Microcurrent
Microcurrent electrical therapy is a fascinating and somewhat distinct modality within the field of physical therapy, known for its extremely low-level currents that mimic the body's natural bioelectric processes. History of Microcurrent The idea of using electricity for healing is ancient, but the modern application of microcurrent is rooted in 20th-century research: 18th & 19th Century Foundations: Early scientific discoveries by figures like Luigi Galvani established that the body uses electrical signals for muscle contraction and function. Bioelectricity and Injury: Research in the mid-20th century suggested that injured tissues generate a measurable electrical charge, sometimes called an "injury current." This indicated that the body uses its minute electrical signals to facilitate the healing process. The Microampere Discovery (1980s): The pivotal moment came when researchers determined that applying very low electrical currents—in the microampere (mA) range (one millionth of an ampere)—could significantly influence cellular activity. A key study in 1982 showed that microcurrent, specifically below 500micoA, could increase Adenosine Triphosphate (ATP) production (the cell's primary energy source) by up to 500% in tissues. Clinical Adoption: By the 1980s and 1990s, microcurrent devices, sometimes referred to as MENS (Microcurrent Electrical Neuromuscular Stimulation), began gaining popularity in Europe and the United States for applications like stimulating bone repair and accelerating wound healing. Uses and Unique Mechanism of Microcurrent Microcurrent is fundamentally different from other common electrotherapy modalities like TENS or NMES, which use current in the milliampere (mA) range. TENS and NMES are designed to stimulate sensory or motor nerves, causing a tingling sensation or a muscle contraction. Microcurrent, however, is sub-sensory—you typically cannot feel it. Primary Mechanism: Cellular Optimization Microcurrent operates on the principle that its tiny current matches the body's natural biological currents, allowing it to work at the cellular level to promote healing: ATP Production: By increasing the production of ATP, microcurrent theoretically provides the necessary energy for damaged cells to repair themselves. Protein Synthesis: The current is believed to increase the transport of amino acids and proteins into cells, which is essential for tissue building and repair. Waste Removal: It also assists in removing cellular waste products, optimizing the healing environment. Uses in Physical Therapy Microcurrent is primarily used in physical medicine for conditions that involve tissue damage or chronic inflammation: Tissue Healing: Speeding up the recovery process for wounds, surgical incisions, and soft tissue injuries (sprains and strains). Pain Management: Used to treat neurogenic pain (nerve-related pain), myofascial pain (muscle pain), and chronic pain conditions like fibromyalgia, often with a focus on normalizing the tissue rather than just masking the pain signals. Scar Tissue: Specialized protocols can be used to treat scars, aiming to soften adhesions and improve local circulation. Fracture Healing: Used to help stimulate bone repair, especially in cases of delayed union or non-union fractures. Microcurrent is generally integrated into a comprehensive rehabilitation program that includes exercise, manual therapy, and patient education.
Balego® 45" Safety Rotating Lead Wire Pair (2)
TheraTouch® Therapy Cart (only)
TheraTouch® CX4 Combination Therapy
TheraTouch® CX4 Combination Therapy with Cart
TheraTouch® CX2 Combination Therapy
TheraTouch® EX4 Electrostimulation with Therapy Cart
TheraTouch® EX4 Electrostimulation Therapy
