Impacting Autism bacteria

This is a theoretical post. Working from high bacteria and low bacteria cited in this earlier post, I went to DataPunk.Net and extracted information about each genus.

I have struck thru items that appear on both sides. We do not know if these items will help or make things worst…. i.e. these are should avoid for safety items.

The Increase or Decrease are what you in theory would reduce high bacteria and enhance low bacteria. In some cases, the same item will decrease the high bacteria and increase the low bacteria; in general, we have limited knowledge from published articles.

High Bacteria Low Bacteria
  1. Bacteroidetes (phylum) 
  2. Caloramator (genus) 
  3. Candida
  4. Clostridium (genus) 
  5. Clostridium perfringens (species) 
  6. Collinsella (genus) 
  7. Corynebacterium (genus) 
  8. Desulfovibrio (genus) 
  9. Dorea
  10. Lactobacillus (genus) 
  11. Sarcina (genus) 
  1. Akkermansia muciniphila (species) 
  2. Alistipes (genus) 
  3. Bifidobacterium (genus) 
  4. Bilophila (genus) 
  5. Blautia (genus) 
  6. Coprococcus (genus) 
  7. Dialister (genus) 
  8. Firmicutes (phylum) 
  9. Parabacteroides (genus) 
  10. Prevotella (genus) 
  11. Sutterella (genus) 
  12. Veillonella (genus) 
  13. Veillonellaceae (family) 
To Improve
Decrease Intake of
To Improve
Increase Intake of
  • (+)-Catechin L10
  • Almonds/ almond skins  H10
  • Ascophyllum nodosum (rockweed)  L3
  • Berberine H8 L3
  • Chemotherapy L3 L12
  • Chicory L4 L10
  • Cranberry bean flour L2
  • Daesiho-tang (DSHT) H1 H10 L8
  • Dopamine L10
  • Epicatechin L10
  • Ethanol L1
  • Flaxseed L1 L5 L6 L8 H4 H5
  • Gallate L2
  • Ganoderma lucidum mycelium H1 L8
  • Glyphosphate L3
  • Grapes (table) L4
  • Gynostemma pentaphyllum H1
  • High fat diet H5 L1 L3 L6
  • High meat diet L8
  • Inulin L4 L10
  • Iron supplements H4 H5 L3
  • Jerusalem artichoke L10
  • Laminaria digitata (oarweed) H10
  • Laminaria hyperborea (curvie) L3
  • Low carbohydrate diet L3 L10
  • Low energy diet/ calorie restriction L8
  • Low FODMAP diet L3
  • Magnesium  H10
  • Magnesium-deficient diet  L3
  • Navy bean (Cooked) L10 H10
  • Omega 3 fatty acids L1
  • Partial Sleep Deprivation H6
  • Plant-rich diet L2
  • Polymannuronic acid L6 L11
  • Proton-pump inhibitors (PPI) H7 H8 H10
  • Resistant starch (type IV) L1 L10
  • Resveratrol L10 H10
  • Sesame cake/meal H10
  • Sucralose (Splenda)  L3
  • Tannin L2
  • Walnuts L5
  • Whole grain diet H6
  • Whole-grain barley L8 L10
  • β-Glucan H4 H5 L10
  • Almonds/ almond skins L3
  • Aloe vera H7
  • Arabinoxylans L3
  • Barley L4
  • Berberine L5 L10
  • Bile L4
  • Carboxymethyl cellulose (CMC) L1
  • Chemotherapy L6 L11 H10
  • Chicory L3
  • Cholic acid L5 L8
  • Chondrus crispus (red seaweed) L3 H5
  • Cranberry bean flour L1 L10 H5
  • Daesiho-tang (DSHT) L1 L3
  • Epinephrine L10
  • Fasting L1
  • Flaxseed L10
  • Fructo-oligosaccharides L3
  • Glyphosphate H10
  • Grapes (table) L1
  • Green tea L1 L3
  • Heme L1 L10
  • High animal protein diet L4
  • High carbohydrate diet L10
  • High fat diet L2 H10
  • High fruit intake L2
  • High meat diet L2 L4
  • High protein diet L1 L4 L11
  • Inulin L3
  • Iron supplements [parent]  H10
  • Jerusalem artichoke L3
  • Laminaria hyperborea (curvie)  H10
  • L-citrulline L10
  • Lingonberries L1
  • Low processed foods diet L1
  • Magnesium L3
  • Magnesium-deficient diet  H10
  • Mediterranean diet  L10
  • Melatonin L1
  • Metformin L1
  • Methyl gallate  H5
  • Milk-derived saturated fat L4
  • Navy bean (Cooked) H4 H5 H6 L3
  • Partial Sleep Deprivation H1 L8
  • Polymannuronic acid H1 H4 H5
  • Polysorbate 80 L1
  • Pomegranate ellagitannins L1
  • Propyl gallate  H5
  • Proton-pump inhibitors (PPI) L9 L12
  • Pyruvate L4
  • Quercetin H5
  • Red wine L3 L10
  • Resistant starch (type II) H4 H5 L5 L6
  • Resistant starch (type III) L3
  • Resistant starch (type IV) L5 L9
  • Resveratrol L1 L3
  • Rhubarb L1
  • Saccharomyces boulardii L5 L6 L10
  • Sarcodiotheca gaudichaudii (red seaweed)  H5
  • Sesame cake/meal L3
  • Stevia H10
  • Stigmastanol H6
  • Sucralose (Splenda) H10
  • Tannic acid H1 H5
  • Trametes versicolor H4 H5
  • Walnuts H1 L5 L6 L8
  • β-sitosterol H6

 

Bottom Line

Some of the increased items above appears to be backed by the literature:

This is the third time that we observed: microbiome shift seen in an autoimmune condition–> what corrects the shift –> studies confirm the suggestions improves the condition.

As always consult with your medical professional before changing diet or supplements. The above considers the condition is isolation of other conditions that may be a factor.

Autism Microbiome

This is part of a current blog arc looking at related conditions that often seem to be in the family of people with CFS/FM/IBS.  A reader forwarded me a link to A Single Species Of Gut Bacteria Can Reverse Autism-Related Social Behavior In Mice [2016]. The species was Lactobacillus Reuteri — the bacteria ascribed to being the source of B12 in humans.  CFS patients usually have zero of it — hence the need for B12 supplements and injections.

This post is dedicate to a local CFS suffer who has a child with autism.

“We cultured a strain of L. reuteri originally isolated from human breast milk and introduced it into the water of the high-fat-diet offspring. We found that treatment with this single bacterial strain was able to rescue their social behavior,”

Autism and the Microbiome

  • The Gut Microbiota and Autism Spectrum Disorders[2017].
    • “Gastrointestinal (GI) symptoms are a common comorbidity in patients with autism spectrum disorder (ASD), but the underlying mechanisms are unknown. Many studies have shown alterations in the composition of the fecal flora and metabolic products of the gut microbiome in patients with”
    • “Accumulating evidence demonstrates that gastrointestinal (GI) symptoms, such as abdominal pain, gaseousness, diarrhea, constipation and flatulence, are a common comorbidity in patients with ASD (Chaidez et al., 2014).”
    • “The gut microbiota of infants who were delivered vaginally resembles their mother’s vaginal microbiota, which is dominated by Lactobacillus, Prevotella, or Sneathia spp., and the gut microbiota of babies who were born by Cesarean section is similar to their mother’s skin microbiota, which is dominated by Staphylococcus, Corynebacterium, and Propionibacterium spp. (Dominguez-Bello et al., 2010).”
    • “Compared with the gut microbiota of children without ASD, the gut microbiota of children with ASD is less diverse and exhibits lower levels of Bifidobacterium and Firmicutes and higher levels of Lactobacillus, Clostridium, Bacteroidetes, Desulfovibrio, Caloramator and Sarcina (Finegold et al., 20022010; Adams et al., 2011; Finegold, 2011; De Angelis et al., 2013).”
    • “Children with autism who present GI symptoms have lower abundances of the genera Prevotella, Coprococcus, and unclassified Veillonellaceae than that found in GI symptom-free neurotypical children (Kang et al., 2013).”
    • “Fecal samples from children with ASD also have higher levels of the Clostridium histolyticum group (Clostridium clusters II and I) compared with samples from unrelated healthy children (Parracho et al., 2005).”
    • “The reduction of Clostridium yields significant improvements in children with ASD (Sandler et al., 2000). “
    • “Additionally, children with ASD present alterations in their levels of Bifidobacterium, Prevotella, and Sutterella (Wang et al., 2013).”
      • “and demonstrated a low relative abundance of Bifidobacterium spp. and the mucolytic bacterium Akkermansia muciniphila in children with ASD [11].
    • “found a significant increase in the Firmicutes/Bacteroidetes ratio in autistic subjects relative to normal subjects. They also found that Candida was two times more abundant in autistic individuals than in normal individuals (Strati et al., 2017).”
    • ” the Autism Diagnostic Interview (ADI) restricted/repetitive behavior subscale score has associated with the amount of Desulfovibrio spp. (Tomova et al., 2015). “
  • Distinct Microbiome-Neuroimmune Signatures Correlate With Functional Abdominal Pain in Children With Autism Spectrum Disorder[20176]
    • “A significant increase in several mucosa-associated Clostridiales was observed in ASD-FGID, whereas marked decreases in Dorea and Blautia, as well as Sutterella, were evident. “
  • New evidences on the altered gut microbiota in autism spectrum disorders[2017].
    • ” We found a significant increase in the Firmicutes/Bacteroidetes ratio in autistic subjects due to a reduction of the Bacteroidetes relative abundance. At the genus level, we observed a decrease in the relative abundance of Alistipes, Bilophila, Dialister, Parabacteroides, and Veillonella in the ASD cohort, while Collinsella, Corynebacterium, Dorea, and Lactobacillus were significantly increased. Constipation has been then associated with different bacterial patterns in autistic and neurotypical subjects, with constipated autistic individuals characterized by high levels of bacterial taxa belonging to Escherichia/Shigella and Clostridium cluster XVIII. We also observed that the relative abundance of the fungal genus Candida was more than double in the autistic than neurotypical subjects, yet due to a larger dispersion of values, this difference was only partially significant.”
  • ” autistic subjects with gastrointestinal disease harbor statistically significantly (p = 0.031) higher counts of C. perfringens in their gut” [2017]

Microbiome Treatment

  • “According to a cohort study, oral supplementation with Lactobacillus acidophilus twice daily for 2 months decreases the D-arabinitol levels in the urine of children with ASD and improves their ability to follow directions, as demonstrated through comparison with data collected before the treatment (Kaluzna-Czaplinska and Blaszczyk, 2012). “
  • “ase study showed an ASD boy with severe cognitive disability was treated with VSL#3 (a multi-strain mixture of 10 probiotics) for 4 weeks. The treatment relieved the GI symptoms and improved the autistic core symptoms (Grossi et al., 2016). “
  • ” The prebiotic galactooligosaccharide (B-GOS) increases the levels of Bifidobacterium spp. in an in vitro gut model, as demonstrated through the analysis of fecal samples from children with ASD and controls (Grimaldi et al., 2017).”
  • “treatment with Bacteroides fragilis reduced gut permeability, altered the composition of the gut microbiota and decreased ASD-like behaviors in a rodent model of ASD (Hsiao et al., 2013). “
  • ” the proportion of Bacteroidetes/Bacteroidales significantly increased and the proportion of Bifidobacterium significantly decreased [after Vitamin A supplementation]” [2017]

Bottom Line

Autism microbiome is different from the CFS microbiome, there is evidence that it may be seeded as an altered microbiome very early in a child’s life.

 

Kombucha — Russian Roulette for CFS/FM/IBS

Readers have asked about this privately, I thought it would be good to give a fuller answer:

From A Review on Kombucha Tea—Microbiology, Composition, Fermentation, Beneficial Effects, Toxicity, and Tea Fungus [2014]

  • “Currently kombucha is alternately praised as “the ultimate health drink” or damned as “unsafe medicinal tea” (Blanc 1996; Hartmann and others 2000). “
  • “Similarly to milk-derived kefir, the exact microbial composition of kombucha cannot be given because it varies. “
  • “He isolated an Acetobacter sp. (NRRL B-2357) and 2 yeasts (NRRL YB-4810, NRRL YB-4882) from a kombucha sample”
  • “The predominant acetic acid bacteria found in the tea fungus are A. xyliumA. pasteurianusA. aceti, and Gluconobacter oxydans (Liu and others 1996). “
  • “In addition to acetic acid bacteria there are many yeast species in kombucha. A broad spectrum of yeasts has been reported including species of Saccharomyces, Saccharomycodes, Schizosaccharomyces, Zygosaccharomyces, Brettanomyces/Dekkera, Candida, Torulospora, Koleckera, Pichia, Mycotorula, and Mycoderma.”

In short, every Kombucha brand is likely to contain different combination of bacteria and yeast. In addition to the above, the following are reported from studies cited above:

  1. Saccharomyces cerevisiae
  2. Saccharomyces bisporus
  3. Saccharomycoides ludwigii
  4. Schizosaccharomyces pombe
  5. Zygosaccharomyces sp.
  6. Zygosaccharomyces rouxii
  7. Zygosaccharomyces bailii
  8. Brettanomyces intermedius,
  9. Brettanomyces bruxellensis,
  10. B. claussenii
  11. Zygosaccharomyces kombuchaensis
  12. Candida famata,
  13. Candida guilliermondii
  14. Candida obutsa
  15. Candida famata.
  16. Candida stellata
  17. Candida guilliermondi
  18. Candida colleculosa
  19. Candida kefyr
  20. Candida krusei
  21. Torulaspora delbrueckii
  22. Mycotorula
  23. Mycoderma
  24. Pichia
  25. Pichia membranefaciens
  26. Kloeckera apiculata
  27. Kluyveromyces africanus

As expected, there have been no clinical studies with CFS/FM/IBS.

“On the basis of these data it was concluded that the largely undetermined benefits do not outweigh the documented risks of kombucha. It can therefore not be recommended for therapeutic use.” [2003]

Bottom Line

Not recommended. This is no evidence of benefit to any autoimmune or related conditions.  Each individual batch from a supplier may contain different bacteria and fungal combinations. “Fermented food” is not miracle food, especially when you may be dealing with overgrowth of one or more of the bacteria that happens to be in the fermented food.

For clarity:

  • One batch from one brand may very well help some
  • Another batch from a different brand may result in candida issues or worst

If the Kombucha does not list all of the fungi and bacteria (by species at least, strain preferred), you have no idea of what you are actually taking.

 

 

Review of GI Effects Comprehensive Profile from Genova Diagnostics

A reader forwarded me their results to look at. As usual, I will focus the bacteria. The rest of the report was within normal range.

hl

hl2

We do not have a wide analysis of different bacteria genus to work from. This is expected because they do the analysis via culturing (which only works for a few genus).

Baccillus

Data punk reportes it is inhibited by

 

 

Enterobacter cloacae

Going over to DataPunk we see that it feeds on:

 

And is inhibited by

 

 

Bottom Line: What do you do with reasonable bifidobacterium?

We have no Lactobaccillus and no E. Coli in the report.

For E.Coli, the items are simple:

For Lactobacillus, my current ‘gut’ feeling is:

A reader sent me a study of persistence of lactobacillus for at least 11 days being seen with a fermented oatmeal soap (an PDF/Scan article from 1993 ) with 1-5% malted barley flour. I suspect the process may be similar to making your own yogurt.

 

Impacting Rheumatoid Arthritis bacteria genus

This is a theoretical post. Working from high bacteria and low bacteria cited in this earlier post, I went to DataPunk.Net and extracted information about each genus.

I have struck thru items that appear on both sides. We do not know if these items will help or make things worst…. i.e. these are should avoid for safety items.

The Increase or Decrease are what you in theory would reduce high bacteria and enhance low bacteria. In some cases, the same item will decrease the high bacteria and increase the low bacteria; in general, we have limited knowledge from published articles.

High Bacteria Low Bacteria
  1. Actinobacteria (phylum) 
  2. Bilophila (genus) 
  3. Clostridium asparagiforme (species) 
  4. Collinsella (genus) 
  5. Eggerthella (genus) 
  6. Faecalibacterium (genus) 
  7. Lactobacillus salivarius (species) 
  8. Oscillibacter (genus) 
  9. Parvimonas (genus) 
  10. Porphyromonas gingivalis (species) 
  11. Prevotella copri (species) 
  12. Pseudonocardia (genus) 
  13. Ruminococcaceae (family) 
  14. Veillonellaceae (family) 
    1. Agathobacter rectalis (species) 
    2. Bacteroides fragilis (species) 
    3.  Blautia coccoides (species) 
    4. Clostridiaceae (family) 
    5. Haemophilus (genus) 
    6. Peptostreptococcaceae (family) 
    7. Prevotella histicola (species)  ****
    8. Veillonella (genus) 
To Improve
Decrease Intake of
To Improve
Increase Intake of
  • Almonds/ almond skins H7
  • Arabinogalactan  H6
  • Barley  H2
  • Berberine H6 H11 H13
  • Bile  H2
  • Biotin H1
  • Chemotherapy L8
  • Chicory  H6
  • Cinnamon bark oil  L5
  • Coriander oil L5
  • Cranberry bean flour L6 H11
  • Daesiho-tang (DSHT) H7
  • Dopamine H6
  • Epinephrine H6 H11
  • Fasting H6
  • Flaxseed H11
  • Heme H11
  • High animal protein diet L1 H2
  • High carbohydrate diet H11
  • High fat diet L6
  • High fiber diet H6
  • High meat diet  H2
  • High protein diet  H2
  • High sugar diet L6
  • Inulin H6
  • Jerusalem artichoke  H6
  • Laminaria digitata (oarweed) H7
  • Lavender (spike) oil  L5
  • L-citrulline H11
  • Lemongrass oil  L5
  • Low animal protein diet  H6
  • Low carbohydrate diet L1
  • Low FODMAP diet H1
  • Low processed foods diet  H6
  • Magnesium H7
  • Mediterranean diet  H11
  • Milk-derived saturated fat  H2
  • Navy bean (Cooked)  H7
  • Partial Sleep Deprivation H4
  • Peppermint oil  L5
  • Perilla oil  L5
  • Polymannuronic acid L2 H1
  • Proton-pump inhibitors (PPI) H7
  • Pyruvate  H2
  • Red wine H6 H11
  • Resistant starch (type I)  H8
  • Resistant starch (type II) H8
  • Resistant starch (type III) H6 H8
  • Resveratrol H7
  • Saccharin H13
  • Saccharomyces boulardii H6 H11 H13
  • Sesame cake/meal H7
  • Sucralose (Splenda) L2
  • Thyme oil L5
  • Walnuts H6 H13 L2 L3
  • Whole grain diet H4
  • Whole-grain barley L2
  • β-Glucan L2
  • (+)-Catechin H11
  • Bile salts  H6
  • Chemotherapy H5 H6 H7
  • Chicory H2 H11
  • Dopamine H11
  • Epicatechin H11
  • Flaxseed  H6
  • Fructo-oligosaccharides L2 H6
  • Gallate H6 H13
  • Gallic acid L2
  • Glyphosphate H7
  • Grapes (table) H2
  • High animal fat diet  H6
  • High animal protein diet  H6
  • High fat diet H6 H7 H13
  • High meat diet L2
  • High processed foods diet  H6
  • High sugar diet H6 H13
  • Inulin H2 H11
  • Jerusalem artichoke H11
  • Laminaria hyperborea (curvie) H7
  • L-citrulline L2
  • Low carbohydrate diet H11
  • Low fat diets L2
  • Low fiber diet  H6
  • Low FODMAP diet  H6
  • Magnesium-deficient diet H7
  • Navy bean (Cooked) H4 H6 H11
  • Omega 3 fatty acids  H6
  • Proton-pump inhibitors L5 L8
  • Red wine L1 L2
  • Resistant starch (type IV) L2 H6 H11
  • Resveratrol H11
  • Saccharin L2 L4 L6
  • Stevia L2 H7
  • Stigmastanol H4
  • Sucralose (Splenda) H7
  • Tannic acid L2
  • Whole-grain barley H11
  • β-Glucan H11
  • β-sitosterol H4

For caution, we should ignore items that impact only one of the bacteria. We want items that impact several bacteria.

Bottom Line

Some of the increased items above appears to be backed by the literature:

There were some pleasant surprises above…

  • On the right there are a lot of sugar substitutes (Saccharin, Stevia, Sucralose / Splenda)…. and evidence is that they reduce risk of RA! They may also reduce the severity (speculation)
    • “Regular consumption of sugar-sweetened soda, but not diet soda, is associated with increased risk of seropositive RA in women, independent of other dietary and lifestyle factors.” [2014]
  • Resistant starch Types I,II,III are all should be reduced while Type IV should be increased.
      • “Dietary modulation of the gut microbiota impacts human health. Here we investigated the hitherto unknown effects of resistant starch type 4 (RS4) enriched diet on gut microbiota composition and short-chain fatty acid (SCFA) concentrations in parallel with host immunometabolic functions in twenty individuals with signs of metabolic syndrome (MetS). Cholesterols, fasting glucose, glycosylated haemoglobin, and proinflammatory markers in the blood as well as waist circumference and % body fat were lower post intervention in the RS4 group compared with the control group. 16S-rRNA gene sequencing revealed a differential abundance of 71 bacterial operational taxonomic units, including the enrichment of three Bacteroides species and one each of ParabacteroidesOscillospiraBlautiaRuminococcus, Eubacterium, and Christensenella species in the RS4 group. Gas chromatography–mass spectrometry revealed higher faecal SCFAs, including butyrate, propionate, valerate, isovalerate, and hexanoate after RS4-intake. “[2016]
        • This was a human study and used 30% RS4 enriched flour.
        • One source.

For magnesium (where for CFS/FM in general, more is better) we have the opposite being suggested above, that is reduce it!!. Looking at studies — a reduced level appear to help RA.

This is the second time that we observed: microbiome shift seen in an autoimmune condition–> what corrects the shift –> studies confirm the suggestions improves the condition.

As always consult with your medical professional before changing diet or supplements. The above considers the condition is isolation of other conditions that may be a factor.