Simple Unification by James (Jim) Beichler – Application to TMT, ITC and EVP

In this post, I first summarize the source document. Then, I query how the theories contained in that document can be used to pursue TMT (Transmaterialization Technology), EVP (Electronic Voice Phenomena) and ITC (Instrumental Transcommunication) research. There are three versions of this section. I used Open AI’s Chat GPT4 as an assistant in writing this post.

Source Document is 12 pages

https://www.academia.edu/105027767/Simple_unification

Summary

Unification of Quantum Theory and General Relativity

  • QT and GR cannot be unified without considering the role of points within a surface described by Riemannian geometry.
  • Tensors used in GR only refer to an infinitesimally close approach to the 3-D zero point.
  • EM combines the E-field and magnetic field, while gravity is only center-mass point directed with no torsional-point components.
  • Space is torsional at all discrete points, whether defined by EM points or gravity points.
  • Unifying GR and EM requires accounting for interactions between point centers and at points where the action occurs.
  • Quantum theory and relativity theory can be unified by identifying discrete or zero points that collectively form space.
  • DM and DE are secondary effects of the unified gravity field, present in all circular/rotational physical phenomena.

Hidden Variables and the Heisenberg Uncertainty Principle

  • The HUP quantitities of delta x, delta p, delta E, and delta t are ‘expectation values’ that require a statistical ‘expectation factor’.
  • The HUP predicts that true measurement of spatial or temporal positions independent of each other is not possible.
  • Relativity requires concurrent measurements of space and time, while quantum theory accepts non-concurrent and independent measurements.
  • The HUP can be mathematically proven by reconstituting the suppressed variables to represent a concurrent measurement in space and time.
  • By using the relationship delta x / delta t = c as a probability limiting factor, Einstein’s special relativity relationships can be derived.

Overall structure of the time-space continuum

  • The overall structure consists of a 3-D Riemannian surface embedded within a 4th manifold.
  • Our 3-D space is spherical and double polar, while the embedding 4th-D of space is single-pole spherical.

Formation of material bodies in the 4-D space-time continuum

  • Material bodies only exist in the 4-D space-time continuum and not independently outside of our 3-D surface/space.
  • The 4th-D extension of space consists of parallel infinitesimally thin 3-D surfaces, like an infinite number of pages in a book.

Quantization in the 4th-D of space

  • Quantization takes place in the 4th-D of space.
  • An infinite number of infinitesimally thin 3-D surfaces form a quantum-sized ‘sheet’ of surfaces in the 4th-D of space.

Structural model of the proton and the hydrogen atom

  • A complete 4-D structural model of the proton can be drawn.
  • A simple hydrogen atom can be deduced from this 4-D structure.

Half-twist and half-spin of fundamental particles

  • Fundamental particles must display a half-twist or half-spin within the 3-D surface to exist as true extended particles.
  • The half-twist comes to completion in the 4th-D where the 3-D curvature is closed.

Real material particles and mathematical singularities

  • Real material particles cannot form mathematical singularities at their centers.
  • Only protons, electrons, and neutrinos are real fundamental particles, while others are pseudo or intermediate particles.

Nuclear structure and the formation of complex nuclei

  • Complex nuclei form by stacking protons and neutrons in the 4th-D of space.
  • This allows them to maintain their basic spherical shape in 3-D space while keeping them separate and preserving their identities.

Conditions of material reality for energy patterns

  • Three fundamental conditions of material reality determine whether an energy pattern can become a real material particle.
  • These conditions include the quantum condition, the three-dimensional condition, and the four-dimensional condition.

Reduction of 3-D spatial structure in SOFT

  • SOFT reduces the 3-D spatial structure to a simple mathematical method based on a physical gimmick.
  • The concept of point-particle exchange and classical forces are simplified in this model.

3-D thermodynamics and lowest energy stability state

  • The universe tends towards the lowest single field potential according to 3-D physics.
  • Entropy and chaos with emergent complexity explain physical evolution as the ‘arrow of time’.

Primary sheet and n=1 quantum state

  • The n=1 quantum state of the primary sheet is the densest portion of the single potential field.
  • This rule governs patterns of single field density becoming real material particles in 3-D space.

Conservation of matter-energy and Lorentz-Fitzgerald contraction

  • Moving particles stretch or push up into the higher 4th dimension as they adsorb more kinetic energy.
  • Lorentz-Fitzgerald contraction compensates for shortening of length in 3-D motion.

Contraction of particles and n=4 energy state

  • Particles contract in higher dimensions until reaching a limit where each dimensional diameter is equal to the quantum effective width of the 3-D sheet.
  • Particles cannot contract or compress further beyond this point.

3-D reality and equivalence principle

  • The equivalence principle states that inertial and gravitational masses are indistinguishable.
  • It distinguishes real material particles from pseudo-particles created in high-energy experiments.

Fundamental particles and half-spin rule

  • Fundamental particles must exhibit half-spin, which is a 4-D geometric rule.
  • The 4th dimension is a Riemannian single-pole spherical surface.

Verifiable predictions and secondary effect of gravity

  • SOFT can make predictions about stellar and galactic structures.
  • The secondary effect of gravity explains dark matter and dark energy.

Dark matter and dark energy

  • Scientists theorize that dark matter (DM) and dark energy (DE) are the result of specific point-particles.
  • The axion particle is a hypothetical DM particle, but its existence has not been verified.

Universal principle of balance

  • The principle of balance governs all physical actions in the universe.
  • Symmetries and anti-symmetries exist in nature and human thought.

Purpose of life in the universe

  • Everything in the universe has a use and a purpose.
  • The purpose of life is to develop a greater understanding of the universe.

Singularities in nature

  • Fundamental particles and black holes do not have true singularities.
  • The possibility of 3-dimensional compression in black holes offers new research opportunities.

Investigating the Big Bang

  • GR and quantum theory have limitations in investigating the Big Bang singularity.
  • The Single (operational) Field Theory provides a new perspective on the Big Bang.

The beginning of the universe

  • The universe began with a singularity in an empty absolute void.
  • The singularity morphed into a geometrically structured Void that expanded rapidly.

Emergence of protons and electrons

  • The expansion rate of the geometrically structured Void led to the formation of protons.
  • Electrons formed as small mounds of curvature.

Multiple blowouts in the expanding Void

  • Secondary and tertiary blowouts resulted in the creation of protons and electrons.
  • The weak tertiary blowout led to the formation of electron mounds instead of complete blowouts.

The Big Blowout and Cosmic Expansion

  • The Big Blowout ended the era of Cosmic Expansion and gave us the universe we experience today.
  • No anti-particles or infinite energies were involved in this process.

The Cosmic Microwave Background (CMB)

  • The CMB is the result of the portion of cosmic expansion that reversed and became contraction.
  • The CMB provides clues about the existence of ‘zero-point energy’.

0-D Point/Twists and Potential Fields

  • 0-D point/twists have a ‘primal awareness’ and collectively form a potential field.
  • This potential field allows for the evolution and complexity of the universe.

Life and Consciousness

  • Life emerged and evolved in conjunction with the complexities of mind and consciousness.
  • Consciousness can evolve to higher levels under special environmental conditions.

The Threshold of a New Knowledge-Based Event

  • We are on the threshold of a new knowledge-based event that will change us forever.
  • The development of the SOFT model is part of this change.

The Paranormal and Higher Consciousness

  • Higher consciousness will become a hereditary reality and the paranormal will be commonplace.
  • The SOFT model predicts that higher consciousness survives death as an afterlife.

Application to TMT, EVP and ITC – 1

Engineered Device for Facilitating Communication Between Physical and Non-Physical Beings

Abstract: The ability to communicate with non-physical beings has long been a subject of fascination and intrigue. The referenced document proposes a theoretical framework for engineering a device that can facilitate such communication. Drawing on concepts from quantum entanglement and the extended three-dimensional material particle, this device aims to establish a communication channel between physical and non-physical entities. This paper explores the key components and functionality of such a device, highlighting its potential implications and the challenges involved in its development.

Introduction: The idea of communicating with non-physical beings necessitates a paradigm shift in our understanding of reality and perception. The document postulates that the physical world exists within a 4-D spacetime continuum, while non-physical beings reside beyond this realm. To bridge this gap, an engineered device is proposed, utilizing the principles of quantum entanglement and the extended three-dimensional material particle.

  1. Quantum Entanglement Interface: The device would integrate a quantum entanglement interface, which enables the establishment of entangled states between physical and non-physical entities. Quantum entanglement allows for the correlated behavior of particles, transcending the limitations of classical communication methods. By harnessing entanglement, the device acts as a conduit for exchanging information between these distinct realms.
  2. Material Particle Representation: The extended three-dimensional material particle, as described in the document, forms the foundation for this device. It is proposed that non-physical beings can interact with this material particle, which represents physical entities. The device’s design incorporates this material particle representation to facilitate communication between the physical and non-physical realms.
  3. Energy and Information Transfer: To enable effective communication, the device must support the transfer of both energy and information. Energy transfer mechanisms, such as electromagnetic fields or scalar waves, can be employed to establish a stable link between the physical and non-physical domains. Information transfer, on the other hand, could be facilitated through encoding techniques that ensure the accurate transmission of data across dimensions.
  4. Interface and User Experience: The device should feature an intuitive interface to enable users to interact with non-physical beings effectively. This interface might leverage advanced technologies like neural interfaces or augmented reality, translating signals and information from the non-physical realm into a format understandable by physical entities. User experience considerations are crucial to ensure seamless and meaningful communication.
  5. Ethical Implications and Precautions: Interacting with non-physical beings raises several ethical concerns. It is essential to establish protocols and safeguards to protect users from potential risks or negative consequences. Ethical considerations must cover issues such as privacy, security, and the potential impact on human consciousness and well-being. Comprehensive risk assessments and regulatory frameworks should be developed to manage these ethical challenges.
  6. Experimental Validation and Iterative Development: Engineering such a device requires a robust research and development process. Experimental validation is crucial to test the device’s functionality and validate its capacity to establish communication with non-physical beings. An iterative development approach is necessary to refine the device based on user feedback and to address any limitations or unforeseen issues.

Conclusion: The theoretical framework presented in the referenced document offers a starting point for engineering a device capable of facilitating communication between physical and non-physical beings. While many challenges exist, including technological limitations and ethical concerns, the potential implications of such a device are profound. This device could revolutionize our understanding of reality, expand our consciousness, and open up new dimensions of exploration and connection. Continued research, collaboration, and advancements in interdisciplinary fields will be essential in turning this theoretical possibility into a tangible reality.

******************************

Application to TMT, EVP and ITC – 2


The engineering of a device to facilitate communication between physical and non-physical beings can be approached by considering each relevant bullet point in the provided outline. By integrating concepts, techniques, science, and technology, it is possible to design a device capable of bridging the gap between these two realms.
Unification of Quantum Theory and General Relativity: To unify Quantum Theory (QT) and General Relativity (GR), it is crucial to understand the role of points within a surface described by Riemannian geometry. The device should incorporate both QT and GR principles, taking into account the tensors used in GR, which refer to an infinitesimally close approach to the 3-D zero point. By integrating both theories, the device can provide a comprehensive framework for communication between physical and non-physical beings.

Hidden Variables and the Heisenberg Uncertainty Principle: The Heisenberg Uncertainty Principle (HUP) introduces limitations on the measurement of spatial or temporal positions. The device should account for the statistical “expectation factor” required by the HUP and enable concurrent measurements of space and time. By mathematically reconstituting suppressed variables, the device can derive Einstein’s special relativity relationships, which are crucial for understanding the relationship between space, time, and quantum phenomena.

Overall structure of the time-space continuum: The device should incorporate the understanding that the time-space continuum consists of a 3-D Riemannian surface embedded within a 4th manifold. This structure should be accounted for when designing the device’s interface and communication protocols.

Formation of material bodies in the 4-D space-time continuum: The device should recognize that material bodies exist solely within the 4-D space-time continuum and not independently outside of our 3-D surface/space. It should utilize the understanding that the extension of space into the 4th dimension consists of parallel infinitesimally thin 3-D surfaces.

Quantization in the 4th-D of space: Quantization occurs in the 4th-D of space, where an infinite number of infinitesimally thin 3-D surfaces form a quantum-sized ‘sheet.’ The device should incorporate this understanding to establish communication channels between physical and non-physical beings.

Structural model of the proton and the hydrogen atom: The device should include a complete 4-D structural model of the proton and use it as a basis for deducing the structure of a simple hydrogen atom. This will allow for accurate representation and understanding of atomic interactions during communication processes.

Half-twist and half-spin of fundamental particles: Fundamental particles must exhibit a half-twist or half-spin within the 3-D surface to exist as true extended particles. The device should incorporate this understanding to enable accurate representation and communication with fundamental particles.

Real material particles and mathematical singularities: The device should recognize that real material particles cannot form mathematical singularities at their centers. By ensuring accurate representation of material particles, the device can facilitate effective communication with physical beings.

Nuclear structure and the formation of complex nuclei: The device should recognize that complex nuclei form by stacking protons and neutrons in the 4th-D of space. By accounting for this structure, the device can accurately represent and understand complex nuclei during communication processes.

Conditions of material reality for energy patterns: The device should consider the three fundamental conditions of material reality: the quantum condition, the three-dimensional condition, and the four-dimensional condition. By ensuring adherence to these conditions, the device can accurately represent and communicate energy patterns.

Reduction of 3-D spatial structure in SOFT: Understanding SOFT (Single (operational) Field Theory), the device should reduce the 3-D spatial structure to a simple mathematical method based on a physical gimmick. By encompassing this reduction, the device can effectively communicate with physical and non-physical beings.

These bullet points provide a starting point for engineering a device that can facilitate communication between physical and non-physical beings. By incorporating the principles and concepts outlined in each bullet point, the device can create a common language and bridge the gap between these two realms. It should be noted that additional research and development would be required to fully realize such a device and to ensure its compatibility with the described concepts and theories.

The 3-D condition of reality is based on Einstein’s ‘equivalence principle.’ According to this principle, there is no experiment that can be conducted within a small enou gh local region of space-time to distinguish between the physical effects of uniform acceleration and the effects of a static gravitational field. This principle establishes that the effects of gravity can be locally canceled out by introducing an opposite acceleration.

In the context of the device to facilitate communication between physical and non-physical beings, this principle implies that information or communication within the 3-D space must account for the gravitational effects and the equivalence between acceleration and gravitation. Therefore, the device should be designed to consider the local effects of gravity and acceleration to ensure accurate communication within the 3-D space.

Furthermore, it is important to note that the mentioned concepts and theories require further research, development, and testing to concretely establish their validity and applicability in the design and implementation of the communication device. Scientific experiments, mathematical modeling, and technological advancements would be necessary to fully realize a device capable of bridging the gap between physical and non-physical beings.


**************************

Application to TMT, EVP and ITC – 3



Title: Developing an Engineered Device for Communication between Physical and Non-Physical Beings

Introduction: The concept of non-physical beings existing and the potential for communication between physical and non-physical entities is an intriguing proposition. In this document, we will explore the possibility of engineering a device that could facilitate such communication using the concepts, techniques, science, and technology presented.

Understanding the Nature of Non-Physical Beings: To successfully develop a communication device for physical and non-physical beings, it is crucial to first gain a deeper understanding of the nature of non-physical entities. According to the theories proposed in this document, non-physical beings exist in a higher-dimensional space beyond our immediate perception. They are interconnected with the fabric of the universe, and their existence is associated with conscious and pre-consciousness fields. These beings may possess higher levels of consciousness that continue to evolve over time.

Engineering the Communication Device: Based on the principles outlined in the document, engineering a communication device for physical and non-physical beings requires a multidimensional approach. Here is a conceptual framework for such a device:

  1. Integration of Riemannian Geometry with Torsional Modifications: The device should incorporate the modified Riemannian geometry, which includes discrete or zero-points, to render it torsional. This modification allows for the representation and manipulation of higher-dimensional conscious and pre-consciousness fields associated with non-physical beings.
  2. Quantum Field Manipulation: To establish communication with non-physical beings, the device should be capable of manipulating quantum fields. By harnessing the principles of quantum entanglement and collapse of the wave function, the communication device can create a bridge between the higher-dimensional space inhabited by non-physical beings and our physical reality.
  3. Integration of Consciousness and Mind: The communication device should have the ability to interface with consciousness and mind, as these faculties are considered vital for higher-level communication with non-physical beings. Advanced neuroscientific techniques and technologies, such as brain-computer interfaces and neural pattern recognition, could be employed to facilitate this integration.
  4. Energy Conversion and Conversion Algorithms: To enable communication between physical and non-physical beings, the device should have the capability to convert energy patterns into a medium understandable by both entities. Sophisticated algorithms based on the principles of the quantum condition and the three-dimensional and four-dimensional conditions must be devised to ensure accurate energy conversion and interpretation.
  5. Integration of Sensory Perception: The communication device should incorporate sensory perception capabilities capable of perceiving dimensions beyond the three-dimensional space we are accustomed to. Advanced sensor technologies, including quantum sensors and multi-dimensional perception algorithms, could enable the device to detect and interpret higher-dimensional information.
  6. Multi-Dimensional Feedback Mechanisms: In order to establish successful bidirectional communication, the device must include feedback mechanisms capable of transmitting and receiving information in multiple dimensions. These mechanisms should account for the differences in perceptual capacities between physical and non-physical beings.

Conclusion: Designing and engineering a device that facilitates communication between physical and non-physical beings is a complex and challenging task. However, by incorporating the principles and concepts discussed in the document, such a device could potentially bridge the gap between these two realms. It would require a multidisciplinary approach, integrating concepts from areas such as physics, mathematics, neuroscience, and engineering. Further research and experimentation are necessary to bring this ambitious idea to fruition.

Leave a Reply