Biological-quantum physics communication: Quantum organisms as carriers of a novel information transfer

2025-06-14

Summary

In research on quantum communication, an increasingly interdisciplinary field is emerging that combines physical concepts with biogenic carrier systems: Bio-quantum communication via so-called quantum organisms. This involves using biological systems – such as cells, proteins, or even complex organisms – to transfer information at the quantum mechanical level. Unlike photonic or superconducting quantum communication, this method relies on living carriers whose coherent states can be used for direct or indirect data processing and transmission.

1. Introduction: Quantum communication in a biological context

Conventional quantum communication uses states such as superposition and entanglement to transmit information without it being drained by classical measurement. In the field of bio-quantum communication, this principle is transferred to living structures that:

• can maintain a defined quantum state coherence

• function as natural quantum resonators

• are quantum logically manipulable due to their molecular structure

These biological systems are referred to as quantum organisms – organisms or cell consortia that have either been synthetically created or “quantum-stabilized” through evolution.

2. Definition: What are quantum organisms?

A quantum organism is a biological system (cell, microorganism, or macroscopic bio-assembly) whose intracellular processes are quantumb coherently organized. This means:

• Intracellular communication (e.g., through ion channels, microtubules, or biophotons) exhibits quantized, non-local properties.

• The organism is able to react to encoded state changes in other, entangled organisms – even across distances.

• Information transfer occurs not only via chemical or electrical signaling pathways, but also via quantum information channels.

3. Mechanisms of Bio-Quantum Communication

3.1. Microtubule Quantum Coherence

Inside cells, microtubules form a cellular skeleton that can maintain quantum coherent states for milliseconds – enough to enable quantum gating. This is comparable to logical quantum operations in superconducting qubits.

3.2. Biophoton Communication

Living organisms emit ultraviolet photons (biophotons) that can be quantum entangled under certain conditions. This creates an optical communication structure that can interact with other living systems.

3.3. Entangled DNA States

Experimental approaches show that DNA in nanofluidic channels can enter quantum-entangled configurations. This allows for a form of “genetic long-distance communication” at the quantum level – with potential applications for cell-to-cell quantum transfer.

4. Advantages Over Classical Quantum Communication

5. Applications and Implications

• Medicine: Cells exchanging quantum biological information about tumor growth or healing processes – without nerve connections

• Astrobiology: Communication between biosystems on interstellar probes via entangled DNA patterns

• Security: Unbreakable communication through living, organic quantum channels

• Artificial Intelligence: Integration of biological qubit structures into neural networks

6. Challenges and Ethical Questions

• Decoherence Risk: Living systems are complex – thermal fluctuations can disrupt quantum coherence.

• Biohacking Danger: Manipulation of living quantum organisms for unauthorized communication.

• Uncontrolled Entanglement: What happens when organisms share “lost” states with other biological entities?

7. Conclusion

Bio-quantum communication via quantum organisms is not just a futuristic construct – it is already on the threshold of feasibility. The use of living matter as carriers of quantum mechanical information channels opens up new horizons in medicine, technology, and communication. But with this power comes responsibility. Because:

“A quantum organism does not think – but it knows you are observing.”

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AUTHOR:  THOMAS JAN POSCHADEL