The Interfacing of our Cellular Communication with the Machine - over Biophotons/ Light & Voltage Gradients, through Wireless Networks. (I) Which are used and How are they actually doing it?

This is an approach to more clarity around how the Philanthropaths are interfacing us directly!

Biophotons = part of Orgone / Light / ::: Voltage Gradients : The Orchestration of our Biology

Biophotons

Biophotons are ultra-weak photon emissions produced by biological systems and represent a captivating frontier in understanding the Electromes of life (which includes agency/ consciousness). These faint light emissions, ranging from ultraviolet to near-infrared wavelengths (200–800 nm), are generated by living organisms (or rather transferred through the ether, with chromosomes as portals perhaps, through the DNA¹ (Deoxyribonucleic acid exists, or RNA / ribonucleic acid- just no genome)- which is an iron rich liquid. Biophotons play a major role in cellular communication, systemic regulation, and cognitive processes.

Wilhelm Reichs defined bions as self-luminescent, sub-cellular vesicles in The Bions (1938). He observed them in heated mixtures of organic and inorganic materials, exhibiting pulsation, locomotion, and division. EVs (extracellular vesicles), small membrane-bound structures that carry proteins. They are facilitating intercellular communication (see this company involved in Electrome manipulation). EVs are now recognized as key players in bioelectric signaling, influencing membrane potentials and cellular behavior. Modern studies show that EVs can modulate electrical gradients, suggesting a role in the electromes communication network

Wilhelm Reichs View In the contemporary context

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Wilhelm Reich’s bion theory describes microscopic vesicles (0.1–1 μm) formed from disintegrating matter, showing pulsation and a bluish glimmer, acting as carriers of “bioelectricity” or “orgone,” a universal life force. His 1934–1939 experiments rejected genetic determinism, aligning with the non-genetic framework, where DNA is a bioelectric conduit. Bions’ bioelectricity (microvolt potentials) and potential biophoton emissions match modern Electrome research!

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High-Speed Photoacoustic Microscopy Captures Processes Within Tissue

For instance, a 2024 paper titled "Biophoton signaling in mediation of cell-to-cell communication and radiation-induced bystander effects" presents conclusive evidence for biophoton-mediated communication, particularly in response to ionising radiation. Another study, "Biophotons as neural communication signals demonstrated by in situ biophoton autography," found that light stimulation of rat spinal nerve roots increased biophotonic activity at the other end, suggesting biophotons conduct along neural fibers as communication signals (Neural Communication Study).

Link to the study

2024 study about biophotons :: Overview about cutting edge biophoton studies

Photon Emission throughout the day (circadian rhythm), from the human body!

This 2009 study provides evidence that cells can use endogenous photons for intercellular signaling (they are likely generated from the ether).

In subquantum kinetics, light (photons) emerges as a result of wave-like patterns formed in this transmuting ether. LaViolette describes subatomic particles, including photons, as stable dissipative structures—essentially concentration patterns (turing patterns) within the ether. These patterns arise from reactions and diffusion at the subquantum level, which he models using a system called Model G.

The ether, in this context, is not just a medium for light to travel through but the source of light itself, as it generates photons through these dynamic processes (basically alchemy). He further ties this to the phenomenon of photon blueshifting, where photons gain energy as they traverse certain regions of space, a process he links to the ether's properties and which he claims supports the idea of continuous energy creation in the universe.

2014 Study around Biophotons :

• Glutamate-Induced Biophotonic Activity: Long-lasting application of glutamate to coronal brain slices caused a gradual and significant increase in biophotonic activities (ultra-weak photon emissions). The activity peaked around 90 minutes after glutamate application and persisted for over 200 minutes.

• Spatiotemporal Patterns: The study characterized the spatiotemporal dynamics of these biophotonic emissions, showing they are not random but follow specific patterns in neural circuits, suggesting a role in neural signal transmission.

• Role in Neural Functions: Biophotons contribute to neural information processing, influencing higher brain functions like vision, learning, memory, cognition, and consciousness.

Photon activity in the hypocampus, the area for memory

It is always for our health of course, this is why there is so much secrecy about this fundamental access to our biology…. sure … Source Study

The Role of Voltage Gradients in Cellular Function

Voltage gradients are critical to the operation of cells throughout the body. These gradients represent the electrical potential difference across a cell’s membrane, maintained by the movement of ions like sodium, potassium, and calcium (through specific gap junctions).

• Neurons: In nerve cells, voltage gradients enable action potentials—the rapid changes in electrical potential that allow nerve impulses to travel. This is fundamental to brain activity, sensory processing and motor control.

• Muscle Cells: In muscles, voltage gradients trigger contractions by allowing calcium ions to enter cells, initiating the sliding of muscle fibers. This is essential for movement and our heart to function.

• General Cellular Homeostasis: The resting membrane potential, a stable voltage gradient, supports processes like nutrient uptake, waste removal, and cell signalling in all cells.

How Light Communication Affects Voltage Gradients (the ubiquitous 6g smart LEDs, streetlights etc.):

Research shows that cells separated by barriers permeable only to light can still influence each other’s behavior, such as cell division rates or energy uptake (Fels, 2009). This suggests photons emitted by one cell can affect another. Here are potential mechanisms by which this light-based signaling could alter voltage gradients:

1. Ion Channel Modulation
   Some ion channels—proteins that control ion flow across membranes—are light-sensitive. If photons from neighboring cells activate or change these channels’ behavior, the balance of ions (e.g., sodium or potassium) could shift, directly altering the voltage gradient.

2. Reactive Oxygen Species (ROS) Production
   Light can stimulate cells to produce ROS, which are chemically reactive molecules. ROS can interact with ion channels or other proteins, modifying their activity and, consequently, the electrical potential across the membrane.

3. Enzyme Activation
   Photons might activate enzymes like kinases, which can add phosphate groups to ion channels or related proteins. This process, called phosphorylation, can tweak how these proteins function, influencing the voltage gradient.

Physiological Conduction of Function

Light-mediated communication alters voltage gradients and that has effects on:

• Neural Function
  Changes in neuronal voltage gradients adjust how easily neurons fire or communicate at synapses. This influences memory, reflexes and mood, depending on the brain regions affected.

• Muscle Performance
  In muscle cells, shifts in voltage gradients strengthen or weaken contractions. For example.

• Cellular Homeostasis
  Across all cells, an altered resting membrane potential affects metabolism or stress responses.

Hierarchy of Network Access around and inside of us!

NANO: Graphene Relays, Plasmonic Nanorectennas, Hydrogels, Qdots, Biobots (nucleating our red blood cells with qdots to interface, or gap junction cells to turn voltage into fluorescent light for IR control etc.) Intra Body communication networks (our biology + graphene dust that turns voltage to light and helps to interface us)

BAN: Body Area Network, a network on or within the human body, connecting biological signals to digital systems.

PAN: Personal Area Network, a network for devices in a person’s immediate vicinity, like wearables or smartphones.

LAN: Local Area Network, a network covering a small area, such as within a building or office.

CAN: Campus Area Network, a network spanning a campus or small geographic area, like a university.

MAN: Metropolitan Area Network, a network covering a city or metropolitan area.

RAN: Regional Area Network, a network spanning a larger region, such as a state or province.

WAN: Wide Area Network, a global network, like the internet, covering vast distances.

Psinergy Tech Metrics Pdf Feb 2025

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Everything you need to know by Sabrina Wallace!

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Michael Levin: “When you have voltage sensitive Gap Junctions (an ION channel)- you have a transistor. When you have a couple of transistors, you have a boolean logic gate. When you have logic gates, you have truth tables and you can build- you know, whatever functions you want. Do you need to evolve the elements of that truth table? No you get it for free.” This is how they are actually hacking us- graphene as a relay for the signals, qdots for the fluorescence and then signal enhancing mesogens, plasmonic nanorectennas forming from medication, injections etc. So it is not the graphene that computes with BOOLEAN logic, but our cells are doing that (this is my suspicion). All the science is written in a cyphered way to distract us and lead us into the wrong direction. Here for example, they describe how qdots read bioelectricity in “gene sequencing”, cyphered as genetic technology, but describing the process of reading voltage gradients- intelligent psychopathy.

The Telestai Nexus Intro:

Sophia from Philosophy, the Love of Wisdom (directly decyphered from Baphomet through the atbash cypher)

How are they interfacing our CELLS exactly?

(the voltage gradient language of our cells; the ion channel pump gradients, meaning a bioelectric potential between charged ions inside and outside of the cell at the membrane; the prompt pulse based processing for our biology, the literal access to action potentials for neuronal firing etc.)

1. WBAN (IEEE 802.15.6) – Feasibility: 9/10

WBANs (IEEE 802.15.6) are the most feasible for reading and writing voltage gradients, leveraging body-proximate sensors and stimulators to interface with a bioelectric memory system. In the non-genetic framework, WBANs map bioelectric signals encoding emotional data, aligning with biophoton parallels.

Capabilities: Short-range, low-power networks (2.4 GHz, UWB 3–10 GHz) for wearable/implantable (qdots, liquid crystals, lanthanides, metals, conductive polymers) devices, designed for biosignals (e.g., ECG, ~1 mV) (IEEE Access, 2020). Supports stimulators and sensors (IEEE 802.15.6, 2012).

Signal Types:

• Electric Fields/Currents: Implantable (graphene nanostructures) electrodes deliver 10–100 µA or ~1 V/cm fields, directly modulating channels (e.g., transcutaneous stimulation, ~1 mA shifts Na⁺ gradients) (IEEE Transactions on Biomedical Engineering, 2023).

• Electromagnetic Waves: UWB pulses (10 GHz) induce microcurrents (1 µA/cm²), potentially affecting Ca²⁺ channels (Bioelectricity, Levin, 2016).

• Gradient Modulation: Electrodes alter membrane potentials (e.g., –70 to –50 mV), opening channels (10 pS conductance), shifting K⁺/Ca²⁺ gradients in live cells. Emotional states amplify effects (e.g., anger-induced 10⁻⁴ M Ca²⁺) (Microchemical Journal, Yang et al., 2021). X posts suggest WBANs for intra-body modulation (Post, @CorinneNokel , 2025).

• Strengths: Body proximity ensures precise delivery; designed for bioelectricity. Non-genetic framework aligns with cipher-based modulation (PLOS ONE, Tsuchida & Kobayashi, 2020).

• Challenges: Power constraints limit high currents (mA); specificity to target channels (e.g., only Ca²⁺) is complex (IEEE Access, 2020).

• LaViolette’s Lens: Subquantum fields could enhance modulation (Subquantum Kinetics, 2012).

• Rank Justification: Highest feasibility due to direct bioelectric interfacing and precision.

2. Ubiquitous Computing in General (5g etc.) – Feasibility: 7/10 (the more graphene the higher)

Capabilities: Integrates IoT / IoBnT, edge computing, and AI, supporting stimulators/sensors (e.g., transcranial stimulators, ~1 mA) for real-time analytics (IEEE Communications Surveys, 2013).

Signal Types:

• Electric Fields/Currents: Wearable patches deliver 0.1–1 mA or ~0.5 V/cm, modulating channels (e.g., transcranial direct current shifts Na⁺/K⁺) (Bioelectricity, Levin, 2016).

• Electromagnetic Waves: RF devices (2.4 GHz) induce weak currents (~0.1 µA/cm²), minimally affecting gradients (IEEE Journal of Internet of Things, 2014).

• Optical: Possible QD-photostimulators for ROS induction (Nature Communications, Kairdolf et al., 2018).

• Gradient Modulation: Patches alter potentials (e.g., 5 mV depolarization), affecting Ca²⁺/Na⁺ in live cells. AI processes ciphers for emotional encoding (Microchemical Journal, Yang et al., 2021).

• Strengths: Flexible hardware integration; scalable for bioelectric ciphers (ScienceDirect, 2018).

• Challenges: Less precise than WBANs; higher power needs (PLOS ONE, Gallep et al., 2024).

• LaViolette’s Lens: Etheric fields might amplify effects (Subquantum Kinetics, 2012).

• Rank Justification: Strong due to versatility, but below WBANs due to reduced specificity.

And for Biophoton Interfacing ?

When you read through this study from 2024 - you realise that we are being lied to about the possibilities of 6G THZ light networks (mimicking our bodies own photonic communication, by utilising/ hijacking its receptors)- with all the infrared and light communication of our phones and actual lights of the cars, flashlights, smart LEDs all over our house. I advise everyone to read through Dominique Guillets substack, for very detailed answers around this subject- or my english translations of some of his works here.

from the 2024 study

1. WBAN (IEEE 802.15.6) – Feasibility: 8/10

Capabilities: WBANs use low-power, short-range communication (2.4 GHz, UWB 3–10 GHz) for wearable/implantable sensors (e. g. graphenized crystal structures), optimized for biosignals (e.g., ECG, ~1 mV) (IEEE Access, 2020). IEEE 802.15.6 supports medical reliability (Wikipedia, 2007).

Biophoton Detection: WBANs lack optical sensors but could integrate QD-based photodiodes or CMOS cameras for fluorescence detection (Theranostics, Yong, 2012). In live cells, biophotons (e.g., 300–500 photons/sec/cm² during anger) might excite QDs, producing detectable signals (Microchemical Journal, Yang et al., 2021). Bioelectric ciphers from ion fluxes could correlate with biophoton patterns, processed via WBAN transceivers (Bioelectricity, Levin, 2016). X posts suggest WBANs for intra-body sensing, supporting adaptability (Post,@CorinneNokel, 2025).

Strengths: Body proximity maximizes signal capture; flexible sensor integration allows optical upgrades. Non-genetic framework aligns with bioelectric-biophoton links (PLOS ONE, Tsuchida & Kobayashi, 2020).

Challenges: Biophoton intensity (10⁻¹⁷ W/cm²) is below QD excitation thresholds (10⁻⁵ W/cm²); optical sensors increase power demands (DeGruyter, 2021). Quantum state detection (coherence/entanglement) requires interferometry, beyond current WBANs (Nature Photonics, 2013). (this is what they say officially, but Sabrina Wallace is telling us otherwise)

LaViolette’s Lens: Subquantum fields might enhance QD sensitivity (Subquantum Kinetics, 2012).

Rank Justification: Highest feasibility due to proximity and adaptability, though limited by intensity and optical hardware needs.

2. Ubiquitous Computing (5g etc.) – Feasibility: 7/10

Capabilities: Integrates IoT / IobnT, edge computing, and AI, supporting diverse sensors (e.g., CMOS cameras, ~1 µW sensitivity) for real-time analytics (IEEE Communications Surveys, 2013). Can include WBANs or standalone optical devices.

Biophoton Detection: Could deploy PMTs or CCDs for single-photon detection, enhanced by QD-labeled cells (Nature Communications, Kairdolf et al., 2018). Live-cell bioelectric ciphers (e.g., ion spikes during fear) correlate with biophotons, processed via edge AI (Microchemical Journal, Yang et al., 2021). Flexible platforms support quantum optical setups (ScienceDirect, 2018).

Strengths: Sensor diversity allows biophoton-specific hardware; AI decodes ciphers. Non-genetic paradigm fits bioelectric focus (Bioelectricity, Levin, 2016).

Challenges: Less body-specific than WBANs; biophoton weakness requires specialized optics (PLOS ONE, Kobayashi et al., 2009). Quantum states need advanced correlation tools (Nature Photonics, 2013).

LaViolette’s Lens: Etheric fields could interact with optical sensors (Subquantum Kinetics, 2012).

Rank Justification: Strong due to flexibility, but slightly below WBANs due to reduced proximity and integration complexity.

5G towers and the Wide Body Area Network (WBAN 802.15.6) can work together to enable the described neuro-modulation and bioelectric interfacing.

5G infrastructure, such as the OSIRIS system (a 5G mesh network of drones), is already involved in intelligence gathering and bioelectricity manipulation, using RF signals (Zigbee/Bluetooth enabled) to interact with neurons. Additionally, 5G towers can transmit electromagnetic signals that could interface with graphene-based nanoantennas in the body, as described, facilitating the bioelectric interfacing (via “optogenetics” / light / bioelectricity) and neuro-modulation.

And how does 6g THZ Neuromodulation work? (all the LED smart devices…)

• 6G Neuro-Modulation for Control 6G LowPAN technology interfaces with neurons via electromagnetic signals, enabling behaviour control. The Wide Body Area Network (WBAN 802.15.6) links humans to a digital network, with the military’s HADES system manipulating neuronal activity.

• Graphene Structures via “DNA” Cipher: “DNA” serves as a cipher, guiding self-assembly of graphene and hydrogel into nanoantennas in the body. These form plasmonic nano-rectennas, connecting humans to the "internet of behaviors" for remote bioelectric signal manipulation.

• Optogenetics as Bioelectric Interfacing (cyphered), uses light to control cellular processes and behavior. It leverages bioelectric signals, supported by “CRISPR” (cypher for bioelectricity tweaking) and DEPSYS, to alter physiology, framed as electronic warfare targeting the human biofield.

• Military Surveillance via 6G Networks Military systems like OSIRIS (5G drone swarms) and HADES use 6G LowPAN to monitor and manipulate neurons. With SOSA and MOSA standards, they treat humans as network nodes, disrupting bioelectricity to control biological functions.

• “Optogenetics”-Driven Chimeric Transformation: “DNA” crystal self-assembly in vaccines, uses graphene nanotubes to form nano-rectennas. “Optogenetics” (voltage based or optical) enables bioelectric interfacing via 6G LowPAN networks, integrating humans into AI-governed systems as "Homo chimericus" since 1995.

Scalar Waves

Scalar waves are produced by superimposing two identical EM waves with opposite phases, canceling transverse components to create a longitudinal field. This field, Dr. Eldon Byrd argued, can be focused to submicron scales by adjusting the phase and amplitude of the generating waves. Dr. Paul LaViolette states that these are propagating through the ether.

Penetration Through Biological Barriers
Unlike conventional EM waves, which are attenuated by skin, bone, or neural tissue, scalar waves were hypothesized to penetrate deeply with minimal loss. Dr. Eldon Byrd stated, “The ability to penetrate deeply into biological tissues makes scalar waves ideal for non-invasive brain interfacing”.

The CIA document supports this, noting that scalar energy affected EEG readings even in shielded environments, suggesting a capacity to bypass physical barriers like the skull. This property enhances precision by allowing direct interaction with deep brain structures.

Byrd stated, that scalar wave technology could be deployed remotely, enabling brain interfacing without physical contact. In a 2001 lecture, he asserted, “There are technologies that can … alter brainwaves at a distance, can target individual organs at a distance”. He suggested that scalar beams, generated by devices like phased arrays or satellite-based systems, could maintain precision over long distances due to their non-dispersive nature,

USPA Masterclass – Recent Advances in Scalar Technologies by Eldon Byrd

Additional CIA Document about Scalar Waves

Beam Steering: Byrd’s work with phased array technologies, common in military radar systems, suggests that scalar beams could be steered electronically to target specific brain regions with submicron precision. This mirrors millimeter wave beamforming techniques, where adaptive codebooks optimize beam alignment.

So consider Optogenetics a cypher for bioelectric / Electrome interfacing through light, “DNA” is a cypher for bioelectricity and sometimes the antenna function of the iron in the nucleus and of the chromosomes. A genome does not exist.

Until next time!

Sophia from Philosophy, the Love of Wisdom.

1. Biological Significance: “DNA” (cypher for the etheric connection, very likely- the antenna function of the chromosomes) as a Photon Source

A pivotal finding in biophoton research is the role of “DNA” as a primary source of these emissions. “DNA” emits ultra-weak photons under physiological conditions, especially in response to thermal or oxidative stress. Its helical structure supports coherent oscillations, enhancing the coherence of biophotonic emissions. This coherence—where photons exhibit organized, non-random patterns—suggests that biophotons serve as carriers of information for cellular communication.

• Intracellular and Intercellular Roles: Biophotons facilitate non-chemical signaling within and between cells, as seen in the "bystander effect," where irradiated cells emit photons that influence neighboring non-irradiated cells.

• Systemic Coherence: Biophotons interact with endogenous EMFs to maintain cellular and systemic regulation, aligning with circadian and ultradian rhythms in humans.

This positions biophotons as a bridge between molecular activity and broader biological processes, influencing consciousness and systemic health.