BREAKING: US and Iraq agree to withdraw American troops by end of 2026, per WSJ
— unusual_whales (@unusual_whales) September 20, 2024
US and Iraq agree to withdraw American troops by end of 2026, per WSJ.
BREAKING: US and Iraq agree to withdraw American troops by end of 2026, per WSJ
— unusual_whales (@unusual_whales) September 20, 2024
US and Iraq agree to withdraw American troops by end of 2026, per WSJ.
Clinical evidence for high-dose melatonin at 50 mg/kg in one single dose is safe for patients undergoing liver resection. Melatonin treatment resulted in shorter ICU stay and total hospital stay. https://t.co/qXaKkYnCBu
— Doris Loh (@DorissLoh) August 12, 2024
(50 mg/kg for a 70 kg person = 3500 mg in one single dose). pic.twitter.com/HPN5ObA6zy
From General Surgery UCSF,
Most hepatectomies are performed for the treatment of hepatic neoplasms, both benign or malignant. Benign neoplasms include hepatocellular adenoma, hepatic hemangioma and focal nodular hyperplasia.The most common malignant neoplasms (cancers) of the liver are metastases; those arising from colorectal cancer are among the most common, and the most amenable to surgical resection. The most common primary malignant tumour of the liver is the hepatocellular carcinoma. Hepatectomy may also be the procedure of choice to treat intrahepatic gallstones or parasitic cysts of the liver.
Liver surgery is safe when performed by experienced surgeons with appropriate technological and institutional support. As with most major surgical procedures, there is a marked tendency towards optimal results at the hands of surgeons with high caseloads in selected centres (typically cancer academic medical centers and transplantation centers).
1) the most important antioxidant molecules and certainly the most ancient, as it has been part of biological life for over 3 billion years. It's present in plants and bacteria.
2) In the human body — aside from having direct antioxidant effects — it also stimulates the synthesis of glutathione and other important antioxidants like superoxide dismutase and catalase
3) the antioxidant activity of melatonin is extremely diverse.
4) It, in fact, is a very good radical scavenger. There are other radical scavengers — vitamin C, vitamin E, and so forth — but melatonin is superior to those
5) it stimulates antioxidative enzymes, especially in mitochondria. Mitochondria are small organelles in the cell that generate the bulk of the free radicals.
6) It also removes free radicals and prevents the degeneration of the mitochondria, and why this is so important is because mitochondria are really the center of the action within a cell.
7) 95% of the melatonin in your body is concentrated within the mitochondria inside the cells.
8) it appears that under stress, all cells may upregulate their ability to produce melatonin because it's so highly productive
9) Anytime your skin is exposed to natural sunlight, however, you can be sure you’re receiving the necessary wavelengths of near-infrared to generate melatonin in your mitochondria.
10) there are two types of melatonin in your body: The melatonin produced in your pineal gland, which traverses into your blood, and subcellular melatonin produced inside your mitochondria.
11) bright sun exposure around solar noon will indirectly help your pineal gland to produce melatonin during the night.
12) If you supplement with melatonin, it will get into your mitochondria and, in fact, do what melatonin does — neutralize free radicals and protect the mitochondria's function.”
13) we infused melatonin directly into the heart after the vessel was opened. That reduced cardiac damage by roughly 40%.
14) people who are potentially suffering with heart failure because of a damaged heart, they survive better and longer if they are given melatonin on a regular basis.
15) Reiter stresses that melatonin has no known toxic threshold, so even though we don’t know what the ideal dose is, we do know it’s safe even at high doses.
16) melatonin dosing should follow circadian biology, so around 10 a.m., 4 p.m., and before bed.
17) an emergency medical technician goes out and picks up a patient who has clearly a heart attack. I think on-site, immediately, melatonin should be given intravenously rather than orally.
18) Methylene blue is well-documented to be highly beneficial for reperfusion injuries.
19) Melatonin and methylene blue belong in every emergency medical kit.
20) excess seed oils are the primary reason why most people are metabolically inflexible.
Melatonin is one of the most important antioxidant molecules and certainly the most ancient, as it has been part of biological life for over 3 billion years. It's present in prokaryotes, which are bacteria, and even in plants. In the human body — aside from having direct antioxidant effects — it also stimulates the synthesis of glutathione and other important antioxidants like superoxide dismutase and catalase.
Reiter continues:
“Melatonin has been here forever . . . and its functions have evolved. It has learned to work successfully with other molecules during this three-billion-year evolution. One of the molecules with which it collaborates is glutathione. But the antioxidant activity of melatonin is extremely diverse.
It, in fact, is a very good radical scavenger. There are other radical scavengers — vitamin C, vitamin E, and so forth — but melatonin is superior to those. But beyond that, it stimulates antioxidative enzymes, especially in mitochondria. Mitochondria are small organelles in the cell that generate the bulk of the free radicals.
So, it's very important to have a good antioxidant at the level of the mitochondria and melatonin happens to be located and is, in fact, synthesized in the mitochondria. Melatonin scavenges radicals that are generated, but it also stimulates something called sirtuin-3, which activates or deacetylates superoxide dismutase (SOD), which is a very important antioxidative enzyme.
It also removes free radicals and prevents the degeneration of the mitochondria, and why this is so important is because mitochondria are really the center of the action within a cell. In other words, there's strong evidence that aging, frailty of aging, senescence of cells as we age, relate to molecular damage at the level of the mitochondria, and melatonin seems to be very efficient at protecting mitochondria from that damage.”
“Near-infrared radiation penetrates relatively easily the skin and subcutaneous tissues. Every one of those cells contains mitochondria and it appears that near-infrared radiation that is detected, in fact, induces melatonin production. That is important because we now think that melatonin within mitochondria is inducible under a lot of stressful conditions.
That is not definitively proven, but it appears that under stress, all cells may upregulate their ability to produce melatonin because it's so highly productive. And typically, under stress, free radicals are generated. That is emphasized by the [fact] that in plants ... that happens.
In other words, if you expose plants to drought, heat, cold, to metal toxicity, the first thing they do is upregulate their melatonin, because all of those situations generate free radicals. And we suspect, although that has not yet been definitely proven, in animal cells as well, including human [cells].”
“If you supplement with melatonin, it can also enter cells and get into the mitochondria as well. And that is also very important ... As you age, mitochondrial melatonin diminishes. If you supplement with melatonin, it will get into your mitochondria and, in fact, do what melatonin does — neutralize free radicals and protect the mitochondria's function.”
“There's a large host of studies, including some in humans, where if you give melatonin to induce a heart attack in animals or an accidental heart attack in humans, you can preserve or reduce the amount of cardiac infarct, the amount of damage that occurs in the heart,” Reiter says.
“There's a very famous cardiologist in the Canary Islands, professor Dominguez-Rodriguez, whom I worked with. And we, about three years ago, published a paper where we infused melatonin directly into the heart after the vessel was opened. That reduced cardiac damage by roughly 40%.
The other thing that happens in a heart attack is that cardiac cells do not regenerate. Once you lose a cardiac cell, they're done ... and are replaced by fibrous tissue. Of course, fibrous tissue is not contractile, so you get heart failure.
We just published a paper, again with this same cardiologist, showing that if people who are potentially suffering with heart failure because of a damaged heart, they survive better and longer if they are given melatonin on a regular basis. It's a small study ... but I think that would be a worthwhile field to exploit.”
“If I had a heart attack and I had melatonin on my person, I would take melatonin,” Reiter says. “The question is how much? ... This is not a recommendation to any of your patients, but I would not be hesitant about taking 50 milligrams at the time, and some subsequently for the next 24 hours, even during the day. Because you don't want to lose any more heart cells than is absolutely necessary ...
I have suggested this a number of times. In other words, an emergency medical technician goes out, picks up a patient who has clearly a heart attack. I think on site, immediately, melatonin should be given intravenously rather than orally. It'd be difficult to give it orally. That would be my recommendation.”
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— St. Michael, the Archangel (@aveng_angel) September 20, 2024
“Cancer cells are clever. They do everything they can to permit their continued survival. It seems counterintuitive, but what they do is prevent pyruvate from entering the mitochondria, and that reduces ATP production. But as a consequence of doing that, they accelerate something called glycolysis and that's very inefficient in producing ATP, but it does it very rapidly. So, then they have sufficient energy.
The importance of preventing pyruvate from entering the mitochondria, we now think is the fact that pyruvate is a precursor to something called acetyl coenzyme A. Acetyl coenzyme A is a cofactor for the enzyme that regulates melatonin production in the mitochondria.
So, by eliminating or preventing pyruvate from getting into the mitochondria, [the cancer cells] prevent or reduce melatonin production, because they don't allow the necessary cofactor to be produced. In other words, we predicted about four years ago that, in fact, the mitochondria of cancer cells would produce less melatonin.
We have subsequently shown that in two studies, both uterine cancers. Clearly, melatonin levels and the activity of the enzymes in the mitochondria of these types of cancer cells are at least about half what they would normally be. The prevention of pyruvate into the mitochondria, that's Warburg-type metabolism.
The other thing is the pyruvate is metabolized into lactic acid. It escapes the cell and produces an acidic environment for the cancer cell, and cancer cells like that acidic environment. So, if you can reduce the Warburg-type metabolism, you may be able to limit the growth of cancer cells and perhaps also the metastasis
. . .
Some cancer cells may only be part-time cancerous because [during nighttime] when they have high melatonin, then they avoid Warburg-type metabolism. The interesting thing about Warburg-type metabolism [is that] . . . many pathological cells, inflammatory cells, cells that are affected by amyloid beta in the brain, exhibit this specific type metabolism . . .
And we know that inflammatory cells — M2 and M1 inflammatory cells — can be converted back and forth by melatonin. The inflammatory cells can be prevented by giving them melatonin [because of] its effect on Warburg-type metabolism. So, Warburg type metabolism is common in many, many pathological cells.”