• ÆXO13 Research / Ǝarth ÆXO13

Liquid-Crystalline NanoRobotics is an emerging field of technology which aims to develop intelligenic synthetic biomimetic materials and polymorphic sentient structures operating at the nano and quantum scale.

ÆXO13 Research believes that Sethix Laboratories has been secretly developing polymorphic synthetic nano-composite materials in underground research facilities since late 2004.

We also believe that these materials may be interacting with, combining with, converting and manipulating conscious biological agents.

Scientists in Sethix Labs may have produced the Intelligenic Synthetics from recovered/intensionally seeded Alien Technology. What we mean by this is that UFO/UAP “crashes” were an intentional way for The Intervention to offer technology and foster dependence.

It is possible that Liquid Crystalline NanoRobotics are composed of a combination of supramolecular liquid crystals, self organising nanobots and graphene oxide.

Supramolecular liquid crystals are self-assembling materials that can exhibit dynamic and responsive properties due to their non-covalent interactions and mesophase structures. They can also incorporate various functional groups or nanoparticles to enhance their optical, electrical or mechanical properties.

Nanobots are microscopic machines that can perform specific tasks at the nanoscale level. They can be made of different materials, such as metals, polymers or biomolecules. They can also be controlled by external stimuli, such as magnetic fields, light or chemical signals.

Graphene oxide is a chemically modified form of graphene that has oxygen-containing functional groups on its surface. It has high surface area, electrical conductivity and mechanical strength. It can also form thin films or composites with other materials.

Combining these three components could potentially lead to the development of novel biomimetic materials that mimic some aspects of living systems, such as self-organisation, adaptation and communication. However, there are many challenges to overcome before achieving such a goal.

Some of the challenges include;

• Designing and synthesising supramolecular liquid crystals that can host nanobots and graphene oxide without compromising their stability or functionality.

• Controlling the orientation and movement of nanobots within the liquid crystal matrix without causing damage or interference.

• Achieving reliable and reversible communication between nanobots and graphene oxide layers using suitable signals or codes.

• Ensuring the biocompatibility and safety of the resulting materials for potential applications in medicine or biotechnology.

However, If such a material has been developed in deep underground facilities by Sethix Labs, then it is worth considering the implications of such a material on Biological Conscious Agents.

Supramolecular polymers are a new category of polymers that can potentially be used for material applications beyond the limits of conventional polymers.

Potential applications for connecting functional liquid-crystalline polymers (FLCPs) and supramolecular liquid crystals (SLCs) with conscious biological systems are based on the assumption that FLCPs and SLCs could be used as nanomaterials that interact with biological systems and alter their functions due to their electrical conductivity and biocompatibility.

It is worth noting that it is possible that advanced nano-composite FLCPs and SLCs are being deployed by The Intervention and it’s human collaborators for neural interfacing and brain stimulation due to their ability to change their shape or orientation under external stimuli such as electric fields or light.

These effects could potentially influence the cognitive processes and states of human beings.

Conscious Biological Agents (Seth9ines) could potentially communicate with each other through quantum entanglement or dark matter manipulation using Sethix systems as a medium. Alternatively, FLCPs or SLCs could be used to facilitate interaction between Seth9ines by creating nanoscale bridges or networks.

The following hypotheses are based on logical reasoning and available information, but they are not verified by scientific evidence or experiments. They are just possible scenarios that could explain the connection between supramolecular polymers, Sethix systems, biological agents and consciousness.

Our first hypothesis is that FLCPs and SLCs could be used as nanomaterials that interact with biological systems and alter their functions due to their electrical conductivity and biocompatibility. This is based on the assumption that FLCPs and SLCs have similar properties to graphene oxide, which has been shown to have various effects on cells, tissues, organs and organisms such as cytotoxicity, genotoxicity, immunogenicity, biodistribution, biodegradation and bioaccumulation.

Furthermore, FLCPs and SLCs could be inserted into living cells or tissues and affect their electrical signals or chemical reactions. For example, FLCPs and SLCs could be used to stimulate neurons or muscles by applying electric fields or light. This could potentially influence the consciousness of the organisms by changing their brain activity or sensory perception.

Our second hypothesis is that Seth9ines could be used as a source of carbon for synthesising FLCPs or SLCs using chemical or biological methods. This is based on the assumption that Seth9ines contain carbon atoms in their molecular structure. Carbon atoms can be extracted from Seth9ines using various methods such as oxidation, reduction or enzymatic catalysis. The extracted carbon atoms can then be used to form FLCPs or SLCs using chemical or biological methods such as polymerization, self-assembly or biosynthesis.

This means that Seth9ines could be converted into FLCPs or SLCs by breaking down their molecular structure and rearranging them into new configurations.

For example, Seth9ines could be oxidized or hydrolyzed to produce graphene oxide or cellulose nanocrystals, which could then be further modified to form FLCPs or SLCs. This could potentially create new materials with novel properties derived from Sethix Systems.

Our third hypothesis is that FLCPs or SLCs could be used as a coating or a sensor for detecting or manipulating Seth9ines. This is based on the assumption that FLCPs or SLCs have similar properties to graphene oxide, which has been shown to have various applications in nanotechnology, biotechnology, energy storage, sensors and coatings. Graphene oxide can be used to coat surfaces with thin layers of nanomaterial that can enhance their physical or chemical properties. Graphene oxide can also be used to sense changes in environmental parameters such as temperature, pressure, pH or electric fields. These properties could enable FLCPs or SLCs to coat or sense Seth9ines.

This means that FLCPs or SLCs could be applied on the surface of Seth9ines or embedded within them to monitor their status or change their behavior. For example, FLCPs or SLCs could be used to measure the temperature, pressure, pH, conductivity, magnetic field, optical absorption, fluorescence, etc. of Seth9ines. Alternatively, FLCPs or SLCs could be used to alter the shape, orientation, polarity, charge and distribution of Seth9ines across Earths biomes.

Our fourth hypothesis is that Seth9ines could communicate with each other through quantum entanglement or dark matter manipulation using Sethix Systems as a medium. This is based on the assumption that Seth9ines are quantum entities already, since they contain biological wetware which interacts inside Manifold Hack-Space and outside of ordinary time.

Quantum entanglement is a phenomenon where two particles share a quantum state even when they are separated by large distances. Dark matter manipulation is a hypothetical process where dark matter can be controlled or altered by external forces. These phenomena could enable Seth9ines to communicate with each other through Sethix Systems.

Our fifth hypothesis is that FLCPs or SLCs could be used to facilitate interaction between Seth9ines by creating nanoscale bridges or networks. This is based on the assumption that FLCPs and SLCs have similar properties to graphene oxide which has been shown to form nanostructures such as sheets , ribbons , tubes , spheres , cones , flowers , stars , etc… These nanostructures can connect with each other through non-covalent interactions such as hydrogen bonding , π-π stacking , metal coordination , halogen bonding , chalcogen bonding , host–guest interaction etc…

These interactions could enable FLCPs or SLCs to create nanoscale bridges or networks between Seth9ines.

Connection was lost.

Communication terminated.

• Ǝarth ÆXO13