Bioelectric Regeneration · Application

Combinatorial Protocols.

Five priority indications where field parameters tuned to the indication pair with bioregulator cargo synchronized to the cellular state that maximizes uptake. Each row is a distinct method-of-use claim and a separate clinical pathway.


Protocol matrix

Field tuned to the indication. Bioregulator tuned to the cell.

Layer designations refer to the four-layer model. Field parameters describe the operating envelope for the indication. The bioregulator column lists the Khavinson-lineage short peptides selected for synergistic action with the field protocol.

  • Indication
    Osteoporotic bone restoration
    Layers
    L1 + L2
    Field parameters
    75 Hz · 1.5 mT · 30 min daily
    Bioregulator
    Ac-KED-NH2
    Mechanism
    Wnt/β-catenin and Runx2 induction; vascular bioregulator directs perfusion to remodeling zones.
  • Indication
    Cartilage and osteoarthritis
    Layers
    L1 + L4
    Field parameters
    15 Hz · 0.8 mT · NIR 810 nm concurrent
    Bioregulator
    Ac-AEDG-NH2
    Mechanism
    Chondroprotective field with IL-1β suppression; bioregulator restores chondrocyte phenotype.
  • Indication
    Diabetic wound healing
    Layers
    L2 + L3
    Field parameters
    7.83 Hz carrier with 50 Hz burst
    Bioregulator
    Ac-EW-NH2 + Ac-VAG-NH2
    Mechanism
    Fibroblast and keratinocyte migration; angiogenic field coupling; immune bioregulator modulation.
  • Indication
    Peripheral nerve regeneration
    Layers
    L1 + L3
    Field parameters
    100 Hz TENS with structured field
    Bioregulator
    Ac-EDG-NH2
    Mechanism
    Schwann cell activation; axonal guidance via field gradient; neural bioregulator.
  • Indication
    Senescent tissue rejuvenation
    Layers
    L2 + L3 + L4
    Field parameters
    Schumann fundamental + complex; NIR 1064 nm
    Bioregulator
    Ac-AEDG-NH2
    Mechanism
    Mitohormesis with bioelectric pattern restoration and telomerase induction in pineal axis.

The combinatorial logic

Why pairing matters.

Bioregulators alone instruct the cell what to make. They are pure chemistry — they bind to a target, they activate or inhibit a pathway, and they diffuse wherever the bloodstream takes them. They have no spatial control.

Pulsed electromagnetic fields alone instruct the cell where it is and when to act. They open ion channels, prime the membrane, shift the bioelectric pattern, and signal the mitochondria — but they have no cargo. The cell makes whatever its current transcription program directs it to make.

The combination is synergy rather than addition. A primed cell takes up bioregulator more efficiently. The dose-response curve shifts, side-effect profiles narrow, and the same outcome is achieved at lower bioregulator concentrations. The field supplies the spatial dimension bioregulators cannot, and the bioregulator supplies the regulatory specificity the field cannot. This is the basis for the method-of-use claims that anchor the discipline.


What this enables

New indications neither modality reaches alone.

Bone non-union is a pulsed-field indication. Senescent cell rejuvenation is approached by bioregulators. Senescence-resistant fracture healing in osteoporotic patients is the combination — and it is a new indication, with its own clinical pathway, its own claim set, and its own market. The same pattern holds for diabetic wound care, peripheral nerve regeneration, articular cartilage restoration, and pineal-axis longevity. Five indications. Five claim sets. One platform.