The Technology Behind Our Scans
The Bio Energy Systems Technology (BEST) Scan provides a comprehensive and personalized assessment of an individual's energetic field, and real-time physiological activities, identifying imbalances that can impact physical, mental, and emotional well-being. By detecting these disruptions early, before and after they manifest as physical symptoms, the scan allows for proactive and targeted interventions to restore balance and promote overall health. This holistic approach not only enhances self-awareness and empowers individuals to make informed health decisions but also complements other medical and therapeutic treatments, leading to improved energy levels, stress reduction, and long-term wellness.
The science behind Bio Energy Systems Technology (BEST) scan is rooted in the intrinsic electrical currents present in all living cells. These currents are generated through ion channel movements, dipole frequencies, and various molecular processes. By measuring these underlying electrical activities, BEST can reveal valuable systemic information that directly relates to both pathological and physiological conditions.
Basic physics teaches us that where there are electric currents, there will be associated electromagnetic fields. These fields result from the myriad electrical processes constantly occurring within the cellular matrix of our bodies. These minute electromagnetic fields, known as biophotons, are ultra-weak photon emissions produced by biological systems. Biophotons are weak electromagnetic waves that exist within the ultraviolet to the optical range of the intensity spectrum, encompassing both visible and non-visible light, which are composed of packets of photons.
The body’s biophoton emission reflects cell-to-cell communication and indicates the functional state of the organism. Measuring these emissions can provide valuable insights into this state. Biophotons are primarily generated by mitochondrial ATP energy production and the polarization of intracellular and extracellular matrices. Mitochondria, which are present in every cell except red blood cells, are more concentrated in organs and systems with high energy demands, such as the brain, liver, skin, muscles, and nerves. Changes in biophotonic activity can indicate variations in mitochondrial ATP energy production, which manifest in both physiological and pathological conditions.
The Bio Energy Systems Technology (BEST) Scan image is captured when a finger is placed on a glass imaging plate, and a high-frequency voltage impulse is applied to the underside of the glass. Fingers contain a high concentration of nerve endings, leading to greater electrical activity and higher concentrations of biophotons.
This high-voltage impulse creates a localized electromagnetic field around the finger, which excites and amplifies the biophotonic field within the skin and nerve cells of the fingertip. This process excites the local air molecules, forming a room-temperature plasma field.
The energy from this plasma field is released through the excitation of local air molecules, emitting photons within the ultraviolet and visible light spectrum. These emitted photons are captured by a camera and sent to a computer system. The resultant image is analyzed using various algorithms. Similar to automated X-ray readers, sophisticated processes within the BEST scan software create a prioritized scoring method, providing quantifiable data useful for assessment and monitoring.
The BEST scan takes about 5-7 minutes to administer, with an additional 8 minutes needed to process the data. It produces a twenty-two-page report, offering both a quick dashboard summary and an in-depth assessment of the body's major organ systems. The BEST scan’s measurement of electrophysiological signals reflects the functional dynamics of the cellular matrix, including changes in mitochondrial ATP energy production in both physiological and pathological conditions. Its ability to reflect current cell-to-cell signaling allows for the assessment of the real-time functional state of various organs and body systems, considering factors such as nutrient choices, stress, environment, and activity.
Understanding the micro-metabolic effects of food choices, fluids, hydration, exercise, environmental factors, and stress on the cells and organs responsible for health and homeostasis is challenging. Disruptions like metabolic syndrome are often not evaluated or addressed, despite being common in America and major contributors to chronic illnesses such as heart disease, diabetes, and cancer. Similarly, systemic inflammation, a complex response linked to chronic pain, obesity, neuropathy, Alzheimer's disease, diabetes, heart disease, stroke, migraines, thyroid and autoimmune disorders, dental issues, and cancer, is difficult to measure before it triggers disease symptoms. It is crucial to "see," understand and manage these complex and interdependent functional dynamics to promote health rather than just treating symptoms.
The BEST scan’s measurement of electrophysiological signals resulting from the micro-metabolic behavior within the body is useful for assessing and monitoring organs and body systems affected by changes in the systemic microenvironment. It is a critical tool for multidisciplinary healthcare teams, enabling them to view the impact of multiple variables, measure and quantify vulnerabilities, and ultimately prevent disease and promote health.
For those familiar with Bio Energy Systems Technology (BEST) or who have experienced it firsthand, a common question is: “How do images of fingertips provide so much information?” Let’s explore the key factors that make this possible.
The skin on the palm side of our fingertips is highly specialized for sensory input. Each fingertip is packed with about 17,000 touch receptors and nerve endings that detect pressure, movement, and vibration. This dense network of sensors and nerves makes the fingers highly responsive to environmental stimuli.
Each hand contains 48 named nerves, including major nerves, sensory branches, and muscular branches, all part of the peripheral nervous system. This system relays information from the body to the central nervous system (CNS), which includes the brain and spinal cord. The CNS processes and integrates sensory data and motor commands, coordinating rapid responses to environmental changes. For example, the "fight or flight" response redirects blood flow to critical organs like the heart and lungs when faced with a threat, demonstrating the body's highly integrated and fast-reacting nature.
Holographic and Quantum Mechanical View
Recent research suggests that traditional theories of nerve impulse transmission are too slow to explain the body's real-time processing capabilities. Quantum theory offers a new perspective, proposing that biophotons—electromagnetic light waves within our cells—facilitate rapid information transfer throughout the nervous system. Neurons use these biophotons to transmit information cohesively, allowing the body to respond swiftly to environmental changes. This system connects all parts of the body, making it a highly efficient sensory and motor system.
BEST Scan Technology
The BEST scan leverages this advanced communication system by analyzing biophoton emissions from the fingertips. Fingers are ideal for this because they are easily accessible and have high sensory activity. The scan uses a mapping system that correlates signals from the fingers to 49 identified organ systems and structures. This method, based on early research by scientists like R. Becker and H.S. Burr, has been validated through clinical studies, making the BEST scan a powerful tool for assessing and monitoring health.
In summary, the BEST scan provides a comprehensive view of your body’s health by tapping into the rapid, intricate communication networks of your nervous system, using your fingertips as a window into your overall well-being.
Clinical data from a 350+ patient study at Johns Hopkins affiliate Greater Baltimore Medical Center (GBMC) has shown solid evidence the BEST scan measurement has a significant association with organ system dysfunction and/or associated risk for disease. The objective of the study was to determine if the BEST scoring would correlate with the involved organ or system as determined by physician diagnosis. A cohort of 353 subjects comprised of individuals who visited the hospital and/or outpatient clinic and were newly or previously diagnosed within five (5) diagnosis groups (cardiovascular, gastrointestinal/endocrine, renal, hepatic, and respiratory) was evaluated by the Bio Energy Systems Technology. A control group of staff, friends, and family of the hospital and outpatient clinic were also evaluated by the BEST scan. The BEST scores were compared to the physicians’ diagnoses from the hospital and/or outpatient clinic medical records. The results of the study showed that as the BEST scan score increased in number on a response scale, the probability that a patient had an active medical diagnosis also increased. As shown below, the odds ratios were statistically significant for each of the five organ systems studied, indicating the BEST Scans' Response Scale is able to detect an association with the system(s) and/or organ(s) involved in the diagnosis.
The strong data from the GBMC study indicates a high correlation between the BEST scan Response Scale and the organ systems involved in clinical diagnoses. The BEST scan can be a valuable tool in medical facilities, serving as a baseline health assessment, a triage tool for urgent care and emergency departments, and a means to monitor and customize treatment outcomes in hospitals and clinics. Additionally, it can be used by individuals who want to optimize their health and wellness through preventative actions.
The BEST scan offers significant clinical benefits, including assessing mitochondrial function and dysfunction, understanding its contribution to disease states, and identifying functional nutrient deficiencies that affect mitochondrial energy production. With the BEST scan, healthcare providers can make customized nutritional, activity, and therapeutic recommendations. Continued use and exploration of the BEST scan will further demonstrate its versatility and credibility, establishing it as a top choice for preventing, personalizing, diagnosing, and treating diseases.
Using the BEST scan as the initial test in medical evaluations—during annual physicals, before, during, and after military deployments, and to enhance patient recovery—will create the personalized healthcare that has been sought for decades. The BEST scan's ability to optimize individual readiness is fundamental to Bio Energy Systems Technology, making it invaluable in activities where performance is crucial, such as sports and the military.
Imagine a future where you place your hand on a piece of glass, and a quick, painless, non-invasive image provides a comprehensive view of your health. This innovative model of medicine, made possible by the BEST scan, will enable fast, efficient, and personalized healthcare to become a reality.
-
Bukhari, M., Miller, J.H., Shah, Z. H. (2009). Intrinsic electromagnetic noise in living cells in vitro and its spectroscopy. Journal of Basic and Applied Sciences Vol. 5, No. 2, 65-71.
-
Sun, Y., Wang, C., & Dai, J. (2010). Biophotons as neural communication signals demonstrated by in situ biophoton autography. Photochemical & Photobiological Sciences, 9, 315-322.
-
Bischof, M. (2005, March). Biophotons – The light in our cells. Journal of Optometric Phototherapy, 1-5.
Alberti, K., Eckel, R., Grundy, S., Zimmet, P., Cleeman, J., Donato, K., Fruchart, J., James, W., Loria, C., Smith, S. (2009, October). Harmonizing the metabolic syndrome: A joint interim statement of the International Diabetes Federation task force on epidemiology and prevention; National Heart, Lung, and Blood Institute; American Heart Association; World Heart Federation; International Atherosclerosis Society and International Association of the Study of Obestity. Circulation, 120, 1640-1645 retrieved 1/10/2014 from http://circ.ahajournals.org/content/120/16/1640.full.pdf -
Author: Institute for Quality and Efficiency in Health Care (IQWiG)
-
Rahhnama, M., Tuszynski, J.A., Bokkon, I., Cifra, M., Sardar, P., Salari, V. Emission of Mitochondrial Biophotons and their Effect on Electrical Activity of Membrane via Microtubules.