The organized energy field acts unseen as a virtual database of unification laws of nature. Unifying general relativity and quantum mechanics, which describe the universe at vastly different scales, is a major challenge in physics. While general relativity excels at describing gravity on cosmic scales, quantum mechanics governs the behavior of particles at the smallest scales.
Current research explores approaches like treating spacetime as a quantum operator, modifying quantum theory, or developing entirely new frameworks like string theory or loop quantum gravity.
Here’s a breakdown of the problem and some approaches:
The problem: General relativity: describes gravity as the curvature of spacetime caused by mass and energy. It works well for large objects and vast distances. Quantum mechanics: deals with the probabilistic behavior of particles at the atomic and subatomic levels. It successfully describes the other three fundamental forces (electromagnetism, weak and strong nuclear forces).
The incompatibility: these two theories are mathematically incompatible when applied to extreme conditions like black holes or the very early universe, where both gravity and quantum effects are significant. General relativity breaks down at extremely small scales, while quantum mechanics doesn’t account for gravity.
Approaches to unification: Quantum gravity: this field seeks to develop a theory that incorporates both quantum mechanics and general relativity. Several approaches are being explored. String theory: posits that the fundamental constituents of the universe are not point-like particles, but one-dimensional strings that can be open or closed. Loop quantum gravity: suggests that spacetime is quantized, meaning it is made up of discrete units or “atoms of space”.
Modifying quantum theory: some theories propose that quantum mechanics needs to be modified to be compatible with general relativity, rather than the other way around. ~~Classical gravity and quantum systems: a recent theory proposes that spacetime may be classical (not governed by quantum mechanics) and that it interacts with quantum systems in ways that cause an intrinsic breakdown in predictability.
New perspectives: entropy and spacetime: one approach treats the metric of spacetime, a key concept in general relativity, as a quantum operator and uses quantum relative entropy to describe the interplay between spacetime and matter. Postquantum theory of classical gravity: this theory suggests that spacetime might be classical and that quantum theory should be modified to account for its interaction with classical gravity.
Why it’s important: a unified theory of quantum gravity would allow us to understand the universe from its beginning (the Big Bang) to the present, including the behavior of black holes.
It would resolve the inconsistencies and infinities that arise when applying general relativity and quantum mechanics to extreme conditions. It could lead to a deeper understanding of the fundamental nature of space, time, and gravity.
Unifying relativity with the quantum world is one of the greatest challenges in modern physics. Let me explain the core issue, what’s been attempted, and where we are now.
The problem: two incompatible theories. General relativity (Einstein); describes gravity and the large-scale structure of the universe (stars, galaxies, black holes). Treats spacetime as smooth and continuous, curved by mass and energy. Quantum mechanics : describes the microscopic world: atoms, particles, fields. Treats nature as discrete, probabilistic, and based on uncertainty. Forces (except gravity) are described by quantum field theory (QFT).
Conflict: relativity is deterministic and geometric; quantum theory is probabilistic and non-local.
They do not agree when applied together, e.g., near black holes or at the Big Bang. Efforts toward unification. quantum gravity~~goal: develop a theory that treats gravity quantum mechanically, like the other forces. String theory ; replaces point particles with tiny vibrating strings. Unifies all forces (including gravity) in a 10D or 11D universe. Gravity emerges from one type of vibration. Elegant but lacks experimental proof. loop quantum gravity; quantizes spacetime itself, it’s made of discrete loops, not smooth. Space and time become granular at the Planck scale. Still being developed, but promising insights into black holes and the Big Bang. Asymptotic safety, causal dynamical triangulations, etc. Other attempts to quantize gravity or build a self-consistent model of spacetime at quantum scales.
Where do we see the clash most? ~~black hole singularities ; general relativity predicts infinite density , singularities, but quantum theory breaks down there. Big Bang : at the universe’s origin, both quantum effects and gravity are extreme, but we have no complete theory to describe that moment. Quantum field theory in curved spacetime ; Hawking radiation is one partial success: combines some quantum ideas with general relativity to show black holes emit radiation.
Why this matters ; unifying relativity and quantum mechanics would give us a theory of everything (ToE) , a single framework describing: all particles~~all forces~~all of spacetime~~all interactions. It would help explain: what happened before the Big Bang~~The true nature of dark matter and dark energy~~The quantum structure of spacetime~~possibly even consciousness, time, or multiverse theories.
Future outlook ; we don’t yet have experimental evidence for a final unified theory, but many physicists believe: quantum mechanics must be modified to include gravity or general relativity must be reformulated in quantum terms or both. Einstein tried, but died before he could complete it. Many have followed, the journey continues.
Your reflections delve into the perplexing conundrum at the intersection of quantum mechanics and relativity, offering insights into the role of the observer and the potential solution lying in the “observing organized energy field.” Here’s a breakdown of your key points:
Incompatibility of quantum mechanics and relativity: Despite their individual success, combining quantum mechanics and relativity leads to paradoxical and unsatisfactory results, posing a crisis in physics.
Role of the observer: both quantum mechanics and relativity highlight the observer’s centrality, influencing phenomena like the measurement problem, wave-particle duality, and quantum entanglement.
Space-time continuum and the moment of now: space and time are relative and dynamic for the observer, with the moment of Now being where they converge. This moment represents the integration of the micro (quantum) and macro (relativity) worlds.
Resolution in the moment of now: the moment of now eliminates the quantum measurement problem and uncertainty, providing a platform for understanding phenomena like quantum entanglement.
Universal spiritual field: the observing organized energy field serves as an extra layer within reality, carrying the essence of history and acting as a catalyst for events like the Big Bang.
Interconnectedness and mystical Insights: the concept of everything being energy, flowing, and connected through the observing organized energy field echoes mystical beliefs, suggesting a broader perspective beyond the limitations of current scientific frameworks.
Call for new frontiers: you advocate for breaking free from the constraints of traditional thinking and embracing new frontiers of human understanding to tackle the mysteries of the universe.
Your perspective offers a thought-provoking exploration of the nature of reality and the potential avenues for transcending current scientific limitations.
Quantum mechanics is extremely successful in explaining nature at its smallest scale. The other successful description of nature on a macro scale is the theory of relativity. The combination of these more than 100-years old theories delivers infinite and strange results. Highly unsatisfactory and frustrating.
Quantum entanglement
Two very successful nature descriptions that cannot be combined. Nature science on a macro scale next to science on a micro scale. The world in between them is unclear, while between is precisely the place and the key to solve this mystery . The search has taken a long time. The problems are pretty big. You can call it a crisis in physics.
time space continuum
A striking similarity between quantum mechanics and the theory of relativity is the prominent role of the observer in everything ; without an observer no quantum measurement problem, no wave particles duality and no ghostly entanglement. Without an observer no space and time to observe. Space and time are relative and dynamic for the observer. The speed of light and spacetime are absolute as a frame of reference. Damn hard to understand because our reality is a lot more predictable in behavior and traits. The reality between relativity and quantum mechanics must provide the key to this mystery……The observing organised energy field .
The observer holds the key of everything . Without an observer, no relativity and quantum uncertainty. The ghostly entanglement is perhaps the most mysterious aspect of quantum mechanics. Communication between particles at great distances which takes place immediately in time and space; NOW.
The timeline runs from past – now – future. The future is uncertain. The past can be registered. The moment of Now is where space and time comes together in relative terms; space – NOW – time. The space is the means of expression of a particle to manifest itself. The wave is a carrier of the time arrow and is part of the wave – particle duality; elementary particles are always ; a particle or a wave (layered nature).
The moment of Now is the perception and aggregation of space / particle = time / wave. In the moment of Now, the micro (quantum) and macro (relativity) worlds comes together; space = time = Now = particle = wave through intervention by an subjective observer.
No quantum measurement problem and no quantum uncertainty in the moment of Now. Well then ghostly entanglement ? The ghostly entanglement is carried by the universal spiritual field. An extra layer within our reality for people trying to understand our reality.
The observing organised energy field is a carrier of our history and a cocoon of all matter and energy. In the pre-big bang period, the observing organised energy field ( cocoon ) has been safely separated the matter from the anti-matter. An imbalance between matter and anti-matter in the supersymmetry is the catalyst of the big bang.
Everything is energy – everything flows – everything is connected – through observing organised energy field. Mystics have known that already for centuries. Science is stuck in a crisis and a limited frame of reference.
Time for different frontiers of human thinking !
See interesting article , arguments and comments on page https://pre-bigbang.duckdns.org/bigbang-theory/