Muscle testing uses feedback from the body to give information about how the body is functioning. This feedback can then guide us as to which modalities (nutrition, bodywork, emotional work, energy changes, or interactions) to use to regain health.
Wholistic Kinesiology is different than Kinesiology in that it is used in a clinical setting to evaluate much more than muscle strength. It is the art and science of neuromuscular evaluation for optimizing health. Or simply put, it is a remarkable tool that allows you to speak to the body.
If we want to get more complicated, it is a neurological test for evaluating the body’s electromagnetic potentials. When we do Kinesiology, we are working with the nervous system, which is an electrical system and has positive and negative flows. It creates an electromagnetic field around it (very measurable) and it can be shorted out just like our electrical systems in our homes.
The Chinese systems of flow of electrical energy are called meridians. In Kinesiology, we make great use of the meridian flow pathways in the body. The eastern medical practitioners have paved the way for us by literally mapping out electrical highways in the body. If electrical energy is not flowing properly to an organ or muscle or joint we can detect this imbalance through testing the nervous system. This system of diagnosis may sound simplistic but it is very profound and valuable.
The recent advances in genetic research have finally reached a point where we can begin to look at specific genes and what their functions are. With the recent completion of the genome project, research is mounting as studies are being conducted and associations being made as to the relevance of genetic variants to disease causation. One such area of research has lead to a major breakthrough in our understanding of the origins of cancer, heart disease, osteoporosis, autoimmune disease, chronic fatigue syndrome and so much more. This connection between our genetic variants or SNiP’s (Single Nucleotide Polymorphisms) and disease has revealed the importance of a metabolic pathway in the body that is critical to maintaining health, the methylation cycle. The methylation cycle, it turns out, is involved in many regulatory processes and genetic variants there can be particularly damaging. The good news is that we now have ways to bypass these defects with specific targeted nutrients and restore normal functioning to the body.
Methylation is the process of a transfer of a methyl group (one carbon atom and three hydrogen atoms) onto amino acids, proteins, enzymes, and DNA in every cell and tissue of the body to regulate healing, cell energy, genetic expression of DNA, neurological function, liver detoxification, immunity, etc. This process is one of the most essential metabolic functions of the body and is catalyzed by a variety of enzymes. The methylation process is responsive to environmental conditions and degrades with age, a process associated with a large variety of age-related disorders. Thus, with respect to the effect of methylation, it is a continuous struggle in life to adapt to the ever-changing environment. Health and quality of life are highly dependent on the methylation process.
This is such a new and emerging science but one that holds great promise in the natural health care realm. The results that are being seen in the preliminary stages are astounding. Understanding the cycle does take some time and study, but for health care practitioners and patients alike the rewards are tremendous. Prevention of those conditions that we consider “inherited” or chronic is well within our grasp.
The most important point of the methylation cycle is the production of glutathione (GSH). If GSH production is inhibited as it is with several types of genetic variants, then dysfunction and disease result.
Methyl cycle gene variants (and low glutathione) leave you sensitive to environmental toxins, compromise your defense against microbial infection, and complicate proper reading of your remaining genes. Methyl cycle dysfunction explains why one individual is damaged by environmental toxins, while others living in the same environment are unaffected.
Glutathione is a small protein made up of three amino acids. It is present in every cell of the body, as well as in the blood, the bile and the fluid lining the lungs. The main site of production of glutathione occurs in the liver which plays many important roles in the body. Probably the best known are its protection against oxidative stress, support for the immune system, and in removing a variety of toxic substances from the body.
When glutathione becomes depleted due to increased stress or genetic variants, its normal functions are simply not performed well. Many of symptoms can be traced directly to glutathione depletion including:
Fatigue due to oxidative stress and mitochondrial dysfunction and low ATP output (Pyruvate cannot run through Krebs cycle).
Heart dysfunctions and resultant low cardiac output (heart palpations, fatigue, low heart rate)
Buildup of toxins including heavy metals which damage many enzymes and block absorption. Which leads to further depletion of glutathione.
Immune dysfunction and chronic infections
Autoimmune disease-Decreased cell mediated immune response and shift to TH2 immune response from TH1.
Folate deficiency with low methylation along with genetic variants in the VDR gene decreases the B and T cell production
Joint pain and inflammation-Increased inflammation from pro-inflammatory cytokines
Digestive issues due to lack of ATP in parietal cells and low production of HCL.
Low absorption of nutrients results along with gastric reflux and survival of yeasts and bacteria from food which results in dysbiosis. Lack of conversion of pepsinogen to pepsin (requires ATP). This all results in poor gastric signaling to the pancreas and gallbladder for release of digestive enzymes and bile. This also results in low absorption of B12 and further aggravates the problem.
Food sensitivities and leaky gut
Increased levels of histamine lead to the release of Zonulin which increases gaps in the cells of the intestines. The resultant food sensitivities result in further immune dysregulation.
Thyroid problems (hypothyroidism, increased reverse T3, Hashimoto’s Thyroiditis) Glutathione normally protects the thyroid from damage due to hydrogen peroxide produced in the production of thyroid hormones. The immune system mounts an attack on these foreign proteins and creates the autoimmune response of Hashimoto’s.
Low secretion and dysregulation of ACTH (adrenocorticotrophic hormone) This leads to low cortisol in the long run. The initial high stress period starts with high cortisol secretion, then eventual exhaustion and low cortisol levels.
Blunting of the HPA axis (pituitary-adrenal issues) due to continued high cortisol initially.
Decreased ADH (Antidiuretic hormone) which leads to Diabetes Insipidis. Signs and symptoms include constant thirst and high urine volume. Eventually leading to low blood volume and increased fatigue.
Anxiety-Glutamate cannot be broken down correctly into GABA. This results in neurological damage. (Symptoms include anxiety, nervousness, insomnia, diabetes)
Low Dopamine-this can lead to depression, apathy, ADD, ADHD and addictive behavior.
Disrepair of myelin-slow brain processing and possible MS, ALS. This also increases sensitivity to EMF’s. Myelin basic protein, phosphatidyl choline and choline plasmogen require methylation for repair. Lack of effective insulation causes the increased susceptibility to electromagnetic radiation damage.
Neurotransmitter depletion-Resulting in depression, anxiety, bipolar disorder.
The methylation cycle performs many vital roles in the body. First, by means of SAMe, it supplies methyl (CH3) groups to many different biochemical reactions. Some of them produce substances such as coenzyme Q-10 and carnitine, which have been found to be depleted in many chronic fatigue patients. Methylation also plays an important role in “silencing” certain DNA to prevent its expression, and in producing myelin for the brain and nervous system. Some key areas that methylation plays a role in are:
Nervous System Function: When the methylation cycle is interrupted, as it is during vitamin B12 deficiency, the clinical consequence is the demyelination of nerve cells resulting in a neuropathy which may lead to loss of control of bodily functions, paralysis, and, if untreated, ultimately death. Not only can nerves not myelinate without proper methylation, but they also cannot re-myelinate after any environmental damage or viral infection. Regeneration of nerves is also disrupted due to the lack of methylation of the myelin sheath.
Hormone Balance: Methylation regulates hormone function such as estrogen and testosterone. When one considers that high estrogen levels may lead to breast cancer whereas low testosterone levels may lead to prostate cancer, this turns out to be a critical pathway to balance rather than simply useful for mood stability.
Allergies: Methylation also regulates histamine levels, a critical hormone often over-expressed in allergic reactions as well as in those with seasonal allergies, eczema, asthma, hives and/or anaphylactic reactions. Outcomes may range from mild symptoms of sneezing and congestion from animal dander or pollen to life-threatening and even fatal reactions from bee stings or eating simple foods such as peanuts or shellfish.
Emotional and Mental Health: In the methylation pathway, one crucial component for neurotransmitter balance is the component, S-adenosyl methionine, or SAMe (pronounced “sammy”). SAMe is the most active methyl donor in your body, bringing methyl groups to numerous chemical compounds in your body. It also acts upon the neurotransmitters by changing them into other needed compounds. If we don’t have sufficient SAMe—or if SAMe can’t be recycled due to weaknesses in the methylation cycle, this can result in imbalances in our neurotransmitters, which in turn can impact mood, focus, sleep patterns, and a range of behaviors.
Pain and Inflammation: DNA methylation is also involved in chronic pain. Specifically, DNA methylation of the SPARC promoter is increased with age and intervertebral disc degeneration, resulting in the silencing of a gene that is protective against accelerated disc degeneration. This can lead to chronic low back pain and inflammation. The SPARC gene is likely to be just one example of many pain-relevant genes that are similarly regulated by DNA methylation in both peripheral tissues and in the central nervous system.
When the methylation cycle is blocked these important roles are not carried out properly. In addition, a methylation cycle block causes a block in folate metabolism, to which it is intimately
linked, and this interferes with synthesis of new DNA and RNA, among other important effects and can be seen associate with birth defects and cancer.
Two of the most significant effects of a methylation cycle block are that neither the immune system nor the detox system can operate properly. If the methylation cycle remains blocked for an extended period of time, infections and toxins will build up in the body.
A simple genetic abnormality in the methylation pathway, compounded with further assaults from environmental and infectious agents, can lead to a wide range of conditions including cardiovascular disease, neurotransmitter imbalances, cancer, diabetes, abnormal immune function, chronic fatigue syndrome (CFS), multiple sclerosis (MS), ALS, cognitive dysfunction in patients with dementia, neurological and psychiatric disorders, Alzheimer’s disease (AD), Down syndrome, autism, neural tube defects, chronic inflammation, repeated miscarriages, atherosclerosis, arteriosclerosis, carcinogenesis, etc. have been associated with aberrant gene methylation patterns in the vascular tissue and peripheral blood cells.