The METATRON framework integrates controlled, quantitative probes directly into the generation pipeline. These allow us to compute metrics that quantify how well a story satisfies structural and affective constraints.
METATRON scans the body’s torsion fields to identify resonance patterns. These are compared against a library of reference patterns to determine the health of your vascular, immune, hormonal, digestive, and musculoskeletal systems.
Bioresonance diagnostics
Bioresonance scanning is a diagnostic and therapeutic technique based on the principle that each organ and tissue in the body emits electromagnetic frequencies. This frequency data can be analysed using a specialised device to determine the health status of each system. When used in conjunction with a bioresonance frequency treatment, the resulting information can help identify and address imbalances, thus promoting overall wellness.
A growing awareness of holistic and integrative healthcare practices is driving demand for bioresonance solutions. This non-invasive therapy offers an alternative approach to managing health issues, focusing on the root cause rather than just alleviating symptoms.
In the case of circulatory health, bioresonance therapies utilize specific electromagnetic frequencies to promote vasodilation and support cardiovascular wellness. The technique can be combined with traditional treatments for conditions like hypertension or used as a complementary therapy.
One of the key benefits of bioresonance scanning is that it can detect imbalances at an early stage, before symptoms become evident. This allows for timely intervention, preventing the onset of more serious health problems. The approach is also highly personalized, with each individual’s scan results providing a comprehensive overview of their current state of wellbeing.
The technology also has the potential to detect a wide range of other health issues, including bacterial, viral, fungal and parasitic infections. These can often be difficult to diagnose using conventional methods, but bioresonance scanning is able to highlight these issues and recommend a suitable treatment plan.
Another use of bioresonance scanning is in the area of food sensitivities and intolerances. By analysing the electromagnetic frequencies of foods, a bioresonance scanner can help to identify hidden nutritional deficiencies and recommend more tailored diets to improve digestive function, boost energy and reduce inflammation.
Regulatory approaches vary worldwide, with some jurisdictions classifying bioresonance devices as medical devices and requiring clinical evidence for efficacy claims. For example, the European Union’s Medical Device Regulation categorizes bioresonance systems as Class IIa and IIb, requiring conformity assessment procedures, clinical trials and technical review by a notified body. However, despite this complexity, a trend is emerging towards harmonisation of bioresonance device standards and the development of common evaluation guidelines.
Frequency Mapping
Frequency mapping is a numerical technique that provides clear representations of many multi-dimensional systems. It can be used to study the global dynamics of a system with definite or indefinite torsion. It is also useful for determining the possible isotropic directions of a system. This information can be helpful for designing a lattice for which these trajectories are not harmful.
This method can help clinicians determine the optimum location of a lesion in patients with cardiac arrhythmias such as ventricular fibrillation (VF). A recent clinical study demonstrated that VF mapping with a bipolar voltage map could better identify the slow conduction isthmus than omnipolar optimized voltage alone. The study was conducted in 8 patients with sustained monomorphic VT who had structural heart disease and were undergoing focused ablation using a 16-pole grid catheter. Peak frequency maps were retrospectively computed. PF mapping correctly identified all areas of VT termination and exhibited greater sensitivity than omnipolar optimized voltage alone.
In addition to identifying the location of the slow conduction isthmus, frequency mapping can also reveal the underlying cause of a patient’s condition. This is especially important in cases of chronic illness, such as diabetes or autoimmune diseases. In such cases, the frequency mapping can indicate that a patient’s immune system is unable to properly respond to environmental factors.
The frequency mapping process is completely non-invasive and takes place in our clinic in Menomonee Falls, WI. Dr Liviu uses the Blue Opal to scan and assess the body and then imprint frequencies as homeopathic remedies (Meta-Therapy). The corrective frequencies stimulate the body’s natural healing processes and can accelerate your wellness journey. This is done through a series of sessions that vary in format and duration. Dr Liviu then combines the outputs of the Metatron device with a holistic perspective informed by his background in General and Internal Medicine, Nuclear Medicine, Scientific Research and Cognitive Neuroscience to shape personalised wellness support.
Nonlinear Scan (NLS)
Metatron is a noninvasive, accurate and safe way to conduct health screening without the discomfort of needles or pain. This non-invasive test scans the whole body and can reveal potential issues before they become a problem.
The NLS technology reads the body’s emitted bioenergetic patterns at a cellular level. The system identifies imbalances and suggests wellness sessions to help correct them. It also offers recommendations for diet and lifestyle changes. It can identify imbalances in all major systems of the body, including cardiovascular, hormonal, digestive, and musculoskeletal.
Metal within the scan plane can cause severe artifacts in X-ray computed tomography (CT) images. Although normalized metal artifact reduction (NMAR) is widely used in clinical routine, it is not always effective. In some cases, it can even lead to low-frequency artifacts, such as blooming artifacts in dental fillings. This paper demonstrates an extension to NMAR by applying a nonlinear scaling function to the normalized sinogram domain in order to reduce these artifacts.
NLS works by reducing the brightness of the reconstructed image by removing high frequencies that are associated with metal artifacts. This technique can improve image quality by minimizing artifacts and enhancing soft-tissue contrast. This approach also improves the ability to detect and characterize small tumors in bone. The NLS approach is simple and easy to implement, requiring minimal computational resources.
METATRON is an early warning system for PAD, an often-disabling condition that can increase the risk of major surgery and amputation. This wearable device monitors limb perfusion, serving as an alert when a patient’s vascular health is at risk of deterioration. It can be worn for only a few minutes each week and is easy to use. It can even be used in patients with limited mobility, as the device is lightweight and can be easily operated using just one hand. The company’s team includes a group of experienced interventional radiologists, sports medicine doctors and data scientists with complementary skills and a shared vision of improving PAD treatment. The researchers have received funding from the European Union under the Horizon 2020 research and innovation program.
Bioelectrical Impedance Analysis (BIA)
Bioelectrical impedance analysis (BIA) is a non-invasive method of estimating body composition. It relies on the fact that different bodily tissues have varying water content, which in turn affects their electrical conductivity. As such, by running a small electric current through the body, it is possible to detect the amount of fat and/or muscle. This is accomplished by measuring the resistance of the current and using a simple equation to calculate body fat percentage (BF%).
BIA is relatively quick and cheap, and its results are easily understood. It is widely used in private clinics and sports and health clubs worldwide, across a broad range of age, body weight, and disease states. However, there are some controversies surrounding the validity and interpretation of BIA measurements.
A significant issue with BIA is that its accuracy depends on the type of electrical electrodes used and the frequency of the measurement. Typically, a single-frequency BIA uses a pair of electrodes that apply a current to the skin and measure the voltage drop. This technique is prone to error due to unstable contact resistance between the electrodes. This can lead to false readings of the body’s composition, especially in obese patients.
Alternatively, multi-frequency BIA is more accurate because it measures the conductivity of the entire body, including fatty and lean tissue. It is also more effective in detecting water retention. Another advantage of this type of BIA is that it can be performed in lying down, making it suitable for bedridden patients.
As with all BIA devices, the raw measurements of R, Xc, and PhA must be interpreted by medical professionals. This is done by comparing them with a body-weight-related equation that takes into account the individual’s age, sex, and clinical profile.
The Xc and PhA values are important in the evaluation of hydration status, while the R value is an indicator of the person’s total body mass. The ratio of Xc/R and the inverse of TBW/R is an excellent indication of an individual’s nutritional status. This information can be useful in the diagnosis and management of diseases such as renal failure, diabetes, and severe obesity.