The proper understanding and use of melatonin may not only aid those with 💉 injuries and/or Long COVID; but also those who are exposed to low-level microwaves, EMFs, 60 Hz magnetic field, and ambient light at night.
Melatonin has been put forward as a potential treatment aid for COVID-19 and long COVID for a number of other reasons too.
One of them is by shifting cellular energy production by quelling HIF-1α.
Life is energy, and good health is a state of proper energy efficiency.
When unwell with an infection, immune cells need higher energy demands more immediately and thus switch from getting energy from mitochondrial oxidative phosphorylation to cytosolic glycolysis.
Glycolysis is an oxygen-independent and relatively inefficient way to generate energy compared to oxidative phosphorylation but found to be the dominant metabolic pathway in pro-inflammatory cells.
One of many regulators that help this switch is hypoxia-inducible factor-1α (HIF-1α).
Adenosine triphosphate (ATP) is the source of energy for use and storage at the cellular level, and melatonin is well recognised for its ability to protect and enhance ATP production in mitochondria.
Other than making us move...and live, ATP is capable of completely dissolving viral factories in cells but only if it outnumbers viral proteins by many folds.
One study showed ATP was capable of completely dissolving viral condensates formed by SARS-CoV-2 N protein, but only at ratios of 1:500 (N-protein:ATP).
But at lower ratios ATP appears to be exploited by SARS-CoV-2 to prompt its life cycle.
Higher ATP may thus reduce viral replication, which may explain why severe COVID-19 in children is rare.
Children have higher plasma levels of ATP that are negatively correlated with the frequency of regulatory T cells but positively correlated with the frequency of CD4+ T cells. ncbi.nlm.nih.gov/pmc/articles/P…
Energy efficiency is important, and hence why a low carbohydrate diet may help "boost" T cell function.
Melatonin can also change the pathological shape of mitochondria too.
Mitochondria infected by SARS-CoV-2 display swollen inner folds, this causes mitochondria to not work effectively preventing higher ATP production via oxidative phosphorylation in favour of glycolysis.
The mitochondria of white blood cells in those recovered from COVID-19 have also shown dysfunction even at 11 months post-infection.
Damaged mitochondria continue to produce more ROS.
A lot of us are worried that many that have had the 💉 may have unknowingly integrated external external genetic material into the DNA is via a molecule called long interspersed element-1 (LINE-1 or L1) retrotransposons.
Though coronavirus RNAs are not supposed to reverse-transcribe and integrate into host DNA, recent research found that, via LINE1, SARS-CoV-2 and other human coronaviruses could insert into the host genome.
Repression is a mechanism often used to decrease or inhibit the expression of a gene, and in healthy states, LINE-1 is repressed.
Removal of repression is called derepression, and LINE-1 derepression is linked to ageing, diabetes, cardiac abnormalities, mitochondrial dysfunction and cancer.
Before we go further, we have to understand what liquid–liquid phase separation (LLPS) is.
Cells contain little factories called organelles that perform certain functions.
Some have an encapsulating membrane while others don't.
A fundamental question in cell biology is
“how are these membraneless compartments organised to control such complex biochemical reactions in space and time.”
Evidence suggest that biomolecular condensates (or little pockets/bubbles within cells) are reversibly and dynamically assembled via LLPS.
LLPS is a process that spontaneously drives the separation of a homogeneous solution of constituents into two or more phases.
Two types of multivalent interactions contribute to LLPS:
1. Intracellular protein-protein, protein–RNA, and RNA–RNA interactions.
2. Weak, transient, multivalent interactions between intrinsically disordered regions
And so LPPS can be described as a product of the force of electrochemical gradients within cells, and these gradients are established by the multivalent interactions, which influence and are influenced by the spatial arrangement of molecules in the droplets.
Some physiological functions of LLPS include:
- Regulating transcription
- Being involved in genome organisation
- Being involved in the immune system
- Neuronal synaptic signalling
Dysregulated LLPS that occurs in aberrant cellular processes associated with carcinogenesis, including chromatin organisation, epigenetics, oncogenic transcription, aberrant signaling pathways, and telomere lengthening mediated by LLPS.
Pathological functions of LLPS include:
- Neurodegenerative disease - via pathological protein aggregates originate from an aberrant phase separation.
- Cancer - Beyond gene mutation, dysregulation of transcription via dysregulated LLPS is another hallmark of cancer.
- Infection - In addition to SARS-CoV-2, many viruses can form viral replication condensates via LLPS.
Cells depend upon LLPS to support the timely assembly of stress granules and other biomolecular condensates that can regulate immune signaling during viral infection.
Melatonin is an ancient molecule that can regulate virus phase separation @DorissLoh
The structure and function of biomolecules are strongly influenced by their hydration shells.
The release of water molecules from protein hydration shells into bulk water create promote phase separation and fibril aggregation.
And thus regulating water position (the relative thermodynamics of hydrogen bonds) becomes an attractive proposition in the regulation of protein aggregation in dementia.
Lower water directly around proteins, increase viscosity and thus condensates facilitate phase separation.
What helps, well visible 670 nm red light reduces viscosity in mitochondria interfacial water to increase free water molecules and enhance ATP synthase ability to generate more ATP.
ROS also increase viscosity and inhibits ATP production.
Melatonin lowers viscosity by scavenging hydroxyl radical and ROS.
It has been shown that exposing the bone marrow in animal models to photobiomodulation either non-invasively or introducing a fibre optic probe into the bone marrow, can treat a wide range of diseases and conditions.
Good health is a state of proper energy efficiency.
"Ketones upregulated mitochondrial respiratory chain activity (+ 25%), enabling both superior energy supply (+ 44%) and higher mitochondrial reactive oxygen species signaling."
"Altogether, our data reveal that BHB is an alternative source of carbon that promotes T cell responses in pulmonary viral infections, and highlight impaired ketogenesis as a potential confounding factor in severe COVID-19."
The understudied enzyme with anti-inflammatory, anti-oxidation, anti-cancer, anti-bacterial, anti-biofilm, anti-amyloidogenic, and anti-mucus properties.
A THREAD 🧵
Serrapeptase is a zinc-containing enzyme originally obtained from the bacteria Serratia marcescens, isolated from the intestine of the silkworm Bombyx mori L.
It is a proteolytic enzyme, meaning it breaks down proteins.
It has also been shown to have anti-inflammatory, fibrinolytic, and other beneficial properties against breast disease, atherosclerosis, Alzheimer’s disease, sinusitis, hepatitis, lung disorders, and uterine fibroids.
An interesting mushroom with anti-clotting and anti-radiation properties.
Auricularia auricula-judae polysaccharides have shown to have anticoagulant activities (Anti-clot), but weaker than heparin (a commonly used anticoagulant).
A. auricula-judae’s anti-coagulation effect is thought due to catalysis of thrombin inhibition by antithrombin but not by heparin cofactor II. thrombosisresearch.com/article/S0049-…
Short answer: No one knows, not even Moderna or Pfizer.
Both companies are said to have not looked at the proteins made by their synthetic mRNA shots in cell culture for mors than 48 hours after transfection.
mRNA from the COVID-19 vaccines was found in germinal centres in secondary lymphoid tissue long after the shot was administered, and it continued to synthesise spike glycoprotein for at least sixty days after inoculation.