Amas Test: Early Cancer Screening
Know Your Meds
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Building Your Plate for Success
This is my recommended diet plan to help you achieve your health goals. If you want to lose weight quickly, we offer the Cox Natural Weight Loss Solution, which is a comprehensive weight loss plan.
"Dr Cox just said we have allergies... What now?"
I'm allergic to:
Soy- First, soy is not a food any of us should eat, due to the link between phytoestrogens and cancer. As someone allergic to soy, you must become a diligent label reader. Soy is in everything from granola bars and cereal to barbecue sauce and candy bars. Careful label reading will save you from having an accidental reaction.
Wheat- When you are allergic to wheat, you will need to switch to alternative grains. Oats, corn, and rice can all substitute for flour. Choose grilled chicken salad instead of fried chicken sandwiches, and corn tortillas instead of flour. There are also numerous wheat free breads sold at the grocery store.
Gluten- Honestly, there has never been an easier time to eat gluten free. In recent years, there has been a surge of gluten free products being sold at grocery stores and restaurants. Now, you can easily find gluten free breads, cereals, pizza doughs, and baking mixes. Substitute corn, rice, and quinoa for flours, but avoid oats, wheat, flour, rye, etc. Look online for gluten free recipes and ideas.
Milk- As with gluten free products, non-dairy products have gotten much more readily available.
The most healthy choices are goat's milk ,almond milk, or coconut milk. You can also find cheeses and even yogurts made with alternative milks. Be sure to read labels of the food you eat. Many foods contain milk.
Sugar- Like those allergic to soy, you will need to become an avid label reader. Sugar is hiding in marinades, spice mixes, and salad dressings. The best sugar substitute is stevia (make sure to use the liquid, though. The powdered version contains sugar).Also, honey, and xylitol are good choices. Use honey or xylitol for baking. Click HERE for substitution directions for honey or HERE for substitition directions for xylitol.
**For help deciphering food labels, we suggest the "shop well" app for smart phones.You can enter in your allergies, scan food labels, and it will stop you from accidentally eating something that will make you ill! **
Further Reading About Kinesiology
Studies that explore the use of Kinesiology and muscle testing• Leisman, G., Shambaugh, P., Ferentz, A. Somatosensory Evoked Potential Changes During Muscle Testing. International journal of Neuroscience. 1989; 45:143-15 1.
This study measured the way the central nervous system (brain) is functioning when muscles test strong versus when they test weak. Clear, consistent and predictable differences were identified in the brain between weak and strong muscle test outcomes. This supports the idea that manual muscle testing outcome changes reflect changes in the central nervous system.
• Leisman, G., Ct al. Electromyographic Effects of Fatigue and Task Repetition on the Validity of Estimates of Strong and Weak Muscles in Applied Kinesiology Muscle Testing Procedures. Perceptual and Motor Skills. 1995; 80:963-977.
This paper describes the results of six independent studies. The points supported by the research were:?Muscles identified as “weak” using applied kinesiology manual muscle testing methods are fundamentally in a different state than those identified as “strong”
Muscles testing “weak” using AK are fundamentally different than muscles that are fatigued. In other words, “weakness” is not attributable to fatigue;
AK muscle testing procedures can be objectively evaluated via quantifying the neurologic electrical characteristics of muscles;
cause and effect of applied kinesiology treatment can be plotted over time objectively.
• Perot, C., Meldener, R., Gouble, F. Objective Measurement of Proprioceptive Technique Consequences on Muscular Maximal Voluntary Contraction During Manual Muscle Testing. Agressologie. 1991; 32(10):471-474.
This French study measured the electrical activity in muscles. It established that there was a significant difference in electrical activity in the muscle, which corresponded with the difference perceived of “strong” versus “weak” muscle testing outcomes by AK practitioners. It further established that these outcomes were not attributable to increased or decreased testing force from the doctor during the tests.
In addition, the Perot study showed that manual treatment methods used by AK practitioners to reduce the level of tone of spindle cells in the muscle are in fact capable of creating a reduction in tone of the muscle, as had been observed clinically.
• Lawson, A., Calderon, L. Inter-examiner Agreement for Applied Kinesiologv Manual Muscle Testing. Perceptual and Motor Skills. 1997; 84:539-546
This study demonstrated significant inter-examiner reliability for individual tests of the pectoralis major and piriformis muscles, but not for the tensor fascia lata or hamstring, which are essentially tests of groups of muscles at once. The primary importance of this study is that it demonstrates the reliability and reproducibility of muscle testing as a clinical tool, while also highlighting the need for clinicians to be aware of potential inaccuracies involved with the testing of some muscle groups.
• Schmitt, W., Leisman, G. Correlation of Applied Kinesiology Muscle Testing Findings with Serum Immunoglobulin Levels for Food Allergies. International Journal of Neuroscience. 1998; 96:237-244.
This study showed a high degree of correlation between AK procedures used to identify food allergies and serum levels of immunoglobulins for those foods. AK methods in this study consisted of stimulation of taste bud receptors with various foods, and observation of changes in manual muscle testing that resulted. The patient was judged to be allergic to foods that created a disruption of muscle function. Blood drawn subsequently showed that patients had antibodies to the foods which were found to be allergenic through AK assessment.
• Caruso, B., Leisman, G. A Force/Displacement Analysis of Muscle Testing in Applied Kinesio1ogy. Perceptual and Motor Skills. 2000 (In Press).
Using a force transducer developed by Dr. Caruso, this study demonstrated the difference between muscles which the examiners perceived to be “weak” or inhibited, and those perceived to be “strong” or facilitated. This study also demonstrated that examiners with over five years of clinical experience using AK procedures were shown to have reliability and reproducibility when their outcomes were compared. Also, the perception of inhibition or facilitation was made in the initial pressure exerted by the examiner and this was corroborated by test pressure analysis using the instrumentation developed.
• Motyka, T., Yanuck, S. Expanding the Neurological Examination Using Functional Neurologic Assessment Part I: Methodological Considerations. International Journal of Neuroscience. 1999; 97:61-76
The authors discuss AK as a clinical measure of neurologic function. A review of the literature reveals methodological problems with previous studies of AK as a form of neurologic assessment. The authors discuss the problems with research designs that do not reflect the clinical practice of AK which are common in the literature. They outline principles of AK and recommend that future research reflect more accurately the clinical practice of functional neurologic assessment and AK.
• Schmitt, W., Yanuck, S. Expanding the Neurological Examination Using Functional Neurologic Assessment Part II: Neurologic Basis of Applied Kinesiology. International Journal of Neuroscience. 1999; 97:77-108.
This paper proposes a neurologic model for many of the AK procedures. Manual assessment of muscular function is used to identify changes associated with facilitation and inhibition, in response to the introduction of sensory receptor-based stimuli. Muscle testing responses to sensory stimulation of known value are compared with usually predictable patterns based on known neuroanatomy and neurophysiology, guiding the clinician to an understanding of the functional status of the patient’s nervous system. The proper understanding of the neurophysiologic basis of muscle testing procedures will assist in the design of further investigations into AK. Accordingly, the neurophysiologic basis and proposed mechanisms of these methods are reviewed.
• Caruso, W., Leisman, G. The Clinical Utility of Force/Displacement Analysis of Muscle Testing in Applied Kinesiology. International Journal of Neuroscience. 2000 (In Press).
The goal of the study is to provide a physical record to support the subjective judgment that constitutes an AK muscle test. These records are perceptible to any interested observer and also allow the observer to distinguish clearly the two outcome states. That is, the images presented in the record by conditionally inhibited and conditionally facilitated muscles are unambiguously distinct. And the distinction must be rigorously quantifiable.
Unlike the X-ray of the radiologist and the histological specimen of the clinical pathologist, however, the objective record will not be the source of the AK practitioner’s judgment; that is, he will continue to rely on his trained perception of the event that produces the record. But the record will stand after the fact as a piece of objective evidence that others may examine in order to confirm the practitioner’s judgment.
• Esposito, V., Esposito, C., Leisman, G. Therapeutic Effects of Blocks on Disc Herniation with Real-Time Magnetic Resonance Imaging. Journal of Manual and Manipulative Therapy. 2000 (In Press).
The study uses f-MRI images during blocking and muscle testing. The study demonstrated real-time changes in spinal activity with the Sacro-Occipital Technique.
• Monti, D., Sinnott, J., Marchese, M., Kunkel, E., Greeson, J. Muscle Test Comparisons of Congruent and Incongruent Self-Referential Statements. Perceptual and Motor Skills. 1999, 88:1019-1028.
This study investigated differences in values of manual muscle tests after exposure to congruent and incongruent semantic stimuli. Muscle testing with a computerized dynamometer was performed on the deltoid muscle group of 89 healthy college students after repetitions of congruent and incongruent self-referential statements. The order in which statements were repeated was controlled by a counterbalanced design. The combined data showed that approximately 17% more total force over a 59% longer period of time could be endured when subjects repeated semantically congruent statements. Over all, significant differences were found in muscle test responses between congruent and incongruent semantic stimuli.