect in two. In all cases biopsied there was evidence of histological improvement, and a significant increase in epithelial and lamina propria glycosaminoglycans and intracellular GlcNAc. > > CONCLUSIONS: > > > > GlcNAc shows promise as an inexpensive and nontoxic treatment in chronic inflammatory bowel disease, with a mode of action which is distinct from conventional treatments. It may have the potential to be helpful in stricturing disease. However, controlled trials and an assessment of enteric-release preparations are required to confirm its efficacy and establish indications for use. > > > > PMID: > > 11121904 > > > > Eur J Paediatr Neurol. 2011 Sep 10. [Epub ahead of print] > > A potential pathogenic role of oxalate in autism. > > Konstantynowicz J, Porowski T, Zoch-Zwierz W, Wasilewska J, Kadziela-Olech H, Kulak W, Owens SC, Piotrowska-Jastrzebska J, Kaczmarski M. > > Source > > > > Department of Pediatrics and Developmental Disorders, Medical University of Bialystok, Poland. > > Abstract > > BACKGROUND: > > > > Although autistic spectrum disorders (ASD) are a strongly genetic condition certain metabolic disturbances may contribute to clinical features. Metabolism of oxalate in children with ASD has not yet been studied. > > AIM: > > > > The objective was to determine oxalate levels in plasma and urine in autistic children in relation to other urinary parameters. > > METHOD: > > > > In this cross-sectional study, plasma oxalate (using enzymatic method with oxalate oxidase) and spontaneous urinary calcium oxalate (CaOx) crystallization (based on the Bonn-Risk-Index, BRI) were determined in 36 children and adolescents with ASD (26 boys, 10 girls) aged 2-18 years and compared with 60 healthy non-autistic children matched by age, gender and anthropometric traits. > > RESULTS: > > > > Children with ASD demonstrated 3-fold greater plasma oxalate levels [5.60 (5th-95th percentile: 3.47-7.51)] compared with reference [(1.84 (5th-95th percentile: 0.50-4.70) & #956;mol/L (p < 0.05)] and 2.5-fold greater urinary oxalate concentrations (p < 0.05). No differences between the two groups were found in urinary pH, citraturia, calciuria or adjusted CaOx crystallization rates based on BRI. Despite significant hyperoxaluria no evidence of kidney stone disease or lithogenic risk was observed in these individuals. > > CONCLUSIONS: > > > > Hyperoxalemia and hyperoxaluria may be involved in the pathogenesis of ASD in children. Whether this is a result of impaired renal excretion or an extensive intestinal absorption, or both, or whether Ox may cross the blood brain barrier and disturb CNS function in the autistic children remains unclear. This appears to be the first report of plasma and urinary oxalate in childhood autism. > > > > Copyright © 2011 European Paediatric Neurology Society. Published by Elsevier Ltd. All rights reserved. > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 26, 2012 Report Share Posted February 26, 2012 Noel, I can see you've done your homework, and it is a delight to talk to someone who already has a lot of background looking at this. The research has changed DRAMATICALLY in the last three years. This is because of scientists finding out that the cystic fibrosis transporter (CFTR) has completely coordinated activity with a family of sulfate/oxalate exchangers and together they regulate intestinal pH and the transport of fluid across the gut epithelium. This coordinating family of transporters has ten different possible members doing the regulation of chloride, bicarbonate, sulfate, oxalate, and iodine transport in various organs all over the body, and even in some organelles. this is why " over-physiological " levels of oxalate can be so disruptive. Part of this system includes the transport of thiocyanate, a compound found to be extremely low in autism about twelve years ago in work done at the University of Birmingham in England by the sulfur scientist, Dr. Rosemary Waring. She found that the thiosulfate to thiocyanate ratio in autism in urine was fifty times too high. This suggests that the enzyme rhodanese isn't working. It also doesn't work in other conditions that have been associated with elevated levels of oxalate, which is why oxalate is a candidate as its major inhibitor, but that work hasn't been done. Rhodanese is a protein that detoxifies cyanide by linking sulfur from thiosulfate to the cyanide ion, forming thiocyanate, but it also is critical for managing iron-sulfur center issues in the electron transport chain. That is where we make most of our ATP. You can't sulfate things if you get low in ATP, because sulfate has to be converted by ATP before it can be used to detoxify. You also can't recycle glutathione without ATP. Your biotin dependent enzymes also need ATP. Once thiocyanate is made, it is then transported via the transporters I just mentioned, across the gut epithelium, and is acted upon by a peroxidase enzyme that converts it into hypothiocyanate. This new compound is a powerful antimicrobial which is what protects our mucus membranes from infection. This regulation is not working in cystic fibrosis, which is why they often die of lung infections. Their gut, though, is also not ok, with the same problems that are in the lung. When thiocyanate hasn't gotten across the gut because of a breakdown in this system, then the peroxide that isn't acted on by the peroxidase becomes toxic to the gut epithelium. Also, cyanide is still around to be detoxified, and I'm sure you've heard of cyanide poisoning. Scrambling for something to do, the body steals away methyl and hydroxycobalamin to use to form cyanocobalamin, and one of the proofs that this is happening is that blood levels of cyanocobalamin will increase, and your doctor might find this paradoxical because at the same time you will be desperately low in cobalamin activity to run things like methionine synthase which Dick Deth talks about a lot. What nobody has really understood is why these GI issues come on suddenly in these bowel diseases. A lot of that might be explained by the phenomenon we have learned so well on the oxalate listserve, and that is the process called " dumping " , when somewhere in the body, all of a sudden, huge amounts of oxalate that had been stored in tissues is mobilized. This has been described in literature in primary hyperoxaluria. The process is understood to be so extreme that in that disease, this sudden large release can even be fatal if it kills the transplanted organs. This is why they often put these patients on intense dialysis to get rid of stored body oxalate before they even do a transplant. This often happens later in life when they have stored oxalate for several decades. I have a chart showing in one patient that she continued to " dump oxalate " into blood plasma for seven years. We don't know for sure, but we think this release is what causes the sandy stools that are seen in autism. I have begged the scientists I know who are the top researchers in the oxalate field to study the sandy stools, but they just don't " believe in them " , because these sandy stools are not sitting in their toilets. It doesn't seem to matter how many descriptions I send from parents, people in the field don't believe the sandy stools are real, and I have yet to find a gastroenterologist not serving autism comunity who has even heard of a sandy stool. Even so, people on our listserve who don't have autism but have other oxalate-related conditions also report the sandy stool. We have wondered if the sandy stool may form when the oxalate transported across the but epithelium from blood finds calcium to bind in the gut. But what would happen when sufficient calcium isn't there? Are you familiar with how corrosive oxalic acid is? These issues need to be studied, but it does argue for why VSL#3, in being able to degrade oxalate, can improve on this situation. There are many reasons to suspect that oxalate levels in the urine are probably NOT stable when someone has these releases of oxalate. The Gamelins are some French researchers who studied cancer patients given a drug that incidentally releases large amounts of oxalate in the blood. Patients experience sometimes what seems to be permanent neurotoxicity which is diminished by giving them calcium and magnesium in the same IV. The wife, a toxicologist, did research on how the oxalate affected neurons by disrupting calcium signalling and the operation of sodium channels. The issue is, that unlike what had been the presumed by renal researchers in oxalate, oxalate trafficking also strongly involves the gut, as well it should since oxalate secreted from blood to the center of the gut can find oxalate degrading flora to convert it to something harmless. The system breaks when antibiotics have killed the necessary microbes, which is a HUGE issue in cystic fibrosis. People with primary hyperoxaluria, where their oxalate comes from making it in the body, most of the time have serious intestinal complaints. So do people with other conditions known to absorb excess oxalate, like celiac disease and cystic fibrosis. Our paper in the EJPN was an important first step in getting scientists to stop thinking of oxalate as a kidney thing, and start recognizing it as an " all over the body " thing. That was a first step that had to take place before any gastroenterologist would think about studying its effects in the gut. So, that is a little intro for you. > > > > > > > > > > > > Thanks everyone for the info on my crohns and uc email. Noel, others, > > have you ever tried LDN with any luck? > > > > Cheers, > > > > > > > > > > > > -- Sent from my Palm Pre > > > > > > > > > > > > > > > > > > > > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted February 27, 2012 Report Share Posted February 27, 2012 Yes, it's the annoying parasite woman again - But just wanted to make note that my daughter's regression started after a serious (documented, tested, reported to health dept.) salmonella infection which begun with a high fever and days of sandy stools. Celiac with sandy stools started for me following Giardia infection. When you write " we think this release is what causes the sandy stools that are seen in autism " and a description of adults who " have stored oxalate for several decades " , I must ask the questions " Why is there a release? " , and " Why have they been storing oxalates for decades? " . An explanation of what the body does isn't an explanation of why- so for me historically the questions aren't really answered if just a description of a body process is offered in significant detail, then the statement that 'this is what is happening' is offered as explanation, or a name is given to the behavior or symptom with the title 'disorder' after it. I wish there were more focus in research and medicine on why disease develops than on description of disease process, as somehow an end in its own right, is all I am suggesting. The description is extraordinary, but can't we work to get to the bottom of things and not accept understanding of process as understanding of cause? > > Noel, > > I can see you've done your homework, and it is a delight to talk to someone who already has a lot of background looking at this. > > The research has changed DRAMATICALLY in the last three years. This is because of scientists finding out that the cystic fibrosis transporter (CFTR) has completely coordinated activity with a family of sulfate/oxalate exchangers and together they regulate intestinal pH and the transport of fluid across the gut epithelium. This coordinating family of transporters has ten different possible members doing the regulation of chloride, bicarbonate, sulfate, oxalate, and iodine transport in various organs all over the body, and even in some organelles. this is why " over-physiological " levels of oxalate can be so disruptive. > > Part of this system includes the transport of thiocyanate, a compound found to be extremely low in autism about twelve years ago in work done at the University of Birmingham in England by the sulfur scientist, Dr. Rosemary Waring. She found that the thiosulfate to thiocyanate ratio in autism in urine was fifty times too high. This suggests that the enzyme rhodanese isn't working. It also doesn't work in other conditions that have been associated with elevated levels of oxalate, which is why oxalate is a candidate as its major inhibitor, but that work hasn't been done. > > Rhodanese is a protein that detoxifies cyanide by linking sulfur from thiosulfate to the cyanide ion, forming thiocyanate, but it also is critical for managing iron-sulfur center issues in the electron transport chain. That is where we make most of our ATP. You can't sulfate things if you get low in ATP, because sulfate has to be converted by ATP before it can be used to detoxify. You also can't recycle glutathione without ATP. Your biotin dependent enzymes also need ATP. > > Once thiocyanate is made, it is then transported via the transporters I just mentioned, across the gut epithelium, and is acted upon by a peroxidase enzyme that converts it into hypothiocyanate. This new compound is a powerful antimicrobial which is what protects our mucus membranes from infection. This regulation is not working in cystic fibrosis, which is why they often die of lung infections. Their gut, though, is also not ok, with the same problems that are in the lung. > > When thiocyanate hasn't gotten across the gut because of a breakdown in this system, then the peroxide that isn't acted on by the peroxidase becomes toxic to the gut epithelium. Also, cyanide is still around to be detoxified, and I'm sure you've heard of cyanide poisoning. Scrambling for something to do, the body steals away methyl and hydroxycobalamin to use to form cyanocobalamin, and one of the proofs that this is happening is that blood levels of cyanocobalamin will increase, and your doctor might find this paradoxical because at the same time you will be desperately low in cobalamin activity to run things like methionine synthase which Dick Deth talks about a lot. > > What nobody has really understood is why these GI issues come on suddenly in these bowel diseases. A lot of that might be explained by the phenomenon we have learned so well on the oxalate listserve, and that is the process called " dumping " , when somewhere in the body, all of a sudden, huge amounts of oxalate that had been stored in tissues is mobilized. This has been described in literature in primary hyperoxaluria. The process is understood to be so extreme that in that disease, this sudden large release can even be fatal if it kills the transplanted organs. This is why they often put these patients on intense dialysis to get rid of stored body oxalate before they even do a transplant. This often happens later in life when they have stored oxalate for several decades. I have a chart showing in one patient that she continued to " dump oxalate " into blood plasma for seven years. > > We don't know for sure, but we think this release is what causes the sandy stools that are seen in autism. I have begged the scientists I know who are the top researchers in the oxalate field to study the sandy stools, but they just don't " believe in them " , because these sandy stools are not sitting in their toilets. It doesn't seem to matter how many descriptions I send from parents, people in the field don't believe the sandy stools are real, and I have yet to find a gastroenterologist not serving autism comunity who has even heard of a sandy stool. Even so, people on our listserve who don't have autism but have other oxalate-related conditions also report the sandy stool. > > We have wondered if the sandy stool may form when the oxalate transported across the but epithelium from blood finds calcium to bind in the gut. But what would happen when sufficient calcium isn't there? > > Are you familiar with how corrosive oxalic acid is? > > These issues need to be studied, but it does argue for why VSL#3, in being able to degrade oxalate, can improve on this situation. > > There are many reasons to suspect that oxalate levels in the urine are probably NOT stable when someone has these releases of oxalate. The Gamelins are some French researchers who studied cancer patients given a drug that incidentally releases large amounts of oxalate in the blood. Patients experience sometimes what seems to be permanent neurotoxicity which is diminished by giving them calcium and magnesium in the same IV. The wife, a toxicologist, did research on how the oxalate affected neurons by disrupting calcium signalling and the operation of sodium channels. > > The issue is, that unlike what had been the presumed by renal researchers in oxalate, oxalate trafficking also strongly involves the gut, as well it should since oxalate secreted from blood to the center of the gut can find oxalate degrading flora to convert it to something harmless. The system breaks when antibiotics have killed the necessary microbes, which is a HUGE issue in cystic fibrosis. > > People with primary hyperoxaluria, where their oxalate comes from making it in the body, most of the time have serious intestinal complaints. So do people with other conditions known to absorb excess oxalate, like celiac disease and cystic fibrosis. > > Our paper in the EJPN was an important first step in getting scientists to stop thinking of oxalate as a kidney thing, and start recognizing it as an " all over the body " thing. That was a first step that had to take place before any gastroenterologist would think about studying its effects in the gut. > > So, that is a little intro for you. > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted March 1, 2012 Report Share Posted March 1, 2012 ,Is there a way for kids with Autism to supplement Rhodanese and if so would it help?Thanks,Sent from my iPhone Noel, I can see you've done your homework, and it is a delight to talk to someone who already has a lot of background looking at this. The research has changed DRAMATICALLY in the last three years. This is because of scientists finding out that the cystic fibrosis transporter (CFTR) has completely coordinated activity with a family of sulfate/oxalate exchangers and together they regulate intestinal pH and the transport of fluid across the gut epithelium. This coordinating family of transporters has ten different possible members doing the regulation of chloride, bicarbonate, sulfate, oxalate, and iodine transport in various organs all over the body, and even in some organelles. this is why "over-physiological" levels of oxalate can be so disruptive. Part of this system includes the transport of thiocyanate, a compound found to be extremely low in autism about twelve years ago in work done at the University of Birmingham in England by the sulfur scientist, Dr. Rosemary Waring. She found that the thiosulfate to thiocyanate ratio in autism in urine was fifty times too high. This suggests that the enzyme rhodanese isn't working. It also doesn't work in other conditions that have been associated with elevated levels of oxalate, which is why oxalate is a candidate as its major inhibitor, but that work hasn't been done. Rhodanese is a protein that detoxifies cyanide by linking sulfur from thiosulfate to the cyanide ion, forming thiocyanate, but it also is critical for managing iron-sulfur center issues in the electron transport chain. That is where we make most of our ATP. You can't sulfate things if you get low in ATP, because sulfate has to be converted by ATP before it can be used to detoxify. You also can't recycle glutathione without ATP. Your biotin dependent enzymes also need ATP. Once thiocyanate is made, it is then transported via the transporters I just mentioned, across the gut epithelium, and is acted upon by a peroxidase enzyme that converts it into hypothiocyanate. This new compound is a powerful antimicrobial which is what protects our mucus membranes from infection. This regulation is not working in cystic fibrosis, which is why they often die of lung infections. Their gut, though, is also not ok, with the same problems that are in the lung. When thiocyanate hasn't gotten across the gut because of a breakdown in this system, then the peroxide that isn't acted on by the peroxidase becomes toxic to the gut epithelium. Also, cyanide is still around to be detoxified, and I'm sure you've heard of cyanide poisoning. Scrambling for something to do, the body steals away methyl and hydroxycobalamin to use to form cyanocobalamin, and one of the proofs that this is happening is that blood levels of cyanocobalamin will increase, and your doctor might find this paradoxical because at the same time you will be desperately low in cobalamin activity to run things like methionine synthase which Dick Deth talks about a lot. What nobody has really understood is why these GI issues come on suddenly in these bowel diseases. A lot of that might be explained by the phenomenon we have learned so well on the oxalate listserve, and that is the process called "dumping", when somewhere in the body, all of a sudden, huge amounts of oxalate that had been stored in tissues is mobilized. This has been described in literature in primary hyperoxaluria. The process is understood to be so extreme that in that disease, this sudden large release can even be fatal if it kills the transplanted organs. This is why they often put these patients on intense dialysis to get rid of stored body oxalate before they even do a transplant. This often happens later in life when they have stored oxalate for several decades. I have a chart showing in one patient that she continued to "dump oxalate" into blood plasma for seven years. We don't know for sure, but we think this release is what causes the sandy stools that are seen in autism. I have begged the scientists I know who are the top researchers in the oxalate field to study the sandy stools, but they just don't "believe in them", because these sandy stools are not sitting in their toilets. It doesn't seem to matter how many descriptions I send from parents, people in the field don't believe the sandy stools are real, and I have yet to find a gastroenterologist not serving autism comunity who has even heard of a sandy stool. Even so, people on our listserve who don't have autism but have other oxalate-related conditions also report the sandy stool. We have wondered if the sandy stool may form when the oxalate transported across the but epithelium from blood finds calcium to bind in the gut. But what would happen when sufficient calcium isn't there? Are you familiar with how corrosive oxalic acid is? These issues need to be studied, but it does argue for why VSL#3, in being able to degrade oxalate, can improve on this situation. There are many reasons to suspect that oxalate levels in the urine are probably NOT stable when someone has these releases of oxalate. The Gamelins are some French researchers who studied cancer patients given a drug that incidentally releases large amounts of oxalate in the blood. Patients experience sometimes what seems to be permanent neurotoxicity which is diminished by giving them calcium and magnesium in the same IV. The wife, a toxicologist, did research on how the oxalate affected neurons by disrupting calcium signalling and the operation of sodium channels. The issue is, that unlike what had been the presumed by renal researchers in oxalate, oxalate trafficking also strongly involves the gut, as well it should since oxalate secreted from blood to the center of the gut can find oxalate degrading flora to convert it to something harmless. The system breaks when antibiotics have killed the necessary microbes, which is a HUGE issue in cystic fibrosis. People with primary hyperoxaluria, where their oxalate comes from making it in the body, most of the time have serious intestinal complaints. So do people with other conditions known to absorb excess oxalate, like celiac disease and cystic fibrosis. Our paper in the EJPN was an important first step in getting scientists to stop thinking of oxalate as a kidney thing, and start recognizing it as an "all over the body" thing. That was a first step that had to take place before any gastroenterologist would think about studying its effects in the gut. So, that is a little intro for you. > > > > > > > > > > > > Thanks everyone for the info on my crohns and uc email. Noel, others, > > have you ever tried LDN with any luck? > > > > Cheers, > > > > > > > > > > > > -- Sent from my Palm Pre > > > > > > > > > > > > > > > > > > > > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted March 1, 2012 Report Share Posted March 1, 2012 Hi, , Great question! It is certainly confusing that we use the word " enzyme " to refer to the proteins in the gut that do digesting for us, but the term really applies to any protein that catalyzes or makes faster, a chemical reaction. But the " gut thing " is the use of that term that most people hear. Rhodanese is an enzyme inside the mitochondrion of cells which are also inside the cell membrane of cells, and this is all over the body. There is no way that taking such an enzyme would ever get to the site where it works. In protein malnutrition, the body will even " digest " its own digestive enzymes because it gets so desperate for obtaining the amino acids that are the building blocks of proteins and all enzymes. For this reason, you cannot give someone who has been deficient in protein a big dose of protein to make them better, because they won't have enzymes in the gut that can digest it. It takes instead a slow change to allow the body to catch up. But, we cannot supplement enzymes that are intracellular. We can supplement nutrients like vitamins that have regulated ways to enter cells, but the cell membrane, and even the organelle membrane (like the mitochondrial membrane) are very selective about which proteins are allowed in. Things that are made inside aren't imported into cell, generally. So, long before it got to where it needed to go, it would have been split apart and turned into something else. No, the only thing you can do is stop the situation that led to rhodanese getting low in the first place. There are no clear suspects in the literature on that, but oxalate is a pretty good candidate, because the conditions where rhodanaese has been found deficient in activity are conditions known to have problems with oxalate building up. That's why we hope that those who go on a low oxalate diet and stop any process of making endogenous oxalate will get their rhodanese activity back. Until it is back, at least taking methyl-B12 will help to deal with the cyanide. By the way, almonds are BIG source of cyanide, and so is spinach, both foods that may be packaging the inhibitor oxalate with the poison, cyanide. BAD combination for someone with a disease where scientists have found low rhodanese activity. Cyanide even smells like almonds. Rhodanese is apparently critical for effective operation of the electron transport chain...where we make ATP to supply energy to reactions. Without it, so much breaks, like recycling glutathione, using sulfate to detoxify in the body, using biotin in critical enzymes in the mitochondrion, moving stuff across membranes using ATPases. So many lab findings in autism should be understood in this light. > > , > > Is there a way for kids with Autism to supplement Rhodanese and if so would it help? > > Thanks, > > > Sent from my iPhone > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted March 1, 2012 Report Share Posted March 1, 2012 Very interesting, . Thank you!Sent from my iPhone Hi, , Great question! It is certainly confusing that we use the word "enzyme" to refer to the proteins in the gut that do digesting for us, but the term really applies to any protein that catalyzes or makes faster, a chemical reaction. But the "gut thing" is the use of that term that most people hear. Rhodanese is an enzyme inside the mitochondrion of cells which are also inside the cell membrane of cells, and this is all over the body. There is no way that taking such an enzyme would ever get to the site where it works. In protein malnutrition, the body will even "digest" its own digestive enzymes because it gets so desperate for obtaining the amino acids that are the building blocks of proteins and all enzymes. For this reason, you cannot give someone who has been deficient in protein a big dose of protein to make them better, because they won't have enzymes in the gut that can digest it. It takes instead a slow change to allow the body to catch up. But, we cannot supplement enzymes that are intracellular. We can supplement nutrients like vitamins that have regulated ways to enter cells, but the cell membrane, and even the organelle membrane (like the mitochondrial membrane) are very selective about which proteins are allowed in. Things that are made inside aren't imported into cell, generally. So, long before it got to where it needed to go, it would have been split apart and turned into something else. No, the only thing you can do is stop the situation that led to rhodanese getting low in the first place. There are no clear suspects in the literature on that, but oxalate is a pretty good candidate, because the conditions where rhodanaese has been found deficient in activity are conditions known to have problems with oxalate building up. That's why we hope that those who go on a low oxalate diet and stop any process of making endogenous oxalate will get their rhodanese activity back. Until it is back, at least taking methyl-B12 will help to deal with the cyanide. By the way, almonds are BIG source of cyanide, and so is spinach, both foods that may be packaging the inhibitor oxalate with the poison, cyanide. BAD combination for someone with a disease where scientists have found low rhodanese activity. Cyanide even smells like almonds. Rhodanese is apparently critical for effective operation of the electron transport chain...where we make ATP to supply energy to reactions. Without it, so much breaks, like recycling glutathione, using sulfate to detoxify in the body, using biotin in critical enzymes in the mitochondrion, moving stuff across membranes using ATPases. So many lab findings in autism should be understood in this light. > > , > > Is there a way for kids with Autism to supplement Rhodanese and if so would it help? > > Thanks, > > > Sent from my iPhone > TODAY(Beta) • Quote Link to comment Share on other sites More sharing options...
Guest guest Posted March 1, 2012 Report Share Posted March 1, 2012 , Really? You got sandy stools after a giardia infection? I just don't " get it " why every gastrointestinal doctor I talk to looks at me as if I have two heads when I talk about sandy stools....They say they've never seen or even heard of them, but that is obviously NOT the case in your family. When you get into talking about the immune system, you get into some of my favorite turf. My first class in graduate school was immunology and after the end of that class, the professor, who also teaches medical students, said that our class had twice the material and the depth of what he taught compared to his med students. I don't know about that, but I do know that what I learned " took " in me, and I became an avid reader of immunology textbooks, just for fun. (Seriously!) I like to think of the immune response as being very similar to what happens when a country declares war. My mother was a young adult in WWII, and she told me about all the rationing. I learned after we bought a house built post war that instead of using metal sewer pipes, they used some made of really strong cardboard (orangeburg pipe---http://en.wikipedia.org/wiki/Orangeburg_pipe). This was used because every snit of metal had been used to make bombs and airplanes during the war. When you have an immune response, there is a very coordinated set of changes that takes place to alter the allocation of resources in your chemical being, just like war. A lot of this involves sulfate, because sulfate is needed to make immunoglobulins and the detoxify all the stuff that dies. Macrophages are the big recycling centers that get summonsed to where there is a lot of debris left on the " battlefield " . They do a lot in sulfate management, but sulfate AND oxalate are managed together because they are so biochemically similar. Look at these pictures: sulfate: http://0.tqn.com/d/chemistry/1/0/H/P/1/sulfate.jpg oxalate: http://upload.wikimedia.org/wikipedia/commons/4/46/Sodium-oxalate-2D.png See how they both have 4 oxygens surrounding a center? The center is sulfur in sulfate, but is two carbons in oxalate. The outer shape and charges of these molecules is similar enough that nature traffics them the same. So, if your immune system, because you are sick, has shifted things to accomodate moving sulfate around your body more quickly, it will do the same with oxalate....that is, if it is there. It is not normal for high levels of it to be there, but that may have happened if you had a leaky gut for a long time and were eating high oxalate foods, or if you were under oxidative stress a long time and had been making oxalate that was stored in cells. Oxalate scientists cannot believe the levels of oxalate that we are finding in children with autism, but now that our paper in the European Journal of Paediatric Neurology has shown how high the levels can get, they don't know what to make of it. We saw levels that got as high as people with primary hyperoxaluria, a disease so rare that it occurs in only one out of a million people, but yet, I went to a conference of scientists looking at this disease, and there were about a fifty of them. Pretty good patient to scientist ratio, wouldn't you say? Certainly, the levels we found in the study of autism are high enough to disrupt a LOT of biochemistry. Just to give you a feel for how much oxalate can be released at once in someone who had stashed a lot away, please read this study: http://dermatology.cdlib.org/101/case_reports/oxaluria/hsu.html This study talks about livedo reticularis that happened in this lady as being rare, but it certainly was not rare in our listserve as people began lowering oxalate and experiencing what we call dumping. So, , it may have been the changes you got from the infections that changed the trafficking of oxalate, but the oxalate still had to be there to be moved suddenly from place to place. Does that make sense? If you want to learn more about sulfate trafficking, there is a lot of information about that in the archives of sulfurstories. Thoughts after this info? > > > > Noel, > > > > I can see you've done your homework, and it is a delight to talk to someone who already has a lot of background looking at this. > > > > The research has changed DRAMATICALLY in the last three years. This is because of scientists finding out that the cystic fibrosis transporter (CFTR) has completely coordinated activity with a family of sulfate/oxalate exchangers and together they regulate intestinal pH and the transport of fluid across the gut epithelium. This coordinating family of transporters has ten different possible members doing the regulation of chloride, bicarbonate, sulfate, oxalate, and iodine transport in various organs all over the body, and even in some organelles. this is why " over-physiological " levels of oxalate can be so disruptive. > > > > Part of this system includes the transport of thiocyanate, a compound found to be extremely low in autism about twelve years ago in work done at the University of Birmingham in England by the sulfur scientist, Dr. Rosemary Waring. She found that the thiosulfate to thiocyanate ratio in autism in urine was fifty times too high. This suggests that the enzyme rhodanese isn't working. It also doesn't work in other conditions that have been associated with elevated levels of oxalate, which is why oxalate is a candidate as its major inhibitor, but that work hasn't been done. > > > > Rhodanese is a protein that detoxifies cyanide by linking sulfur from thiosulfate to the cyanide ion, forming thiocyanate, but it also is critical for managing iron-sulfur center issues in the electron transport chain. That is where we make most of our ATP. You can't sulfate things if you get low in ATP, because sulfate has to be converted by ATP before it can be used to detoxify. You also can't recycle glutathione without ATP. Your biotin dependent enzymes also need ATP. > > > > Once thiocyanate is made, it is then transported via the transporters I just mentioned, across the gut epithelium, and is acted upon by a peroxidase enzyme that converts it into hypothiocyanate. This new compound is a powerful antimicrobial which is what protects our mucus membranes from infection. This regulation is not working in cystic fibrosis, which is why they often die of lung infections. Their gut, though, is also not ok, with the same problems that are in the lung. > > > > When thiocyanate hasn't gotten across the gut because of a breakdown in this system, then the peroxide that isn't acted on by the peroxidase becomes toxic to the gut epithelium. Also, cyanide is still around to be detoxified, and I'm sure you've heard of cyanide poisoning. Scrambling for something to do, the body steals away methyl and hydroxycobalamin to use to form cyanocobalamin, and one of the proofs that this is happening is that blood levels of cyanocobalamin will increase, and your doctor might find this paradoxical because at the same time you will be desperately low in cobalamin activity to run things like methionine synthase which Dick Deth talks about a lot. > > > > What nobody has really understood is why these GI issues come on suddenly in these bowel diseases. A lot of that might be explained by the phenomenon we have learned so well on the oxalate listserve, and that is the process called " dumping " , when somewhere in the body, all of a sudden, huge amounts of oxalate that had been stored in tissues is mobilized. This has been described in literature in primary hyperoxaluria. The process is understood to be so extreme that in that disease, this sudden large release can even be fatal if it kills the transplanted organs. This is why they often put these patients on intense dialysis to get rid of stored body oxalate before they even do a transplant. This often happens later in life when they have stored oxalate for several decades. I have a chart showing in one patient that she continued to " dump oxalate " into blood plasma for seven years. > > > > We don't know for sure, but we think this release is what causes the sandy stools that are seen in autism. I have begged the scientists I know who are the top researchers in the oxalate field to study the sandy stools, but they just don't " believe in them " , because these sandy stools are not sitting in their toilets. It doesn't seem to matter how many descriptions I send from parents, people in the field don't believe the sandy stools are real, and I have yet to find a gastroenterologist not serving autism comunity who has even heard of a sandy stool. Even so, people on our listserve who don't have autism but have other oxalate-related conditions also report the sandy stool. > > > > We have wondered if the sandy stool may form when the oxalate transported across the but epithelium from blood finds calcium to bind in the gut. But what would happen when sufficient calcium isn't there? > > > > Are you familiar with how corrosive oxalic acid is? > > > > These issues need to be studied, but it does argue for why VSL#3, in being able to degrade oxalate, can improve on this situation. > > > > There are many reasons to suspect that oxalate levels in the urine are probably NOT stable when someone has these releases of oxalate. The Gamelins are some French researchers who studied cancer patients given a drug that incidentally releases large amounts of oxalate in the blood. Patients experience sometimes what seems to be permanent neurotoxicity which is diminished by giving them calcium and magnesium in the same IV. The wife, a toxicologist, did research on how the oxalate affected neurons by disrupting calcium signalling and the operation of sodium channels. > > > > The issue is, that unlike what had been the presumed by renal researchers in oxalate, oxalate trafficking also strongly involves the gut, as well it should since oxalate secreted from blood to the center of the gut can find oxalate degrading flora to convert it to something harmless. The system breaks when antibiotics have killed the necessary microbes, which is a HUGE issue in cystic fibrosis. > > > > People with primary hyperoxaluria, where their oxalate comes from making it in the body, most of the time have serious intestinal complaints. So do people with other conditions known to absorb excess oxalate, like celiac disease and cystic fibrosis. > > > > Our paper in the EJPN was an important first step in getting scientists to stop thinking of oxalate as a kidney thing, and start recognizing it as an " all over the body " thing. That was a first step that had to take place before any gastroenterologist would think about studying its effects in the gut. > > > > So, that is a little intro for you. > > > > > > > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted March 5, 2012 Report Share Posted March 5, 2012 ,Is it possible one might cause an oxalate "dump" by adding a sulfur supplement (MSM) and ferritin? Are Oxalate dumps more random than this? Think I need to join the trying low oxalates group.. Thanks Sent from my iPhone Hi, , Great question! It is certainly confusing that we use the word "enzyme" to refer to the proteins in the gut that do digesting for us, but the term really applies to any protein that catalyzes or makes faster, a chemical reaction. But the "gut thing" is the use of that term that most people hear. Rhodanese is an enzyme inside the mitochondrion of cells which are also inside the cell membrane of cells, and this is all over the body. There is no way that taking such an enzyme would ever get to the site where it works. In protein malnutrition, the body will even "digest" its own digestive enzymes because it gets so desperate for obtaining the amino acids that are the building blocks of proteins and all enzymes. For this reason, you cannot give someone who has been deficient in protein a big dose of protein to make them better, because they won't have enzymes in the gut that can digest it. It takes instead a slow change to allow the body to catch up. But, we cannot supplement enzymes that are intracellular. We can supplement nutrients like vitamins that have regulated ways to enter cells, but the cell membrane, and even the organelle membrane (like the mitochondrial membrane) are very selective about which proteins are allowed in. Things that are made inside aren't imported into cell, generally. So, long before it got to where it needed to go, it would have been split apart and turned into something else. No, the only thing you can do is stop the situation that led to rhodanese getting low in the first place. There are no clear suspects in the literature on that, but oxalate is a pretty good candidate, because the conditions where rhodanaese has been found deficient in activity are conditions known to have problems with oxalate building up. That's why we hope that those who go on a low oxalate diet and stop any process of making endogenous oxalate will get their rhodanese activity back. Until it is back, at least taking methyl-B12 will help to deal with the cyanide. By the way, almonds are BIG source of cyanide, and so is spinach, both foods that may be packaging the inhibitor oxalate with the poison, cyanide. BAD combination for someone with a disease where scientists have found low rhodanese activity. Cyanide even smells like almonds. Rhodanese is apparently critical for effective operation of the electron transport chain...where we make ATP to supply energy to reactions. Without it, so much breaks, like recycling glutathione, using sulfate to detoxify in the body, using biotin in critical enzymes in the mitochondrion, moving stuff across membranes using ATPases. So many lab findings in autism should be understood in this light. > > , > > Is there a way for kids with Autism to supplement Rhodanese and if so would it help? > > Thanks, > > > Sent from my iPhone > Quote Link to comment Share on other sites More sharing options...
Guest guest Posted March 5, 2012 Report Share Posted March 5, 2012 , To us, dumps are random, but not to our bodies. Oxalate stores as calcium oxalate in the endoplasmic reticulum of cells, and as concentration gradients change, more becomes soluble, allowing the oxalate to leave. They've noticed this happening in primary hyperoxaluria patients who have had a liver transplant, and the body gradually releases all the oxalate that was stored all over the body. I have a chart on our lowoxalate.info site (not indexed because of copyright issues) that shows how long it took oxalate levels to bounce up and down in the body over seven years as this one patient detoxified: http://www.lowoxalate.info/oxalate_in_plasma_over_time.bmp So you can see, it is NOT an " even " process. It goes in cycles, and each cycle can have a different intensity. Probably, this happens because one site somewhere in the body reaches that magic place where oxalate levels leaving the cell get high enough to be noticeable. No one has really studied this process scientifically the way I'd like to see it studied, but we have surely observed it on the TLO listserve, that now has 4500 people on it. That's a LOT of experience with dumping! We'd love to see you there... > > > > , > > > > Is there a way for kids with Autism to supplement Rhodanese and if so would it help? > > > > Thanks, > > > > > > Sent from my iPhone > > > Quote Link to comment Share on other sites More sharing options...
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