Information Wellness Blog

Microwave resonance therapy combines traditional Chinese medicine (acupuncture) and modern biophysics breakthroughs into an integrative treatment, targeting biologically active zones or reflexogenic zones by means of low intensity electromagnetic radiation with therapeutically effective frequencies chosen by a physician. It works by applying electromagnetic radiation at specific low intensities that resonates at frequencies chosen as effective by your healthcare provider to biologically active areas or reflexogenic zones in order to effectively treat them.

At first, the organism’s chiral sensitivity is determined and BAPs exposed to microwave radiation polarized according to this index. When receiving treatment for BAPs with expressive sensor reactions indicating its success.

What is MRT?

MRT (Magnetic Resonance Therapy) is an advanced medical technique that is the result of merging ancient Chinese traditions (acupuncture) with recent breakthroughs in biophysics. MRT involves subjecting biologically active points or reflexogenic zones on the body to extremely low intensity electromagnetic emission with personalized parameters; MRT has proven highly innovative and effective treatments for many illnesses including neuropsychiatric conditions.

MRT involves a series of steps designed to address underlying factors that contribute to impulsive behavior. Similar to cognitive behavioral therapy, MRT teaches participants how to better regulate their emotions and make healthier decisions. Treatment typically lasts 24-36 sessions before being used to help prevent criminal and substance abuse relapses.

MRT is most often employed to treat mental conditions; however, it has also proven helpful for reducing chronic pain and managing trauma and stress on physical health. A study conducted at University of Pennsylvania and published in Military PTSD and Trauma Psychology revealed how MRT helped combat veterans and their families cope better with posttraumatic stress disorder symptoms.

MRTs are designed to produce marginal causal effects data, providing estimates of individual component impacts of an mHealth intervention on an outcome for individuals. MRTs also help determine which parts work well together and their interactions. MRTs ensure participants receive an appropriate combination of interventions.

MRTs differ from N-of-1 trials by including multiple randomised sequences of an intervention or treatment package compared with each other, to account for any carry-over effects where one component might impact performance in subsequent contexts or interactions with another treatment package. This helps address potential carry-over issues that might impact person performance down the road or with another treatment regimen.

MRTs allow researchers to assess whether the timing of an intervention affects its individual outcome. For instance, they can be used to measure how long it takes someone who receives relaxation exercises as part of a smoking cessation program to resume smoking again after having attempted them.

MRT Devices

MRT devices represent a combination of Chinese traditional medicine (acupuncture) and quantum biophysics breakthroughs, with high frequency electromagnetic radiation of 52-78GHz targeted to specific acupuncture points achieving incredible clinical results.

Method and device in accordance with this invention offer significantly superior therapeutical effect compared to existing facilities for drug, functional physiotherapy, sanatorium or health resort treatment for similar purposes. Furthermore, treatment expenses can be substantially reduced.

To achieve this goal, the amplitude and frequency of EHF electromagnetic radiation are tailored individually for each patient according to a preliminary diagnosis based on anamnesis and/or objective examination. A selection of biologically active points (BAPs) connected meridionally with damaged organs are then identified from among all BAPs either using criteria such as palpation sensitivity or medical experience to select them for action using MRT devices.

MRT stands out as an innovative treatment method in that the frequencies and intensities of electromagnetic radiation are constantly varied to treat multiple disorders simultaneously without needing any breaks between treatments. Another key aspect of MRT device use is that its frequency amplitude variations allow it to treat multiple conditions simultaneously without needing breaks for treatment, taking into account such characteristics as organism’s chirality (left or right rotation of EHF waves) as well as various acoustic properties of concrete tissues and biotissues.

For MRT devices, electromagnetic radiation amplitude and frequency can be adjusted by altering the power of their regulating transmitter and switching on and off an electromagnetic generator (see FIGS 1 and 2). Automatic switching takes place when turning on or off a device; for more precise adjustments of both parameters via control panel.

To ensure an effective treatment, the MRT device should be placed in the most optimal spot on a patient’s body depending on the nature of their pathology being treated. In cases involving vascular disorders or gastroduodenal diseases, for instance, it will usually be placed on affected limbs; while for other ailments like gastroduodenal diseases or abdominal disorders it will typically rest against their stomachs.

MRT Procedures

Clinical investigations of interventions typically attempt to establish three primary elements: optimal conditions under which an intervention should be applied, its safety and its efficacy. Standardized studies allow investigators to compare outcomes between participants while controlling for variables; this can be easily accomplished when studies are performed under similar circumstances and using similar procedures; unfortunately MRT research presents unique obstacles which might make this goal challenging to meet.

MRT research may involve creating, manipulating and/or destroying human embryos during preclinical and clinical investigations of MRT treatments. Since mtDNA is heritable, any modifications introduced by MRT may pass onto any offspring born from these embryos; as a result, clinical trials involving MRT may need to be carried out with caution in order to limit heritable changes that might appear later in their genomes as a result of clinical use.

MRT research must also be carried out in such a way as to enable investigators to compare its effects with those of sham procedures, making comparisons between MRT and non-MRT treatments feasible. To this end, investigators might require developing non-heritable versions of MRT treatments suitable for being administered on human embryos while still adhering to its protocols without creating heritable genetic changes within offspring of these embryos – this might prove an especially daunting challenge given all the differing opinions regarding moral statuses regarding these forms of life.

MRT research may also present ethical challenges when it comes to evaluating its benefits and risks. Typically, assessment is conducted when individuals directly realize and bear those benefits and risks themselves; MRT research would change this paradigm as its children wouldn’t exist without MRT and would therefore have no chance to voluntarily participate in its research.

At its core, the committee believes that restricting initial investigations of MRT to male embryos is necessary and justified in order to effectively mitigate risks associated with heritable genetic modifications resulting in offspring that might pose risks of infertility. This approach follows eligibility criteria, design features and research staging common to clinical investigations conducted elsewhere within medical innovation.

Side Effects

The main benefit of this approach lies in its speed, completeness, and stability of curative effects. At each treatment session, several or all biologically active points (BAPs) associated with an organ that has become diseased are exposed to electromagnetic radiation at power densities below what triggers positive sensor reactions in patients.

Additionally, BAPs are exposed to polarized electromagnetic radiation that matches the chirality of an organism; this decreases effective dose absorbed and accelerates therapeutic effect onset and stabilization.

As it has been demonstrated, healthy people typically do not respond to millimeter-range EHF electromagnetic radiation (frequency range 27-78 GHz and power density below 10,000 mW/cm2) but those suffering from certain diseases, when exposed to this kind of electromagnetic radiation in specific areas, show numerous sensory reactions such as warmth, coldness, prickling sensations or local and diffuse pains.

At the conclusion of the fourth seance, these side effects vanish as the patient’s state substantially improves and his symptoms vanish completely. At the conclusion of sixth and seventh seances, sensor reactions become gradually weaker while their condition gradually improves.

Another key discovery has been made through our work: we have experimentally shown that the virus inactivation ratio (i.e. the proportion of viruses that were inactivated at a specific frequency) is significantly greater when pretreated with RNase prior to microwave illumination than when illuminated directly; this points towards the existence of an SRET mechanism between electromagnetic waves and viruses.

This discovery opens a path toward developing an epidemic prevention strategy in open public spaces where airborne viruses are neutralized through non-invasive methods. Current airborne virus epidemic prevention techniques involving strong chemical inactivation or UV irradiation often result in serious side effects for general populations; while our experiments demonstrate how our new, efficient SRET mechanism can effectively inactivate viruses with low microwave power density that is safe for public usage.