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Saturday, 2 July 2016

Biogaia Trial for Inflammatory Autism Subtypes



UPDATE: A significant minority of parents report negative reaction to Bio Gaia, this seems to relate to histamine; but more than 50% report very positive effects without any side effects; so best to try a very small dose initially to see if it is not well tolerated. 
Histamine Reaction to Bio Gaia gastrus


Alli, our reader from Switzerland, has established that a large daily dose (5 tablets a day, cycled 3 weeks on and 3 weeks off) of the Biogaia Gastrus probiotic has a positive effect on the inflammatory sub-type of her son’s autism and also in other people she has shared her therapy with.  There is plenty of science to support its use.

In earlier posts I looked at a different probiotic bacteria (Clostridium butyricum Miyairi 588) that is widely used in animals to improve auto-immune health.  That bacteria is used in humans, but as is the case with BioGaia Gastrus, the focus is on stomach health not auto immunity.  Nobody has proposed an effective dose of Miyairi 588 in human autism; I have only used it in small doses.

It turns out that there is vast wealth of research into the effects of specific probiotic bacteria.  The research is really very interesting for anyone with any kind of allergy.  I expect that, as Alli found, the potential therapeutic benefit goes far wider, to many kinds of inflammatory disease outside the gut, particularly the very hard to treat ones, perhaps even MS (multiple sclerosis).


Biogaia and Lactobacillus Reuteri 

Lactobacillus reuteri is a species of bacteria that belongs to one of the major lactic-acid producing genera of bacteria. It can be found in the human intestinal tract, though not always and often in relatively low numbers. Lactobacillus reuteri is also found in the gut of other mammals and birds.
Initially, Lactobacillus reuteri was used to treat necrotizing colitis, a gastrointestinal disease characterized by infection and inflammation that is particularly dangerous for infants, particularly those born prematurely. Lactobacillus reuteri was used due to its anti-inflammatory effects.
The research on Lactobacillus reuteri and necrotizing colitis used the Lactobacillus reuteri strains ATCC 55730 and its daughter strain DSM 17938, both of which can survive oral supplementation.
Interest in Lactobacillus reuteri grew after research confirmed that changing aspects of the digestive system can influence the immune system. A strain of Lactobacillus reuteri called ATCC PTA 6475 has been found to improve levels of testosterone and oxytocin, as well as skin quality in animal studies. Research on animals has also found potential benefits for hair quality, bone mass and preventing weight gain from obesity-causing diets.
One of the ways Lactobacillus reuteri may work involves a kind of T cell called a Treg cell (a T cell that down-regulates the immune system in part by producing a cytokine called IL-10). Lactobacillus reuteri increases the amount of Treg cells in the body, which suppresses the actions of another kind of T cell called a Th17 cell (which secretes IL-17). Preserving or reversing this process (either by increasing IL-10 or by blocking IL-17) appears to provide therapeutic benefits.
Lactobacillus reuteri increases the number of Treg cells in the intestines, which can then be absorbed back into the blood to benefit the rest of the body.


BioGaia Gastrus is a combination of the well-researched probiotic strain Lactobacillus reuteri17938 (Lactobacillus reuteri Protectis) and the anti-inflammatory strain Lactobacillus reuteri ATCC PTA 6475. It contains 200 million CFU of live bacteria.

The original Biogaia product is called BioGaia Protectis; it only contains Lactobacillus reuteri 17938 (Lactobacillus reuteri Protectis).  It contains 100 million CFU of live bacteria.

Since some readers are already trialing Alli’s therapy, I thought it would be useful to have a single place on this blog where people could leave feedback.  Here is her explanation:-



Dear all,

Lactobacillus Reuteri ATCC 55730 was initially discovered and sourced from women from Peru who carried this strain in their breast milk. 

"The first strain of Lactobacillus reuteri for human use was isolated in 1990 from the breast milk of a Peruvian mother living in the Andes. This strain was deposited at the American Type Culture Collection (ATCC) as Lactobacillus reuteri SD 2112 (SD = safety deposit), and was later given the number ATCC 55730.

In 2007 Lactobacillus reuteri ATCC 55730 was replaced by the “daughter strain” Lactobacillus reuteri DSM 17938. The only difference between the strains is the loss of two plasmids of ATCC 55730 that carried resistance to tetracycline and lincomycin, respectively."http://www.biogaia.com/history-lactobacillus-reuteri

Through my personal review of immunology literature and ASD/immunity related literature and documenting crossroads between immune pathways and Mtor pathways, I came to the conclusion more than one year ago that this was a very interesting strain to try on my son with ASD and a TH1 profile. Biogaia Gastrus was only available in Korea and Italy at the time so I ordered it from an Italian pharmacy online.
It has helped my son significantly in combination with other interventions.

The mechanism at stake is probably the following:

- downregulation of TH1 through upregulation of IL-10 and downregulation of IL-17
This prevents autoimmune phenomena and cytokine flares which affect cognition in certain subtypes of ASD. However, the downside is that long term intake also impairs one's immune system's capacity to fight off infections... 

We use Biogaia on and off for 3 week periods- at a dosage of 5 tablets a day (less is useless in terms of potency).

Use must be stopped if a child shoes any sign of infection.

I have shared this over the past year with several parents around me who have children with similar subtypes and they report similar results.



Effect of Lactobacillus reuteri 17938 on Monty

My son Monty, aged 12 with autism, pollen allergy and occasional asthma, was again my willing test subject.  This is the worst time of the year when his allergy triggers asthma and autism flare-ups.

Where we live, only the older version of Biogaia is sold.  So he has been taking Lactobacillus reuteri 17938, 400 million CFU a day.

In Alli’s dosage there is 500 million CFU of reuteri 17938 and 500 million of reuteri ATCC PTA 6475.

There was an effect almost immediately on his allergy; his nose changed colour.  His pollen allergy gets gradually worse in the summer and the sides of his nose becomes bright red.  Short term use of topical steroids reverses this, but the pollen season is four months long.

Along with his red nose, his behavior gets worse leading to aggression,SIB and cognitive decline.  This lasts from mid June to October.  The aggression and SIB responds very well to treatment with Verapamil, but this does not reverse the cognitive decline.  

My behavioural observations might be wishful thinking, but I cannot be imagining bright red fading to a mild pink.

Clearly even at my reduced dosage and lack of the second anti-inflammatory bacteria (L. reuteri ATCC PTA 6475) something very helpful is happening.

As is my habit, I did a quick review of the literature and found plenty of supporting evidence for the potential benefit of specific bacteria on allergy.

As Alli has found, the potential benefit goes far beyond allergy.
  



RESULTS:

Oral treatment with live Lactobacillus reuteri but not Lactobacillus salivarius significantly attenuated the influx of eosinophils to the airway lumen and parenchyma and reduced the levels of tumor necrosis factor, monocyte chemoattractant protein-1, IL-5, and IL-13 in bronchoalveolar lavage fluid of antigen-challenged animals, but there was no change in eotaxin or IL-10. L. reuteri but not L. salivarius also decreased allergen-induced airway hyperresponsiveness. These responses were dependent on Toll-like receptor 9 and were associated with increased activity of indoleamine 2,3-dioxygenase. Killed organisms did not mimic the ability of the live L. reuteri to attenuate inflammation or airway hyperresponsiveness.

CONCLUSION:

Oral treatment with live L. reuteri can attenuate major characteristics of an asthmatic response in a mouse model of allergic airway inflammation. These results suggest that oral treatment with specific live probiotic strains may have therapeutic potential in the treatment of allergic airway disease.


Probiotic Therapy as a Novel Approach for Allergic Disease



Various effects of different probiotic strains in allergic disorders: an update from laboratory and clinical data



The various effects of different probiotic strains in allergic diseases are shown from laboratory and clinical studies referred to in the text.

↑: Increase in symptoms or negative effect; ↓: decrease in symptoms or positive effect; ↔: no change in symptoms or no effect

References
Probiotic strain
Type of allergic disease
Outcome
Atopic dermatitis (eczema)
Sistek et al.[31]
Lctbs rhamnosus + Bfdbm lactis
Food-sensitized atopic children
Kalliomäki et al.[45]
Lactobacillus GG
Atopic dermatitis
Kopp et al.[46]
Lactobacillus GG
Atopic dermatitis
↔, ↑
Wickens et al.[47]
Lctbs rhamnosus
IgE-associated eczema
Viljanen et al.[41,48]
LGG
Atopic eczema/dermatitis syndrome
Rosenfeldt et al.[49]
Lctbs rhamnosus + Lctbs reuteri
Atopic dermatitis
Kuitunen et al.[50]
Lctbs + Bfdbm + propionibacteria
IgE-associated allergy
Boyle et al.[54]
Various
Eczema
Lee et al.[55]
Various
Atopic dermatitis
Soh et al.[63]
Bfdbm longum + Lctbcs rhamnosus
Eczema and atopic sensitization
Food allergy and anaphylaxis
Kim et al.[27]
Lctbs acidophilus + Bfdbm lactis
OVA-induced allergic symptoms
Isolauri et al.[56]
Bfdbm or Lctbs
Food allergy
Majamaa et al.[57]
LGG
Food-sensitized eczema
Shida et al.[60]
VSL#3 + Lctbs casei strain Shirota
Anaphylaxis with food allergy
Hol et al.[61]
Lctbs casei + Bfdbm Bb-12
Cow's milk allergy
Taylor et al.[62]
LGG or Lctbs acidophilus
Cow's milk allergy
↔, ↑
Allergic rhinitis
Di Felice et al.[59]
VSL#3
Allergic rhinitis
Giovannini et al.[67]
Lctbs casei
Allergic rhinitis
Morita et al.[69]
LGG + Lctbs gasseri
Allergic rhinitis
Xiao et al.[71]
Bfdbm longum
Allergic rhinitis; JCP
Tamura et al.[72]
Lctbs casei strain Shirota
Allergic rhinitis; JCP
Asthma
Kruisselbrink et al.[33]
Lctbs plantarum
Dermatophagoides (Der p1) sensitization
Feleszko et al.[43]
Bfdbm-12
Airway reactivity
Blümer et al.[73]
LGG
Allergic asthma
Repa et al.[74]
Lactococcus lactis + Lctbs plantarum
Birch pollen allergen (Bet v1) sensitization
Karimi et al.[75]
Lctbs reuteri
Allergic airway inflammation
Helin et al.[78]
LGG
Pollen allergy


Reader Trials

It would be helpful if readers would share feedback on their use of high dose Biogaia probiotics.

There are many other types of probiotic, but it would be helpful to first focus on the one that has been shown by Alli to be effective.

It seems to me that within a week you are going to know if you have a responder.  As usual you need to see how the effect varies over time.  Numerous interventions seem to be effective and then fade away and some even go from positive to negative.  I will certainly be continuing to see the longer term effect and hopefully finally adding something new to my PolyPill.









Tuesday, 28 June 2016

Chemo-Brain and Apparently Cyto-Brain in some Autism and even ADHD




Some readers of this blog have developed quite advanced personalized medication for their child with autism.  As you might expect, given the wide variety of autism sub-types, the medical therapies found to be effective vary widely.  It is interesting that many people see fluctuations in cognitive function and some develop strategies to counter them.

I came across another form of variable cognitive dysfunction, “Chemo-brain”, that occurs in people after cancer treatment.  Chemo brain can also be called chemo fog, chemotherapy-related cognitive impairment or just cognitive dysfunction.

It is interesting for readers of this blog because chemo brain is thought to be caused by changes in inflammatory cytokine expression within the brain, over a few years the symptoms usually fade away.  Some people’s autism just fades away, although tell-tale signs usually remain.

Cytokine expression appears to be both a cause of autism and a consequence of it.  One clever researcher in this field is Paul Ashwood, who recently published another paper, this time regarding their causal effect.


Autism with intellectual disability is associated with increased levels of maternal cytokines and chemokines during gestation



A confusing term that also appears is dyscognition; this is not a real word, but is either used to describe another condition sometimes called “fibro fog”, or it just means cognitive dysfunction.   Fibro fog is the name given to cognitive dysfunction in fibromyalgia, which occurs alongside fatigue and muscle pain.

Many doctors believe that fibromyalgia is often a made up condition.  I think, in some people, fibromyalgia is one step short, in a multiple hit process, of a progression to autism.  If you look at biological links between neuropathic pain and autism, like purinergic signaling (P2Y2 etc) there are connections between pain and autism.  As we know, people with autism can be both hypo and hyper sensitive to pain.  

This post is really just look to see are there any clever thoughts regarding chemo brain that can be translated to treating cognitive dysfunction in autism, be it the baseline autism or those flare ups.



Further, the cytokine hypothesis suggests a range of potential therapeutic targets. One potential approach would be to prevent the acute change in cytokines related to cancer treatment from occurring. Agents that inhibit cytokine activity, such as monoclonal antibodies and small molecular inhibitors, may confer benefit either alone or as an adjuvant treatment to chemotherapy-induced cognitive decline in cancer patients. TNF-α antagonists (etanercept and infliximab) have been shown to inhibit fatigue and improve depressive symptoms in patients with advanced cancer. P2×7 antagonist that inhibits IL-1b release has been shown to reduce depressive-like profiles and neuropathic pain in animal models. Specific p38 MAPK and NF-κB inhibitors that block inflammatory signaling transduction have generated great interest from their use in the treatment of cytokine-induced depressive behavior and antidepressant-like effects in animal models. Anti-inflammatory cytokines, IL-10, IL-4 and minocycline may also have the potential therapeutic effects on chemotherapy-induced cognitive decline by inhibition of pro-inflammatory cytokine release through modulation of the caspase pathways. Even acupuncture may have therapeutic potential considering its effects on suppressing proinflammatory cytokines, TNF-α, IL-1β, IL-6, and IL-10. Acupuncture has been often used to alleviate the side effects of cancer treatment, including pain, nausea, hot flashes, fatigue, anxiety/mood disorders, and sleep disturbance. A series of interesting studies suggest a therapeutic role in dyscognition, for example, acupuncture improved cognitive function of patients with mild cognitive impairment (MCI) and various dementia, with clinical improvement correlating with alterations in functional connectivity and resting state activity of particular brain regions. Such approaches to the prevention of cancer-therapy dyscognition are reasonable, currently feasible, and scientifically testable.
BDNF and its receptor tropomyosin-related kinase receptor type B (TRKB) play a potential role in the pathogenesis of neurological and neuropsychological disorders . Epigenetic or pharmacological enhancement of BDNF–trkB signaling restores was reported to reverse the aging-related cognitive decline. BDNF polymorphisms are associated with impaired memory and cognition, along with reduced hippocampal activation as measured by fMRI. Age-related BDNF declines have been reported to be associated with declines in hippocampal volume and spatial memory in the elderly. Low BDNF is associated with cognitive impairment in patients with schizophrenia and Alzheimer’s disease. Significantly decreased blood serum BDNF levels have been detected in patients with cognitive impairment due to obstructive sleep apnoea/hypopnoea syndrome. Given its potent effects on neuronal function and survival in various cell systems in the CNS, BDNF has been evaluated in patients with various neurology cal disorders, including amyotrophic lateral sclerosis (ALS), peripheral neuropathy, Parkinson’s disease and Alzheimer’s disease. However, delivery of BDNF remains a substantial challenge for clinical trials because it is a moderately sized and charged protein and only minimal amount of BDNF administrated peripherally crosses the BBB to reach neurons in the brain. Acupuncture has been reported to increase neurotrophic factors  and the levels of nerve growth factors in the brain by altering the permeability of the BBB. In rats, electric acupuncture enhanced motor recovery after cerebral infarction that was associated with increased expression of BDNF in the brain.
With cytokines acting as a trigger to upstream changes, anti-cytokine therapies may have little therapeutic effect once upstream mechanisms responsible for dyscognition have been established, given that the most clinically available anti-cytokine antibodies are not readily to penetrate the blood–brain barrier. Antibody concentrations in the brain are typically about a thousand times lower than in the blood. Therefore, to better prevent development of cognitive dysfunction, anti-cytokine therapies would be best used by blocking cytokine production or inhibiting cytokine release in the peripheral prior to triggering the consequent events in the CNS. However, epigenetic changes are dynamic and the pathological changes caused by epigenetic modifications can be reversed prior to the development of permanent symptoms by targeting enzymes or other factors that control or maintain the epigenetic status. Treatments that seek to reverse casual epigenetic modifications have the potential to be effective. Such treatments are still in their infancy. S-adenosyl methionine (SAM) is an important methyl group donor required for proper DNA methylation and has been used to treat memory and cognitive symptoms in depressed patients. Betaine, another methyl donor, has been shown to improve memory in mice memory impairment induced by lipopolysaccharide. Histone deacetylases (HDACs) inhibitors can also alter epigenetic modifications, which have been studied in memory and cognition . In a mouse model, administration of crebinostat, a HDAC inhibitor, improves memory. Sirtuins, a class III HDAC inhibitors found in red grape skin and wine resveratrol have been found to improve cognitive function in mice and are currently under phase II clinical trial (ADAS-Cog, ClinicalTrials.gov; NCT01504854, 2013).
In summary, cognitive dysfunction remains a common and debilitating effect of cancer treatment, with no effective prevention and treatment, although a variety of pharmacologic and non-pharmacological strategies have been investigated. We present a speculative but testable hypothesis of how cognitive dysfunction may occur following chemotherapy. Unlike other dyscognitive illnesses, it is both scientifically and ethically feasible to study the onset of “chemobrain” by administering a major physiologic stress and observing the biological ramifications. It should be possible to gain a comprehensive understanding of the mechanism underlying cognitive dysfunction in cancer patients. Such knowledge is critical to identifying methods to both prevent and treat cancer-treatment dyscognition and potentially other dyscognitive disorders.



ADHD

Rather by coincidence a very recent study on ADHD was just published and highlighted on the Questioning Answers Blog, it shows something rather similar.  In people with ADHD and allergy, when you treat their allergy with antihistamines and/or steroids their ADHD symptoms improve.  In other words the inflammatory signaling from allergies exacerbates their underlying neurological problems.


Attention-deficit/hyperactivity disorder-related symptoms improved with allergic rhinitis treatment in children.



BACKGROUND:
Increased prevalence of attention-deficit/hyperactivity disorder (ADHD) in children with allergic rhinitis (AR) has been reported. Our previous study showed that children with untreated AR had higher ADHD scores than did the controls.

OBJECTIVE:

This prospective follow-up study aimed to investigate whether elevated ADHD scores in children with AR could be decreased by AR treatment.

METHODS:

Sixty-eight children with AR (age range, 6-14 years) and who were drug naive were enrolled and evaluated by AR symptom score, ADHD symptom scores, and computerized continuous performance test, before and after AR therapy, which included nonpharmacologic intervention, oral antihistamines, and topical steroids. Thirty-one age-matched controls and 13 children with pure ADHD were also enrolled for comparison. The relationship between the AR and ADHD score change was analyzed by a partial correlation test, and univariate and multivariate linear regression models were applied to investigate possible predictors for the improvement of ADHD scores by AR treatment.

RESULTS:

AR symptom scores in children with AR decreased significantly after treatment (p < 0.001), and their ADHD scores also decreased significantly (p < 0.001). An improved AR symptom score was positively correlated with improved detectability (rp = 0.617, p = 0.001) and commission error (rp = 0.511, p = 0.011). Significant predictors for the improvement of ADHD scores included age, AR drugs, AR subtypes, and multiple atopic diseases (ps < 0.05).

CONCLUSION:

Higher ADHD scores in children with AR compared with healthy controls decreased significantly with AR treatment. For children with AR and borderline ADHD symptoms, who do not meet full ADHD diagnostic criteria, we recommend initially treating their AR and monitoring improvement of ADHD symptoms.


I have documented in this blog how allergy can make autism worse and numerous people have left comments that allergic rhinitis treatment in children reduces their autism.

This would seem to me to suggest that controlling inflammatory cytokines may ameliorate the issues faced by people with conditions ranging from ADHD and autism to chemotherapy-related cognitive impairment and quite possibly some types of dementia and MCI (mild cognitive impairment) not to mention TBI (traumatic brain injury).

There are numerous possible ways to influence pro and anti-inflammatory cytokines, very likely different people will respond to different therapies.  What helps people with chemobrain may well be worth investigating for people with what I am calling cytobrain.

In the world of autism, as the door appears to be closing on the development of TSO parasites as immuno-modulators another one is opening for probiotic bacteria.  This was discussed in the comments section of the last post.  

Immunomodulatory probiotics for chemobrain perhaps?  Probably worth a try.








Monday, 20 June 2016

Autism – Getting Lost in the Translation

I think most lay people would be surprised to know that literally tens of thousands of scientific papers have been published on autism and yet not a single drug has been approved to treat core autism.

Surely there must be some value in all this research, that can be extracted today?

A reader recently sent me a link to an excellent lecture about propionic acid in autism.  The first part of the lecture was much more general and concisely summarizes what we know about autism.  We know a vast amount; it just has not been translated (applied).  Click below for the video.









Translation

Alli from Switzerland, a medical reader of this blog did raise this issue a while back.  Why has the vast knowledge about autism not been translated across into medical therapies?

Her conclusion was the same as mine; don’t wait, do the translation yourself.  This is of course easier said than done, because there are wide variations in what causes autism.  Not surprisingly, her effective therapy is very different to mine.  In fact almost nothing that helps my son helps hers; but that is of course the point, there isn’t one autism.  There are thousands of variations, within which fortunately there are some clusters.

These are the elements of that therapy:-

·        PAK1/WNT inhibitor
·        Longvida Curcumin / J147  as cognitive enhancer via mtor inhibition
·        Ibudilast, a Pde4 inhibitor, as a modulator of microglia
·        Sodium Butyrate 500mg
·        Propranolol 30mg as PI3K/Akt/enos/vegf inhibitor
·        Garlic, to moderate Cytokine related autism flare ups
·        L-Theanine to regulates hyperactive behavior
·        Syntocinon (oxytocin) to improve social awareness
·        Biogaia gastrus probiotic (which down regulates TH1 and upregulates IL-10)

As in my case, there are flare-ups in symptoms and they are accompanied by loss in cognitive function.

Alli points out that dosage is key (paradoxical effects can occur at lower or higher dosages) and that some components of the treatment should be taken alternatively.

We also have the UK paediatrician who stumbled upon the fact that moderate dosage of baclofen is a remarkably effective therapy for the majority of people with Asperger's and shared that on this blog.  This does not appear anywhere in the literature and that doctor did not want to publish a trial, so it will remain hidden, except to readers of this blog. The more potent R-baclofen is being studied for more severe autism, but it is a research drug.

For various reasons mainstream clinicians do not publish their autism therapies, this was also the case with autism secondary to mitochondrial disease (AMD) where the detailed knowledge from Johns Hopkins does not appear in any medical journal.

In my post on the history of autism we saw that way back in 1877 there was an effective autism therapy (then being used as an epilepsy therapy) by a Dr Dickinson at London's Great Ormond Street Hospital.  He used potassium bromide which modifies the effect of GABA in a broadly similar way to Ben-Ari's use of Bumetanide today, that I promote on this blog. 

Likely other discoveries have also been lost.



Cancer Research

Cancer research is being translated into clinical use and so numerous new drugs are being developed.  As I have pointed out before, many of the affected pathways in some autism are shown to be affected in some cancer.  This means some new drugs can potentially be used to treat both conditions.

The idea of sub-types in cancer is now widely accepted.  Therapies can only be effective if used in the specific sub-type of the cancer.  The same applies to autism. The same applies to epilepsy.

The overlap between cancer genes and autism genes is very clearly shown in a recent graphic on Spectrum News (Simons Foundation). More food for thought.

Note WNT. mTOR, AKT, P53 etc.

  














Conclusion

It would be very helpful to gather together the combination therapies of other parents who have followed the science and applied it to an unrestricted palette of drugs/supplements that exist today.  There must be other people who have successfully done this.

Some OTC therapies are indeed very helpful, but full access to pharmacotherapy is needed to effectively translate science into therapy.  

There are of course DAN/MAPS type doctors in North America.  Some of them have some clever therapies, but there is also a great deal of nonsense and the priority appears to be making money rather than translating science.

I do get people writing to me with various theories and it is always important to keep an open mind. It looks like all truly effective therapies are reversible, they are not curative or disease changing.  If you stop the therapy you gradually lose the benefit. 

Only radical therapies, like the one below, are likely to be curative and only partially so in autism.  I do not see anyone giving high doses of chemotherapy drugs to two and three year olds any time soon.