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Researchers Find Healthy Mitochondria Can Combat Alzheimer’s

There are many debilitating diseases that afflict humans. We are faced with numerous afflictions that do not have a cure as of yet. One of the most commonly known is cancer, which includes a range of different types. We have effective means of treating and getting rid of cancer, but we have nothing to prevent it or cure it outright. Individuals with cancer have to go through numerous chemotherapies, which is costly and makes us weak.

As we age, we encounter more diseases because our bodies are getting weaker. We are more prone to common illnesses, like the cold or flu, and our immune system becomes less effective at combating bacterial or viral infections that never really bothered us before. Over time, our minds also become weaker. We become more forgetful and cannot focus as much as we did when we were younger.

“Life is difficult. Not just for me or other ALS patients. Life is difficult for everyone. Finding ways to make life meaningful and purposeful and rewarding, doing the activities that you love and spending time with the people that you love – I think that’s the meaning of this human experience.” — Steve Gleason

It was only a few years ago that celebrities and people across the internet were raising awareness for amyotrophic lateral sclerosis (ALS) by doing the ice bucket challenge. ALS is one of many neurodegenerative diseases that can affect us when we get older. ALS is typically seen in individuals in their 50-60s but can appear earlier or later.

Neurodegenerative diseases are the result of a progressive loss of neurons via their death, loss of structure, or loss function. At the moment, these diseases are incurable. We do have treatments to slow them down, but nothing to get rid of them or prevent them.
Recently, researchers have looked into the relationship between mitochondria and Alzheimer’s to see if a potential treatment or cure can be found because many Alzheimer’s patients tend to have dysfunctional mitochondria.

What Is A Mitochondria

The mitochondria are the power plant of the cell. It is an organelle within cells that generate energy molecules to power cellular functions. They are a kind of cell within a cell because they have their own double membrane and DNA that separates them from other organelles. It is thought that the mitochondria were highly specialized bacteria that were engulfed by a eukaryotic ancestor and survived. It eventually formed a symbiotic relationship with the host and evolved to become a single species.

Mitochondrial DNA is very small compared to the DNA in our genome because, over time, most of the original mitochondrial DNA migrated to the main set of DNA to further connect the two. This means that detrimental things that happen to DNA in either our chromosomes or the mitochondria can lead to diseases and a weakened state.

Cells are capable of creating more mitochondria when they need more energy or inhibiting that growth when there is an energy surplus. Cells are also able to kill off old or dysfunctional mitochondria to prevent them from damaging the cell or other cells. Maintaining enough energy to carry out different cellular functions is important to the health of an individual and failure to do so can lead to many different kinds of diseases.

Mitochondrial diseases are the direct result of the mitochondria failing to perform its normal functions. There are many different types. There are also diseases that, while not caused by the mitochondria, are associated with mitochondrial defects because they result in an increased disease state and makes the disease worse. One such disease is Alzheimer’s, which is one of the reasons that researchers are looking at mitochondria to deal with it.

What Is Alzheimer’s

Alzheimer’s disease is progressive neurodegenerative disease that results in memory loss and loss of other mental functions. It is the most common cause of dementia, which is a group of mental disorders resulting in the loss of social and cognitive skills important for daily function. Like other neurodegenerative diseases, Alzheimer’s is the continued loss of brain cells as they degenerate and die or lose functioning. This all leads to the symptoms that we see. Because this is a progressive disease, it becomes worse the longer it remains until it becomes fatal. Its symptoms may start off with minor confusion or difficulty remembering things, but as time goes on and more cells degenerate, the symptoms get worse.

“Alzheimer’s is a devastating disease. It was painful for me and my family to watch my grandfather deteriorate. We must find a cure for this horrible disease.” — David Hyde Pierce

While the disease is associated with aging, it is not an age-based condition and can affect individuals below 65 years of age in early-onset forms of the disease. Researchers believe that Alzheimer’s is caused by genetics, lifestyle, and the environment. Genetic factors increase your chance of getting the disease but rarely lead to it. Only 5% of Alzheimer’s cases are the direct result of genetic factors.

There are over 5 million people in the United States with Alzheimer’s and it is expected to reach over 16 million people by 2050. Since 2000, there has been an 89% increase in death related to the disease and it is expected to rise without any improved treatments or cures.

Alzheimer’s also creates a burden on the healthcare and social systems of the U.S. because individuals affected by the disease are in need of care from others. It is estimated that over $250 billion was spent on caring for individuals with the disease. With the anticipated increase in cases of Alzheimer’s, this number will probably increase.

There is currently no cure for the disease and treatment options are for slowing down and mitigating the symptoms for a certain amount of time. The other options are constant care for individuals. As Alzheimer’s continues to become a central part of health issues faced by people, research into a cure and better treatment continue.

A Potential Treatment

One of the treatment options for Alzheimer’s that is being heavily researched is the reduction in amyloid plaque formation. Amyloid plaques are characteristic of Alzheimer’s and are buildups of outside nerve cells in the brain. Because of the direct association with Alzheimer’s, researchers have been looking into but results are currently inconclusive.

Faced with this lack of results, researchers are looking into other avenues to find a cure. Researchers from the Ecole Polytechnique Fédérale de Lausanne, in Switzerland, decided to explore the disease as a metabolic condition rather than a neurodegenerative disease. They did so because the cells that degenerate in Alzheimer’s become unable to protect their mitochondria and remove any dysfunctional ones. This results in further cellular degeneration and increases the diseased state.

Since the mitochondria provide energy to the brain and everywhere else in the body, diseases that prevent their repair and turnover favor dysfunctional mitochondria. Understanding this, the researchers looked into how they can protect the mitochondria from becoming dysfunctional to see if it affected the disease.

“Suffering is always hard to quantify – especially when the pain is caused by as cruel a disease as Alzheimer’s. Most illnesses attack the body; Alzheimer’s destroys the mind – and, in the process – annihilates the very self.” — Jeff Kluger

The researchers examined the mitochondrial unfolded protein response (UPRmt), to protect the mitochondria under stress, and mitophagy, which is responsible for the mitochondrial death. They found that by activating these two factors of mitochondria of worms, the mitochondria were kept safe from dysfunction and dysfunctional ones died out. This leads to fewer amyloid plaques and created more healthy worms that performed better and lived longer than their non-activated counterparts.

The results are exciting because they showcase the important role of the mitochondria in Alzheimer’s as both a factor increasing the diseased state and potential treatment or cure. While this needs to be tested in humans to see if the results will be similar, the researchers also tested the activation in mitochondria of cultured human cells and saw similar results.

As with any new research, more work is needed to support this finding before we can move on to humans to test. If successful, this treatment might be able to stop the progression or slow it down a lot. This would allow people to live longer and better as well as be the first step towards a cure.

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  • Dear Ken Shonk,

    Thank you so much for your contribution. It is simple true. We have already the portal to heal this disease and a nearby one the Parkinsonś disease. Our minds mainly the collective part of the mind have to get used to it: this positive way out. We all have to overcome a strong conviction and taboe as well.
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  • This article, unfortunately, leads people to believe that there is no current treatment for Alzheimer's and that all treatments for cancer involve patented toxic phamacuetical drugs that are expensive. Nothing could be further from the truth. Reversal of Alzheimer's and cancer by treating mitochondrial dysfuntion in humans has already been accomplished. Dr. Dale E. Bredesen (an Alzheimer's reseacher with numerous publish paper) while at the Buck Institute for Research on Aging has published two papers in the journal 'Aging' (2014 and 2016) detailing a 37 step protocol for treating Alzheimer's with which he reverse Alzheimer's in 9 of 10 test patients, starting in 2012. Here are the references:
    1) Dale E Bredesen, Edwin C Amos, Jonathan Canick, Mary Ackerley, Cyrus Raji, Milan Fiala, Jamila Ahdidan (2016) "Reversal of cognitive decline in Alzheimer's disease." Aging (Albany NY), 8:6 1250-8
    2) Dale E Bredesen (2014) "Reversal of cognitive decline: A novel therapeutic program." Aging (Albany NY), 6:9 707-17
    In addition: Dr. Bredesen has published a book (August, 2017) describing the protocol (ReCode Protocol) and its results, "The End of Alzheimer's". You can view Dr. Mercola's interview of Dr. Bredesen at: https://www.youtube.com/watch?v=qrQyxWP-S2s&feature=em-subs_digest.

    Dr. Thomas Seyfried a cell biologist at Boston University Medical School, has published many papers ad two books describing the mitochondrial / metabolic origin of cancer as follows:
    1) Seyfried, Dr. Thomas, 2012, Cancer as a Metabolic Disease: On the Origin, Management, and Prevention of Cancer 1st Edition (a very academic book an expensive)
    2) Kalamian, Miriam, Ed M., MS, CNS, and Seyfried, Dr. Thomas, 2017, Keto for Cancer: Ketogenic Metabolic Therapy as a Targeted Nutritional Strategy, Oct 18, 2017
    In addition, here are two additional books describing this approach to cancer:
    1) Kristoffersen , Tripping Over the Truth (describes the history of the theory of the mitochondrial / metabolic origin of cancer from Otto Warburg's work in the 1920's and 1930's to Dr. Seyfried work in layman terms)
    2) Winters, Dr. Nasaha, 2017, The Metabolic Approach to Cancer: Integrating Deep Nutrition, the Ketogenic Diet, and Nontoxic Bio… by Dr. Nasha Winters ND FABNO L.Ac Dipl.OM (cured her own breast cancer using this approach).

    One doesn't have to wait for research to defined the molecular mechanism by which mitochondrial dysfunction causes Alzheimer's and cancer or some expensive pharmacuetical drug for which the exact molecular mechanism has been worked out. The path is already clear and can be acted upon today, and its simple, doesn't require expensive pharmacuetical drugs, or genetic intervention. It requires 1) elimination of toxins like aluminum, lead, mercury, pesticides, sugar and high glycemic foods, herbicides, and organic pollutants from the body; 2) optimal nutrition which includes exclusion of dangerous lectins, and 3) exercise - especially high intensity, short duration exercise. The key is reengineering metabolic flexibility so that the body is capable of utilizing both fat as ketones and glucose for energy.