ENERCEUTICALS™
Materials • Fluids • Compounds • Devices • Structures • Processes
Enerceuticals can be very different in appearance and origin. This page organizes the principal classes being investigated.
A Functional Definition
Enerceuticals™ is the term used here for materials, fluids, compounds, devices, structures and processes being investigated for their ability to increase access to, concentration of, transfer of, or transduction of Nature’s available energy.
The proposed common feature is changing or separated electrical-charge relationships. The category does not require that all members work by the same mechanism, and inclusion of a candidate does not establish efficacy for any medical, agricultural or industrial use.
LINK TEXT: Access • Concentrate • Transfer • Transduce
Energized Liquids
NEW Naturally Energized Water™ is being developed as a Reference Enerceutical for standardized comparison.
Other activated or energized waters and fluids provide an important experimental class because they can receive, retain, transfer and possibly transduce energetic effects.
LINK TEXT: NEW — Naturally Energized Water™
LINK TEXT: Activated Water and Its Physical Properties
Mineral, Ceramic and Crystalline Materials
Processed volcanic materials, mineral oxides, salts, ceramics, zeolites, mica, crystals and heterogeneous materials are being investigated as candidate Enerceuticals.
KIKO is a particularly practical example with environmental and agricultural field observations.
Fluorite and other crystals that are reported to acquire persistent water-activating properties after exposure to activated water or defined electromagnetic fields provide another useful comparison because ordinary crystals can serve as material controls.
LINK TEXT: KIKO
LINK TEXT: Mineral, Ceramic and Heterogeneous Enerceuticals
LINK TEXT: Excited / Activated Crystals
ACE Pigments
ACE pigments arose from the earlier stealth-adapted virus and cell-culture work. Their reported fluorescence, electrostatic responsiveness, kinetic behavior and association with cellular recovery helped lead to the concept of biological energy transduction.
LINK TEXT: ACE Pigments
Compounds and Light-Activated Systems
Some candidate Enerceuticals are compounds whose activity may depend on their electrical, dielectric or photonic environment.
Neutral red combined with UV-A is historically important because it helped connect clinical observations, fluorescence and the ACE Pathway.
Botanical, natural and selected pharmaceutical compounds can be screened separately from their conventional biochemical or pharmacological actions.
LINK TEXT: Neutral Red and Light Activation
LINK TEXT: Compounds as Candidate Enerceuticals
Gases and Redox-Active Systems
Hydrogen, ozone and chlorine dioxide have conventional chemical effects that must be distinguished from any proposed additional Enerceutical activity.
LINK TEXT: Gases as Candidate Enerceuticals
Electrical and Oscillating Devices
Rife/Beam Ray-type systems, Lakhovsky-type oscillators, Clark-type oscillators, SCENAR-type devices and other pulsed or resonant electrical systems can be compared without endorsing their historical medical claims.
A common assay is DEVICE ON versus SHAM/OFF → standardized receiver such as water → blinded physical measurements → persistence and transfer testing.
LINK TEXT: Electrical and Oscillating Devices
Passive Structures
Antennas, coils, layered conductor/insulator structures and related configurations are candidates for coupling to environmental electrical fields or creating interfacial charge effects.
LINK TEXT: Coils, Antennas and Layered Structures
Electrolysis
Electrolysis is an established electrochemical process involving applied voltage, charge transport and gas formation. The Enerceutical question is whether dynamic charge separation also induces a persistent, transferable change in water beyond conventional changes in gas content, pH, temperature and ionic composition.
LINK TEXT: Electrolysis
Electroculture and Magnetoculture
Applied or environmental electrical and magnetic fields have long been used experimentally in plant growth. These approaches offer relatively direct ways of testing whether controlled field conditions change biological performance.
LINK TEXT: Electroculture and Magnetoculture
Biological Electrical Processes
Brain activity, muscle excitation and cell membrane potentials are established biological electrical phenomena. The Enerceutical hypothesis asks an additional question: can changing charge separation also provide access to a transferable energetic resource?
LINK TEXT: Brain and Cellular Electrical Activity
How Candidates Should Be Compared
A candidate should not be accepted as an Enerceutical because of reputation, terminology or marketing claims.
The most useful questions are whether it produces a reproducible effect, whether that effect persists or transfers, how it compares with a reference such as NEW, and whether the observed output can be quantified.
LINK TEXT: Comparative Testing of Enerceuticals