MAGNETOTHERAPY
The Roots of Therapeutic Energy
Clinically validated magnetotherapy designed exclusively for veterinary professionals.
Overview of Magnetotherapy
Based on the scientific principles of Extremely Low Frequency (ELF) Pulsed Electromagnetic Fields (PEMF), magnetotherapy stimulates healing and bone regeneration by inducing the piezoelectric effect.
Magnetotherapy is a painless and non-invasive therapy with deep tissue action that can be used as a stand-alone therapy or in combination with other therapeutic modalities.
Biological Effects of Magnetic Fields
Anti-Inflammatory
ELF electromagnetic fields cause various biological effects by altering intracellular ion homeostasis (notably, that of calcium) that can affect many biological processes such as the release of neurotransmitters.
More specifically, electromagnetic fields have an anti-inflammatory effect on tissue repair, acting on the release of mediators that drive the transition from a chronic pro-inflammatory to an anti-inflammatory state of the healing process.
Bone Regeneration
ELF electromagnetic fields produce charge displacement, moving ions between cells, therefore inducing the piezoelectric effect, which is fundamental in bone regeneration processes.
Based on this effect on bone, magnetotherapy can be applied for accelerating the healing of delayed union/non-union fractures and to relieve pain and limit bone loss in osteoporosis.
Wound Healing
ELF electromagnetic fields are able to stimulate microcurrents in cartilage and tendons, increasing collagen production and, as a consequence, cartilage and tendon healing rate.
Effects on ionic microcurrents are also involved in the action of electromagnetic fields on wound healing.
Electromagnetic Field Effects
Magnetic fields are naturally present in our environment. In living organisms, constant movement creates changes in magnetic fields, which are closely linked to changes in electric fields. These electromagnetic fields can significantly influence matter related to:
Magneto-Electric Effect
The modulation of ionic currents through cell membranes is biologically important, promoting:
- Variations in intracellular calcium concentrations
- Changes in Na+ and K+ intracellular levels
- Mitochondrial metabolism
Magneto-Mechanic Effect
Related to molecule orientation and translation, the application of mechanical stress induces magnetization changes. Biologically, it affects biological reactions where specific spatial orientations are needed.
Tissue-Specific Actions
- Increasing TGFβ level
- Decreasing osteoarthritis immunoreactivity
Magnetotherapy promotes bone fracture union by:
- Modulating intracellular calcium and bone matrix mineralization
- Enhancing osteoblastic differentiation and activity
Increasing some enzymes, such as Alkaline Phosphatase, and growth factors
- Increasing neurotrophic factors
- Modulating apoptosis of nerve cells
Magnetotherapy favors muscle healing by:
- Remodeling the cytoskeleton of muscle cells
- Contributing to myogenesis process regulation
Magnetotherapy mitigates chronic generalized pain by:
- Having a positive effect on fatigue and function
Magnetotherapy induces hemodynamic effects by:
- Increasing microcirculation
- Increasing pro-angiogenic factor release
Magnetotherapy modulates inflammatory processes by:
- Modulating chemokines production
Indications for Use
Magnetotherapy is indicated for the non-invasive treatment of musculoskeletal pathologies, acting simultaneously in the edema-contracture-pain triad, with reparative action on skin, muscle, and bone tissues.
- Orthopedic Disorders
- Neurological Disorders
- Edemas
- Tissue Lesions
KNOWLEDGE CENTER
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FAQs
Yes. Magnetotherapy works by altering intracellular ion homeostasis, particularly calcium, which triggers the piezoelectric effect that drives tissue repair. This isn't a general wellness claim: the mechanism has measurable, tissue-specific effects, including increased TGFβ and osteoblastic activity at the bone and cartilage level, increased neurotrophic factors supporting nerve regeneration, and increased microcirculation and pro-angiogenic factor release supporting vascular repair. That's why it's used clinically for delayed bone union, osteoarthritis, and post-surgical recovery, not just general comfort.
Magnetic field therapy acts on the edema, contracture, and pain triad at the same time, with reparative effects on skin, muscle, and bone. For dogs recovering from surgery or an orthopedic injury, that means reduced swelling, support for bone and soft tissue healing through processes like collagen production and myogenesis, and pain relief, all from a single non-invasive treatment that can be applied over a bandage or incision site.
Yes, and it's a good fit for equine cases in particular. Because the field penetrates without needing direct skin contact, it can be applied over bandages, splints, or casts, which is useful for horses that are difficult to handle closely or already in supportive wrapping. It's commonly used for delayed fracture healing, tendon and ligament injuries, and chronic joint pain.
Both are non-invasive, energy-based treatments, but they work through different physical mechanisms. Magnetotherapy uses pulsed electromagnetic fields to influence ion activity and cellular repair processes, typically delivered over a series of gentler sessions. Shockwave therapy uses acoustic pressure waves and tends to be used for a shorter, more intense course of treatment. Many practices use the two as complementary tools rather than choosing one over the other.
Yes. It's a non-invasive, painless therapy with no reported adverse side effects when used as directed. Because it doesn't involve heat, light, or sedation, it's well tolerated by anxious or sensitive animals. As with any therapeutic device, animals with certain implanted electronics should be evaluated by a veterinarian first.