What is PEMF?
Pulsed Electromagnetic Frequency, or PEMF, is used to positively impact energy within damaged or injured cells. It does this by directing electromagnetic pulses toward the affected cells, stimulating a healthier response.
Perhaps the easiest way to understand PEMF is to think in terms of each cell in your body as if it were a little battery. Like with any battery, sometimes your cells become tired and worn, whether due to age, stress, overuse, or damage, making it more difficult for them to fight off any type of potentially damaging force or illness.
The electromagnetic pulses find the injured area, spark the body’s natural activity, and rejuvenate the affected bone or tissue. This speeds up the recovery time and gets athletes back onto the field quicker than they would from traditional rehabilitation.
But the technology isn’t just for athletes. PEMF therapy has a wide variety of uses for everyone and has brought unthinkable recovery to injuries and ailments.
Pulsed Electromagnetic Field (PEMF) therapy heals by transferring energy.
Benefits of PEMF Therapy
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Supports healing of damaged and inflamed tissues
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Reduces pain, swelling, and inflammation
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Increases circulation and cellular levels of oxygen
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Aids general muscular and nervous systems health and function
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Accelerates repair of bones
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Stimulates the body’s natural healing processes
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Reduced pain and soreness
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Speeds recovery time
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Improved range of motion
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Enhanced endurance
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Bone mending
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Prevents cellular breakdown during muscle stress
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Stimulates energy production in the muscle
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Scientifically speaking, PEMF therapy aids the body in a number of ways, such as:
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Blood Circulation: Loaded particles in the bloodstream seem to oscillate in rhythm with the PEMF frequency. This may reduce friction and flow resistance, especially in narrow capillaries. Blood circulation may improve and the diffusion rate for oxygen and carbon dioxide might increase.
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Oxygen Partial Pressure: Many PEMF therapy studies appear to demonstrate an increase in blood oxygen content. Cell membrane potential also seems to become regulated. Exhaustion caused by stress or chronic disease can reduce cell membrane potential (70 to 90 mV). When a cell reaches the zero level, it dies. Cells use 50% of their energy to maintain their optimum potential. Magnawaving, with its ion transport system may enable the selective movement of protons (H+ ions). H+ ions are then retargeted to the cell membrane, in turn the cell membrane becomes hyperpolarized then normalizes.
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Calcium Influx: Via the potentially increased concentration of H+ ions in the cell membrane, it has been noted that the PH value is said to be reduced near it. This may lead to the release of calcium from the protein layer of the cell membrane. This released calcium might flor into the cell core, triggering multiple metabolic reactions:
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Macrophages: tissue cells functioning as protection against infection may become activated, strengthening the immune system.
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Metabolism: as a byproduct of an activated metabolism, nitric oxide (potentially a vessel enlarger) may be produced.
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Cytogenesis: structure, function and multiplication of the cells is stimulated.
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