Autism
Trying to Unlock the Code of the Poorly Understood Autistic Brain
   

Autistic Child speaks for the first time during
"High Fever" but scientists don't know why?
For the first three years of his life, Rene Craft's son, Jackson, communicated primarily through screaming tantrums. He never spoke. He didn't point to things. He didn't make eye contact. He had the classic signs of severe autism.
 
Then a couple of years ago, Jackson got sick. His mother, Rene Craft, says he was running a high fever.
 
"He was lying in our bed, and he was recovering," Craft says. "And he said out of the blue, 'I like the sheets, Daddy. They're really comfortable.' And then later that day he looked out the window and he said, 'Oh, it's raining, and squirrels eat nuts."
 
Craft says that she and her husband got a brief glimpse of a son who had been locked in his own world of autism. Then the fever went away, and so did Jackson's improvement.

 
4 Key Features of Autism 
 
SYNAPSES OVERGROWTH 67% MORE NEURONS VACCINE INJURY? AUTOPHAGY
 
 
5 Conditions/Compounds
that can temporarily reverse Autistic Features
Autism researchers do not understand the mechanism of action
.
Why do they all share the same CODE that opens each vault?
 Mechanism of Action = *Autophagy
Click on each link that says *Autophagy to read supporting clinical studies
 








 
Lorenzo's Oil
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.High Fever Sulphoraphane
*Autophagy
*Autophagy 
. .
   
   
   
   
   
   
   
   
   
   
   
Oleic acid
adrenoleukodystrophy
 
*Autophagy
L-Dopa.
Encephalitis lethargica
 
*Autophagy
.
Antibiotics....
Vancomycin - Suramin....
*Autophagy









Awakenings
 
 
 
 
 
 
1 alpha,25-(OH)(2)D(3) inhibits intracellular
ROS levels in dopaminergic neurons
Dopaminergic neurons of the midbrain are the main source of dopamine (DA) in the mammalian central nervous system.
Their loss is associated with one of the most prominent human neurological disorders, Parkinson's disease (PD).
 
 
 
 
Neuropharmacology. 2001 May;40(6):761-71.
 
Protective effects of 1 alpha,25-(OH)(2)D(3) against the neurotoxicity
of glutamate and reactive oxygen species in mesencephalic culture
Ibi M1, Sawada H, Nakanishi M, Kume T, Katsuki H, Kaneko S, Shimohama S, Akaike A.
 
Abstract
 
This study was undertaken to determine whether 1 alpha,25-dihydroxyvitamin D3 [1 alpha,25-(OH)(2)D(3)], an active metabolite of vitamin D, protects dopaminergic neurons against the neurotoxic effects of glutamate and dopaminergic toxins using rat mesecephalic culture.
 
Brief glutamate exposure elicited cytotoxicity in both dopaminergic and non-dopaminergic neurons. Pretreatment, but not co-administration, of 1 alpha,25-(OH)(2)D(3) protected both types of neurons against the cytotoxicity of glutamate in a concentration- and time-dependent manner.
 
The neuroprotective effect of 1 alpha,25-(OH)(2)D(3) was inhibited by the protein synthesis inhibitor, cycloheximide. To investigate the mechanisms of these neuroprotective effects, we examined the effects of 1 alpha,25-(OH)(2)D(3) on neurotoxicity induced by calcium ionophore and reactive oxygen species (ROS).
.
Pretreatment with 1 alpha,25-(OH)(2)D(3) protected both types of neurons against the cytotoxicity induced by A23187 in a concentration-dependent manner.
 
Furthermore, 24-h pretreatment with 1 alpha,25-(OH)(2)D(3) concentration-dependently protected both types of neurons from ROS-induced cytotoxicity.
 
A 24-h incubation with 1 alpha,25-(OH)(2)D(3) inhibited the increase in intracellular ROS level following H(2)O(2) exposure.
 
A 24-h exposure to 1-methyl-4-phenylpyridium ion (MPP(+)) or 6-hydroxydopamine (6-OHDA) exerted selective neurotoxicity on dopaminergic neurons, and these neurotoxic effects were ameliorated by 1 alpha,25-(OH)(2)D(3).
 
These results suggest that 1 alpha,25-(OH)(2)D(3) provides protection of dopaminergic neurons against cytotoxicity induced by glutamate and dopaminergic toxins by facilitating cellular functions that reduce oxidative stress.
 
 
 
 
Dermatoendocrinol. 2013 Jan 1; 5(1): 199–204.
 
What is the role of vitamin D in autism?
John J. Cannell 1 and William B Grant 2 ,*
 
Abstract
A growing body of literature suggests that higher serum 25-hydroxyvitamin D [25(OH)D] concentrations, either in utero or in early life, may reduce the risk of autism. For example, an ecological study in the companion paper inversely correlated solar UV-B doses in the United States with prevalence of autism among those aged 6–17 y.
 
That study proposed that vitamin D deficiency during pregnancy could account for this finding, although the findings are also consistent with childhood vitamin D deficiency contributing to the condition. Also, in a recent study, children with autism had lower serum 25(OH)D concentrations than did control subjects (19 vs. 33 ng/ml), despite parents of each group reporting the same amount of sun exposure. The same study found highly significant inverse correlations between 25(OH)D and autism rating scales and between 25(OH)D and levels of an antineuronal antibody.
 
This finding indicates that higher serum 25(OH)D concentrations may reduce the symptoms of established autism. Because activated vitamin D, a secosteroid, upregulates DNA-repair genes, vitamin D deficiency during development may inhibit the repair of de novo DNA mutations in fetuses and infants and thus contribute to risk of autism.
 
Vitamin D might also reduce the risk or severity of autism through its anti-inflammatory actions, antiautoimmune effects, increasing seizure threshold, increasing T-regulatory cells, protecting the mitochondria, and upregulating glutathione, which scavenges oxidative by-products and chelates (captures and excretes) heavy metals. (See VACCINE INJURY?)
 
Vitamin D deficiency during pregnancy and childhood is a widespread and growing epidemic.
 
 
 
 
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AUTISM DISEASE PROGRESSION
Vitamin D regulates downstream transcription of Autophagy
.
 
 
Autism and its Transcription Factors
 Upstream factors critical for optimal Neonatal Brain development
 
Healthy Cell transcription vs Disease Cell transcription
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Chronological disease progression and each downstream factor
,,
25(OH)D levels Vitamin D Receptor(VDR) Mitochondria Oxidative Stress ATP signaling P2Y2 Receptors mTOR pathway HIF-1α
 
 
 
 
 
Normal Brain vs Austic Brain
 Overview of how each factor impacts Neonatal Brain development
 
Normal Brain Development 
Mother maintains optimal serum 25(OH)D levels -- > Neonatal VDR's optimize Mitochondrial function and fetus/neural development----->
Proper mitochondrial function prevents ATP release and downstream P2Y2 receptor/mTOR signaling -----> preventing up regulation of  the mTOR pathway/HIF-1α due to oxidative stress ----> proper Autophagy expression(pruning) prevents excessive synapses overgrowth -----> resulting in the orderly degradation & elimination of intracellular organelles, damaged mitochondria & other components that must be recycled in order to maintain neuron/cellular homeostasis ----->

Optimal serum 25(OH)D levels
Proper Synapses Pruning - Normal
Brain Development
 Low serum 25(OH)D levels - Neuroinflammation
Synapses Overgrowth - Enlarged Brain
   
Autistic Brain Development 
Deficient neonatal 25(OH)D levels ---- > VDR can not optimize mitochondrial function  -----> intracellular oxidative stress begins to accumulate -----> initiates mitochondrial ATP/H202 release into cytoplasm due to mitochondrial dysfunction-----> activation of P2Y2 receptors promotes mTOR signaling -----> mTOR pathway is activated ----->
Oxidative Stress increases---->
HIF-1α expression is up regulated ----->  Autophagy is blocked (deficient synapses pruning) -----> results in Synapses overgrowth ------>
Brain inflammation -----> Onset of Autistic features and behaviors -----> Brain overgrowth/enlargement
 
 
* Large amounts of overactive mTOR were found in
almost all of the brains of the autism patients
View this Report here
 
 
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Activated 1,25(OH)2D3 regulates all chores & tasks
Optimal serum levels dictate neurodevelopment & protect neurons from autistic triggers
.
 

.Autism Disease Progression Analogy

"The Mother of the household"

1,25(OH)2D3

 
VDR
Can't transcribe
900+  genes without activated 1,25(OH)D


Mitochondria
Without proper VDR
 transcription, Mitochondria
fail to produce optimal
Energy/ATP/Oxygen levels

Oxidative Stress
Cell experiences stress which forces the cell to initiate antioxidant responses


ATP release
First to notify everyone there
is an oxygen problem
 


PY2Y Receptor
purinergic signalling
i
nitiates stress response
PY2Y asks mTOR for help


mTOR
Shuts down autophagy which causes HIF-1 and oxidative
stress levels to increase


HIF-1
Due to extreme levels of
oxidative stress, HIF-1
turns off Mitochondria &
ATP production

Child #1 Child #2 Child #3 Child #4 Child #5 Child #6 Child # 7
Per mother's orders, Oldest child oversees activities of each child during chores.
 
MESSENGER
Nuerons are loaded with VDR's which can not tell the cell what to do without active Vit D.
If this child fails to do their chore, all of the other kids will quit performing their chores.

 
TOO LETHARGIC
Mitochondrial dysfunction leads to impaired ATP production and diminished cellular respiration.
Child #3 sees #2 has stopped working & responds by yelling at #2 to get back to work or she is going to tell the others.
 
THE BRINK OF CHAOS
If mitochondrial dysfunction persists, oxidative stress
begins to accumulate.
#4 finds out that #2 & #3 have quit working, and runs outside to tell #5 that no one is doing their chores.
 
CHAOS STARTS
Oxidative stress reaches levels where mitochondrial ATP are released into the cytoplasm as a stress signal.
#5 runs through the house messing up all of the work that had already been performed.
 

ALTERED TRANSCRIPTION
Stress genes are activated in response to oxidative stress and ATP release. Normal gene transcription is altered.
#6 sees what #5 is doing and takes all of the mops/brooms & the vacuum cleaner & hides them in the closet.
 
AUTOPHAGY BLOCKED
As a survival mechanism, "stressed cell" genes are transcribed which leads to autophagy deregulation.
To block anyone from doing their chores, #7 decides to turn off all the power in the house. 

NO ELECTRICITY
HIF-1 shuts down mitochondria & ATP production. Hypoxic genes transcribed. Normoxic genes turned off.
             
 

 
 
 
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KEY ANALOG COMPOUNDS
1,25(OH)2D3 & Cannabidiol
Combination of both compounds will provide optimal differentiation
of mitotic blasts via VDR & CB1 receptor activation

.
 
 
PLoS One. 2013; 8(1): e54271.
 
Type-1 (CB1) Cannabinoid Receptor Promotes
Neuronal Differentiation and Maturation of Neural Stem Cells
Claudia Compagnucci,1,2 Sara Di Siena,1 Maria Blaire Bustamante,1,2
 
Abstract
.
Neural stem cells (NSCs) are self-renewing cells that can differentiate into multiple neural lineages and repopulate regions of the brain after injury. We have investigated the role of endocannabinoids (eCBs), endogenous cues that modulate neuronal functions including neurogenesis, and their receptors CB1 and CB2 in mouse NSCs. Real-time PCR and Western blot analyses indicated that CB1 is present at higher levels than CB2 in NSCs.
.
The eCB anandamide (AEA) or the
CB1-specific agonist ACEA enhanced NSC differentiation into neurons, but not astrocytes and oligodendrocytes, whereas the CB2-specific agonist JWH133 was ineffective. Conversely, the effect of AEA was inhibited by CB1, but not CB2, antagonist, corroborating the specificity of the response.
.
CB1 activation also enhanced maturation of neurons, as indicated by morphometric analysis of neurites. CB1 stimulation caused long-term inhibition of the ERK1/2 pathway. Consistently, pharmacological inhibition of the ERK1/2 pathway recapitulated the effects exerted by CB1 activation on neuronal differentiation and maturation. Lastly, gene array profiling showed that CB1 activation augmented the expression of genes involved in neuronal differentiation while decreasing that of stemness genes.
.
These results
highlight the role of CB1 in the regulation of NSC fate and suggest that its activation may represent a pro-neuronal differentiation signal.
 
 
 
https://www.ncbi.nlm.nih.gov/pubmed/25681066
 

Exp Mol Pathol. 2015 Apr

1,25-Dihydroxyvitamin D3 enhances neural stem cell proliferation and oligodendrocyte differentiation

Abstract

1,25-Dihydroxyvitamin D3 (1,25(OH)2D3) has recently been found to suppress experimental autoimmune encephalomyelitis (EAE), an animal model of multiple sclerosis (MS). Although its effect was attributed to an anti-inflammatory mechanism, it is not clear whether this treatment can also directly act on neural cells to promote CNS recovery.

The present study investigates the effect of various concentrations of 1,25(OH)2D3 on neural stem cell (NSC) proliferation and their differentiation to oligodendrocytes, the myelinating cells. We have, for the first time, shown that NSCs constitutively express vitamin D receptor (VDR), which can be upregulated by 1,25(OH)2D3. This vitamin significantly enhanced proliferation of NSCs, and enhanced their differentiation into neurons and oligodendrocytes, but not astrocytes.

NSCs treated with 1,25(OH)2D3 showed increased expression of NT-3, BDNF, GDNF and CNTF, important neurotrophic factors for neural cell survival and differentiation.

Overall, we demonstrated that 1,25(OH)2D3 has a direct effect on NSC proliferation, survival, and neuron/oligodendrocyte differentiation, thus representing a novel mechanism underlying its remyelinating and neuroprotective effect in MS/EAE therapy.

 
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CBD NEEDS HELP!
For complete NEURONAL DIFFERENTIATION, CBD needs to be
administered with activated 1 alpha,25-dihydroxycholecalciferol
 
 
 
Proc Natl Acad Sci U S A. 1987 Aug;84(15):5414-8.
 
Cannabinoids induce incomplete maturation of cultured human leukemia cells.
Murison G, Chubb CB, Maeda S, Gemmell MA, Huberman E.
 
Abstract
 
Monocyte maturation markers were induced in cultured human myeloblastic ML-2 leukemia cells after treatment for 1-6 days with 0.03-30 microM delta 9-tetrahydrocannabinol (THC), the major psychoactive component of marijuana. After a 2-day or longer treatment, 2- to 5-fold increases were found in the percentages of cells exhibiting reactivity with either the murine OKM1 monoclonal antibody or the Leu-M5 monoclonal antibody, staining positively for nonspecific esterase activity, and displaying a promonocyte morphology.
 
The increases in these differentiation markers after treatment with 0.03-1 microM THC were dose dependent. At this dose range, THC did not cause an inhibition of cell growth. The THC-induced cell maturation was also characterized by specific changes in the patterns of newly synthesized proteins.
 
Pronounced among these changes was an increase in the synthesis of at least 10 proteins that are found abundantly in monocytes. The THC-induced differentiation did not, however, result in cells with a highly developed mature monocyte phenotype; the THC-treated cells failed to exhibit other monocyte markers such as attachment to the surface of tissue culture dishes or morphological maturation beyond the promonocyte stage.
 
However, treatment of these "incompletely" matured cells with either phorbol 12-myristate 13-acetate or 1 alpha,25-dihydroxycholecalciferol, which are inducers of differentiation in myeloid leukemia cells (including ML-2 cells), produced cells with a mature monocyte morphology.
 
Two other cannabinoids, cannabidiol and cannabinol, which were more cytotoxic than THC at comparable doses, also caused an increase in the expression of maturation markers, but at doses higher than those required for THC.
 
The ML-2 cell system described here may be a useful tool for deciphering critical biochemical events that lead to the cannabinoid-induced "incomplete" cell differentiation of ML-2 cells and other related cell types.
 
Findings obtained from this system may have important implications for studies of cannabinoid effects on normal human bone-marrow progenitor cells.
 
Read more CBD clinical studies
 
 
.
CBD PATIENT TESTIMONIAL
Young autistic boy Speaks for the first time after CBD use
.
 
 
Controversial Cannabis Treatment Helps 9-Year-Old Boy Speak His First Words
 
Beth Greenfield - Senior Writer
June 3, 2015
 
Kalel Santiago, 9, who has autism, spoke his first words shortly after starting hemp-oil treatments. (Photo: Santiago family)
 
Though Kalel Santiago of Puerto Rico is only 9 years old, he’s already endured some adult-level struggles. At just 10 months, he was diagnosed with the rare childhood cancer neuroblastoma, and spent more than two years undergoing surgery, chemotherapy, and radiation treatments. Then came the next diagnosis: severe, non-verbal autism.
 
“While he was in the hospital, we noticed he didn’t speak at all and had some behavior that wasn’t right, like hand flapping, and walking on his toes,” his father, Abiel Gomez Santiago, tells Yahoo Parenting from the family’s home in Aguada. “But we waited until he was 3 and cancer-free to look at his behavior.”
 
 He and his wife Gladys — also parents to two older boys, now 18 and 20 — did a cram course in educating themselves on autism. They tried various schools and therapies, and eventually found impressive success with a unique surf-therapy school near their home. Then, through an April fundraising event for that program, the Santiagos happened upon a treatment that would quickly change their lives: hemp oil, rich in the compound cannabidiol (CBD), which has been shown, at least anecdotally, to dramatically ease symptoms of both epilepsy and autism.
 
They took home the tiny sample bottle of spray and began giving their son twice daily doses, as directed on the label, right into his mouth. And the results, they say, were startling: Kalel started talking — in just two days.
 
“He surprised us in school by saying the vowels, A-E-I-O-U. It was the first time ever,” Abiel says. “You can’t imagine the emotion we had, hearing Kalel’s voice for the first time. It was amazing. The teacher recorded him and sent it to my wife and me and we said well, the only different thing we have been doing is using the CBD.” Soon thereafter, he adds, Kalel started using consonants to connect his sounds. “He said, ‘amo mi mama,’ ‘I love my mom,’” Abiel says. “I don’t know how to thank [the CBD oil makers........
 
 
 
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PHARMACEUTICAL CBD CLINICAL STUDIES
Stock value increases 40% in 30 days
.
 
London based GW Pharmaceuticals Stock Value 
Increase 40% due to Cannabis Drug Milestones

APR 27, 2015 @ 02:25 PM 
 
Company has announced the initiation of study trials, received Orphan Drug Status to use cannabidiol on newborn babies and gotten a Notice of Allowance for a patent application for treating epilepsy with another of its cannabis based compounds. They are focused on researching, developing and then commercializing treatments from its cannabinoid products derived from the cannabis or marijuana plant.
 
On April 21st, the company announced it was initiating its second Phase 3 clinical trial of its signature drug Epidiolex for the treatment of Dravet syndrome, which is a rare form of childhood epilepsy and tends to be treatment resistant.
 
“The start of our second pivotal Phase 3 clinical trial for Epidiolex in the treatment of Dravet syndrome marks another key milestone in our plan to submit a New Drug Application for Epidiolex to the FDA in mid-2016,” stated Justin Glover, CEO of GW Pharmaceuticals. GW also said it expects to initiate two more Phase 3 studies using the drug for Lennox-Gastaut syndrome, another form of epilepsy that rears its ugly head when a child is between the ages of two and six. A recent report from doctors using GW’s drug showed that 11 LGS patients saw their seizures drop by 55% at the end of 12 weeks. But it doesn’t work for all patients as 14 dropped out from treatment when there was no effect. GW is also looking at even more illnesses that Epidiolex can help including Tuberous Sclerosis Complex. TBS is a genetic disorder that causes multiple tumors and 75-90% of the patients experience seizures.
 
Then on April 24th, GW announced that it got an Orphan Drug Designation from the FDA to use Cannabidiol (CBD) to treat babies that suffer brain injuries when they are deprived of oxygen during the birthing process. It’s called neonatal hypoxic-ischemic encephalopathy and it happens in 1.5 to 2.8 per 1,000 births a year. GW developed an intravenous form of CBD and expects to submit an Investigational New Drug Application to the FDA in mid 2015 and start a Phase 1 study in the second half of the year. “This orphan drug designation for cannabidiol for the treatment of newborn children with neonatal hypoxic-ischemic encephalopathy follows several years of pre-clinical evaluation and we look forward to advancing a clinical development program in this important medical condition this year,” said Glover.
 
Then finally on Monday April 27th, GW announced that the U.S. Patent Office issued a Notice of Allowance for a patent application to cover the use of Cannabidivarin (CBDV) to treat epilepsy. There are 85 differently identified cannabinoids in the cannabis plant and CBDV has a slightly different molecular structure. For all the science wonks out there Mark Rogerson of GW said, “CBDV has its side-chain shortened by two methylene bridges (CH2 units).”
 
All of these announcements has continued to push the stock higher. It has increased by 40% in the past month alone. There are only six analysts covering the company according to Thomson One Analytics and four according to Yahoo YHOO +0.00%! Finance all with a Buy rating.
.
If the company continues getting strong positive results from these studies, the stock will continue to move higher. Even if some patients aren’t helped, the ones the drugs do work on are patients that were getting no relief from any other treatments. A win win.........Read Full Article
 
 
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