9. This is Joe Tippens Cancer Protocol below is included here as an add on. https://www.onedaymd.com/2024/04/fenbendazole-joe-tippens-protocol.html

If you want Mebendazole get it here: https://www.alldaychemist.com/mebex-100mg.html  If you want to use Fenbendazole get it here https://fenbenlab.com/product/fenbendazole-capsules-222mg/ or here https://shopbplife.com/collections/fenbendazole-powder Dosage 222 mg 2 to 3 times per day. Panacur, Pancur, Panacur C and Safe-Guard are the Brand Names of the MERCK product. Or you can obtain the easy to use liquid form of Fenbendazole at https://www.valleyvet.com/ct_detail.html?pgguid=30e0766b-7b6a-11d5-a192-00b0d0204ae5

10. SPECIAL PARASITE DETOX PROTOCOL from Dr. Lee Merritt
Dr. Lee Merritt uses Fenbendazole and Nitazoxanide on a specific timed schedule. Work with your physician if you are interested in this protocol. Both are easily acquired. START at the 19 minute mark in the video below.
https://rumble.com/v1owcgh-parasites-a-new-paradigm.html?e9s=src_v1_ucp

Fenbendazole from https://www.valleyvet.com/ct_detail.html?pgguid=30e0766b-7b6a-11d5-a192-00b0d0204ae5  or at https://fenbenlab.com/shop/
Nitazoxanide (Nizonide) from https://www.alldaychemist.com//catalogsearch/result/?q=Nizonide In USA to Phone Order 1(855) 840-0584. They have always been reliable.

Herxheimer effects during detox are die-off reactions like gas, bloating, diarrhea, headache and nausea. If these symptoms become significant, consider slowing or temporarily stopping the protocol and increasing hydration. Discuss persistent or severe symptoms with your healthcare provider. Your body needs time to get rid of the toxins being released into your system. Toxins leave your body primarily through the urine and stool. Increase fluids to promote the detoxing process.

11. Methylene Blue (MB)

What is Methylene Blue? Methylene Blue (MB) is one of the oldest synthetic dyes still used in modern medicine. It was first synthesized in 1876 by German chemist Heinrich Caro and has been used for laboratory staining, the treatment of methemoglobinemia, certain infections, and other medical applications. MB is available in industrial, chemical, and pharmaceutical grades. Only pharmaceutical-grade Methylene Blue should ever be used internally for human use.

IMPORTANT Warning! If you are taking any type of anti-depressant like an SSRI or SNRI like Zoloft, or others on this list https://www.whatmedicine.org/2023/10/the-most-common-antidepressants.html  DO NOT use Methylene Blue!!   Contact your physician first. See the 2 LINKS below for clean sources of MB. Combining these medications may result in a serious condition called serotonin syndrome.

Why has it been included here?

Methylene Blue has attracted research interest because of its effects on mitochondrial function. Mitochondria are the energy-producing structures within our cells that generate ATP, the primary form of usable cellular energy. Laboratory and experimental studies suggest that Methylene Blue may interact with the mitochondrial electron transport chain and, under certain conditions, may help support mitochondrial energy production and reduce oxidative stress. Research into these potential applications is continuing.

Nitric oxide (NO) is a signaling molecule naturally produced by the body. In appropriate amounts, it plays important roles in regulating blood flow, immune function, nerve signaling, and wound healing. However, excessive or prolonged nitric oxide production under certain conditions can contribute to cellular stress and mitochondrial dysfunction. Nitric oxide can also react with other molecules, particularly superoxide, to form peroxynitrite, a highly reactive compound capable of damaging proteins, lipids, DNA, and mitochondria. Therefore, the biological effects of nitric oxide depend greatly on its concentration, location, duration, and the conditions within the surrounding cells and tissues.

The reason for concerning ourselves with mitochondrial health is to support the normal function and metabolism of cells throughout the body by maintaining adequate ATP (energy) production. Healthy mitochondria help cells use nutrients from the foods we eat to produce the energy needed to perform their many functions. Excessive oxidative stress and free-radical damage can injure mitochondria, proteins, lipids, and DNA and have been associated with the development and progression of many chronic diseases, including some cancers.

Cells require energy to grow, repair themselves, communicate, and produce new cells through normal cell division. Different specialized cells form tissues, produce hormones and enzymes, transport O2 and CO2, transmit signals throughout the body, and carry out the countless chemical reactions necessary to sustain life.

Methylene Blue vs Cancer

Normal cells use (oxidize/burn) glucose (sugar) in their mitochondria (energy producers) to make ATP (energy) so the cell can do it’s job. Cancer is a metabolic problem where the cells are unable to oxidize sugar inside their mitochondria efficiently. This was documented 90 years ago by two time Noble Prize Winner Otto Heinrich Warburg. Many researchers and clinicians who support the metabolic theory of cancer have known for many years that mitochondrial dysfunction and altered cellular metabolism play a central role in the development of many cancers. This view differs from the traditional model that emphasizes genetic mutations as the primary cause. In the book ‘CANCER The Metabolic Disease Unraveled’ by Mark Sloan, there are 30 studies showing cancer cells can transform back to normal cells. With the proper interventions, Cancer cells can revert back to normal cells, no killing with chemo or radiation necessary. When mitochondria from normal cells are placed inside Cancer cells the Cancer cells transform back to normal cells. These experiments have been performed repeatedly. https://www.shortform.com/pdf/the-ultimate-guide-to-methylene-blue-pdf-mark-sloan

Why is Nitric Oxide Important to Mitochondrial Function and Cancer Research?

Nitric oxide (NO) has an important and complex relationship with mitochondrial function. At elevated concentrations or under certain cellular conditions, nitric oxide can inhibit cytochrome c oxidase (Complex IV), a critical enzyme in the mitochondrial electron transport chain that is necessary for efficient ATP production. Nitric oxide can compete with oxygen at cytochrome c oxidase, temporarily reducing mitochondrial respiration and altering cellular energy metabolism. Researchers have investigated how prolonged or abnormal nitric oxide signaling and oxidative stress may contribute to mitochondrial dysfunction and metabolic changes associated with cancer.

Nitric oxide promotes tumor growth and the formation of new blood vessels (angiogenesis) that the tumor needs to grow/spread or metastasize even further in the body. The main point here is that Cancer cells are injured cells and do not make adequate amounts of ATP/energy because of the presence of nitric oxide. Only two interventions are known to reverse this process. They are methylene blue and red light therapy, also called photo-dynamic therapy, (PDT). They break the bond between the toxin, nitric oxide, and the needed enzyme, cytochrome c oxidase, thus releasing that enzyme to participate in normal metabolism inside the mitochondria. This enables the mitochondria to produce the ATP needed for healthy metabolism in the cell.

Nitric oxide may play a complex role in cancer progression. Under certain conditions, elevated or prolonged nitric oxide signaling has been associated with processes involved in tumor growth, angiogenesis, invasion, and metastasis. Because metastasis—the spread of cancer cells from the original tumor to other parts of the body—is responsible for the great majority of cancer-related deaths, researchers are interested in biological pathways that may influence this process. Nitric oxide may also influence the ability of cancer cells to migrate and interact with surrounding tissues. This has led researchers to investigate substances that may influence excessive or abnormal nitric oxide activity. Methylene Blue is one such compound being studied. Red-light photobiomodulation has also been investigated for its ability to influence mitochondrial function, including the interaction between nitric oxide and cytochrome c oxidase, which may affect mitochondrial ATP production.

Research involving Methylene Blue extends back more than a century, although its investigation specifically for cancer remains largely experimental. Methylene Blue can participate in mitochondrial electron transport and has been studied for its potential effects on cellular energy metabolism and oxidative stress. Researchers are investigating whether these properties may be useful in cancer cells with altered mitochondrial metabolism. The mitochondrial electron transport chain consists of several protein complexes that transfer electrons and ultimately help generate ATP, the usable energy required for normal cellular function.

How much Methylene Blue do I take?

MB is sold in powder and premixed liquid forms. When mixed in water they both can be easily added to drinks with a dropper. Expect aquamarine-colored urine between 4 and 48 hours after consumption. Oral consumption of Methylene Blue is at a rate from 10mg to 40mg which would be 1 to 4 cc of a 1% solution. I take it once every one to two weeks.

For anyone wanting to drill down into the 4 steps in the electron transport chain in the mitochondria, there’s plenty on the web to enhance your understanding. However, you don’t need to know all that to benefit from MB consumption in the same way that you don’t need to know all about how a car or computer works to actually benefit from using them.

Generally low doses of MB are used from a 1% solution and range from 10mg to 40mg or 1cc to 4cc. Each cc/ml equals 10mg in a 1% solution. The book by Mark Sloan entitled “THE ULTIMATE GUIDE to METHYLENE BLUE” is an excellent resource to have on hand, 10mg to 40mg is a reasonable range for most individuals. Methylene Blue is extremely stable with a long shelf life if kept in a dark place out of sunlight. Get the book “CANCER CURED, Victory Over The WAR on Cancer” also by Mark Sloan to expand your options. It contains over 2300 references to scientific studies on cancer solutions.

General Safety Guidelines are:
(a) Methylene blue should NOT be taken with selective serotonin re-uptake inhibitors (SSRI) medications.
(b) Methylene blue should not be given to infants or children under the age of 12.  (c) Do not use Methylene Blue if you are pregnant or breast feeding.
(d) Methylene Blue may also be effective against a UTI (urinary tract infection)  (e) People with G6PD deficiency should not use methylene blue unless specifically instructed by their physician because serious complications can occur.

Methylene Blue has been used in medicine for well over a century and continues to be studied for a variety of medical applications. Within the metabolic theory of cancer, some clinicians believe it may help support mitochondrial function and improve cellular energy production. Although the laboratory research is encouraging, high-quality human cancer studies remain limited. My goal is not to present Methylene Blue as a cure, but rather as one option worth understanding as you continue learning about metabolic approaches to health and cancer.

Where can I obtain pharmaceutical grade methylene blue?

This source sells a 6-pack of blue bottles with 1 gram of Methylene Blue dry powder already in each bottle. All you do is add 4 ounces of distilled water to the bottle that contains the Methylene Blue powder and you have a 1% solution. A 1% solution is equal to 10mg per ml/cc from the eye dropper or syringe. They have several other choices in their Shop store. https://quantuminnovationlabs.com/shop/

This source also has several selections of pharmaceutical grade Methylene Blue. I have found that the small containers of 1 gram each of methylene powder are also easy to mix into a 4-ounce bottle with distilled water that they do supply for reuse with their 5-gram pack option. This turns out to be a 1% solution and equals 10mg per cc/ml. https://cztl.bz/collections/all

https://www.youtube.com/watch?v=nlm5BuQXUUw&ab_channel=HBOTUSA
https://www.youtube.com/watch?v=x7PPLiueLWs&ab_channel=JonasKuehneMD
https://www.youtube.com/watch?v=ly6tFWaroUI&ab_channel=CuttingEdgeHealthPodcastwithJaneRogers
https://drtalks.com/videos/unlocking-the-power-of-methylene-blue/

12. Red Light Therapy

What is it?

Red Light Therapy (RLT), also called photobiomodulation, uses specific wavelengths of red light (approximately 620–700 nanometers) and near-infrared light (approximately 700–1000 nanometers) to stimulate cellular activity. Research has investigated its use for wound healing, pain relief, inflammation, muscle recovery, and other medical conditions. These wavelengths are also naturally present in sunlight.

www.youtube.com/watch?v=e4zBv1N7aq8&ab_channel=FelixHarder

The primary reason for including RLT on this website is its potential to support mitochondrial function. One proposed mechanism involves cytochrome c oxidase, an important enzyme in the mitochondrial electron transport chain. Research suggests that red and near-infrared light may influence the interaction between nitric oxide and cytochrome c oxidase, potentially increasing mitochondrial respiration and ATP (energy) production under certain conditions. ATP provides the usable energy cells need to carry out their normal functions. Photobiomodulation may also influence other cellular signaling pathways, so its effects are probably not explained by this mechanism alone.

.SPECIAL NOTE: The appropriate treatment time for Red Light Therapy depends on the wavelength, intensity of the light, distance from the device, and area being treated. For many home RLT devices, treatment sessions are relatively short, often around 10–15 minutes, but users should follow the recommendations for their particular device.

Another fascinating area of research involves what scientists call systemic or “abscopal” effects of photobiomodulation. Studies suggest that exposing one area of the body to red or near-infrared light may sometimes produce biological effects in tissues that were not directly exposed. Researchers are continuing to investigate how cellular signaling and other systemic mechanisms may contribute to these effects.

If you have ever heard that we “are fearfully and wonderfully made,” my humble opinion is that this statement is a massive understatement!

Red light and near-infrared light can produce similar biological effects. One important difference is that near-infrared wavelengths generally penetrate deeper into body tissues than visible red light.

Thousands of scientific papers have been published on Red Light Therapy covering wound healing, pain management, sports medicine, neurological conditions, and other areas. As with any field, the quality of evidence varies depending on the condition being studied.

So, do your due diligence and you will find much to be discovered about this fascinating modality being studied for health and well-being. Healthy mitochondrial function and efficient ATP production are important to the normal function of cells throughout the body, and RLT is being studied for its potential to support these processes.

There are many companies that produce RLT devices. To compare available products, search for “Red Light Therapy device reviews.” Many RLT devices combine both red and near-infrared wavelengths, allowing both forms of light to be used during the same treatment session.

Without elaborating, what are some benefits of RLT?

• May promote wound healing.
• May support bone healing and bone health.
• May support testosterone production in certain circumstances, although human evidence is limited.
• May support certain aspects of brain function.
• May help reduce symptoms of anxiety and depression in some individuals.
• May improve acne and certain other skin conditions.
• May help reduce pain and symptoms associated with arthritis.
• May support mitochondrial function and ATP production, potentially in part by influencing the interaction between nitric oxide and cytochrome c oxidase.

Red Light Therapy vs Cancer

Researchers who support the metabolic theory of cancer believe that improving mitochondrial function plays an important role in supporting healthy cellular metabolism. Within this framework, Red Light Therapy and Methylene Blue have both been proposed as complementary approaches for supporting mitochondrial energy production. Human clinical research evaluating these approaches specifically for cancer remains limited and continues to evolve.

Red Light Therapy is one of the most extensively studied non-drug approaches for supporting tissue repair, reducing inflammation, and improving mitochondrial function. I believe its greatest potential lies in helping healthy cells produce the energy they need to function according to their original design. While research into its role in cancer care is still evolving, it’s safety profile and broad range of potential benefits make it a therapy worthy of careful consideration and further study.

13. Spirulina 

Laboratory and animal studies have investigated phycocyanin against several types of cancer cells, including triple-negative breast cancer. Some studies suggest that phycocyanin may influence cellular signaling pathways, including MAPK-related pathways, and may promote cell-cycle arrest and apoptosis (programmed cell death) in certain cancer cells. These findings are encouraging, but additional human clinical research is needed to determine whether these effects translate into meaningful benefits for cancer patients.

Many people use Spirulina as a dietary supplement, although serving sizes and concentrations vary considerably among products. Start with a small amount and increase gradually as tolerated, following the manufacturer’s directions. https://www.verywellhealth.com/spirulina-89079

Increasing studies have shown that phycocyanin has anti-cancer effects by blocking the tumor cell growth cycle. This review discusses the therapeutic use of phycocyanin and focuses on the latest advances of phycocyanin as a promising anti-cancer drug without harming healthy cells. Phycocyanin also serves as a promising anti-cancer agent inducing tumor cell apoptosis (programmed cell death).
https://pmc.ncbi.nlm.nih.gov/articles/PMC9513730/

Researchers have also investigated phycocyanin in pancreatic ductal adenocarcinoma (PDA), one of the most aggressive forms of pancreatic cancer. In laboratory studies, phycocyanin purified from Spirulina inhibited the growth of pancreatic cancer cells and promoted apoptosis (programmed cell death). The researchers concluded that phycocyanin showed potential as an anti-pancreatic cancer agent and warranted further investigation. However, these findings were based primarily on laboratory and animal research and do not establish phycocyanin as a treatment for pancreatic cancer in humans.

Additional Videos

https://www.nature.com/articles/srep34564
https://www.youtube.com/watch?v=F3cPWs7sKig&ab_channel=Dr.JoshAxe
https://www.youtube.com/watch?v=t0fj76eMlMk&ab_channel=LiveWell
https://www.youtube.com/watch?v=QxB_H6noG_U&ab_channel=SuperfoodEvolution

Good quality brands are here.
https://www.nutrex-hawaii.com/collections/hawaiian-spirulina
https://mrmnutrition.com/products/superfoods-raw-spirulina-powder
Nautical Elements Spirulina 240 Capsules from Amazon at $20

One important thing to know about Spirulina is that much of its vitamin B12-like content is not true, biologically active vitamin B12, but rather an inactive analogue sometimes called pseudovitamin B12. For this reason, Spirulina should not be relied upon as a primary source of vitamin B12. Those needing additional B12 should obtain it from reliable sources such as foods naturally containing B12, fortified foods, or supplements containing active forms of cobalamin.

Spirulina is another example of a natural product that has generated considerable scientific interest because of its active compound, phycocyanin. The laboratory research is encouraging, particularly regarding antioxidant activity, inflammation, and the ability to influence cancer cell growth in experimental models. For that reason, I view Spirulina as one possible component of an overall strategy to support health and mitochondrial function rather than as a stand-alone cancer treatment. As always, continue learning, evaluate the evidence carefully, and discuss any supplements with your healthcare provider, especially if you are receiving cancer treatment.

https://pmc.ncbi.nlm.nih.gov/articles/PMC4879233/