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Crazy and Interesting: Exploring Parallel Universes and Alternative Realities

Melek Sert

Published May 28, 2023• 0 citations
Publisher

Abstract

Crazy and Interesting: Exploring Parallel Universes and Alternative Realities — an article published in Journal of Unique and Crazy Ideas.
DOI
10.5281/zenodo.23591919

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Charl's Theorys

Charles Norman

Charl's Theorys is an evolving personal inquiry into the nature of reality, time, observation, information, entanglement, human decision-making, and possible futures.The work developed through a series of questions and propositions concerning how individual decisions continually affect future outcomes; whether reality may be understood as a continuously updating path through an immense landscape of possibilities; the relationship between this idea and concepts from quantum mechanics, relativity, entanglement and Many-Worlds interpretations; and whether information might exist or be accessible beyond an individual's immediately experienced path.The document also explores questions involving the speed of light and an expanding universe, quantum observation and the double-slit experiment, the Mandela effect, time travel and cascading changes to future events, the possible significance of exceptional human insight, and parallels with the concept of the Akashic Records.Charl's propositions and questions are intentionally distinguished from ChatGPT's responses and commentary throughout the document. The work is not presented as experimental proof or as a completed scientific theory. It is published as an open record of interconnected ideas and questions, inviting consideration, discussion, criticism, and further development by interested readers.Public Edition 1.0 — September 29, 2026.

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A Leading Publishing Platform in Quantum Science and Technology

Huan Wang, Stefan Hildebrandt

Advanced Quantum Technologies (QUTE) as a part of the prestigious Advanced journal portfolio, is a high-impact international journal disseminating the best peer-reviewed research in quantum science and technologies, including but not limited to quantum optics, quantum computing, quantum information, topological materials, superconductors, nanophotonics, quantum metrology, and micro- and nano-electromechanical systems. QUTE published 513 articles, including 418 Research Articles and 95 Reviews from established and emerging researchers since launched in late 2018 (according to Web of Science, December 03, 2023). Our listing of the most accessed articles can be found here, which illustrates the broad range of topics that have been covered by this young and multidisciplinary journal already. Moreover, the QUTE cover gallery provides a colorful graphical showcase of excellent research from the past 5 years. In this way, the journal is an important support for researchers to fulfill their mission and maximize their scientific discoveries. We would like to point you to some of the recently published highlight articles on various relevant topics, such as an inter-European quantum network (DOI 10.1002/qute.202200061), atom–photon hybrid systems (DOI 10.1002/qute.202300090), linear optical universal quantum gates (DOI 10.1002/qute.202300009), and quantum materials (DOI 10.1002/qute.202200131). Special issues on Quantum Sensing, guest-edited by Tongcang Li (Purdue University), Ren-bao Liu (Chinese University of Hong Kong), and Chong Zu (Washington University in St. Louis); Quantum Machine Learning, guest-edited by Lucas Lamata (Universidad de Sevilla) and José D. Martín-Guerrero (Universitat de València); and Photonic Quantum Technologies, guest-edited by Mohamed Benyoucef (QUTE Editorial Advisory Board, University of Kassel), are soon to follow. As a recent addition to our Editorial Advisory Board, we welcome Xinhua Peng of the University of Science and Technology of China and Kaiyou Wang of the Chinese Academy of Sciences. Prof. Xinhua Peng's research interest is quantum computation, quantum simulation, and quantum control using magnetic resonance technology, and Prof. Kaiyou Wang's skills are in spintronics and antiferromagnetism. The entire Advisory Board representing a wide range of research topics is listed here. Advanced Quantum Technologies offers authors the option to publish their articles Open Access, which means the articles are immediately free to read, download, and share. If you get ready to submit, please don't forget to ensure funder compliance, check eligibility for funding, and learn more about open access, which can help you compare the open-access policies of your funder or institution with the options available at Advanced Quantum Technologies and Wiley. Please also check and read about our transformative, institutional, and funder agreements available in many world regions, and discover the different options for publishing open access, copyright licenses (the alternative way to publish cost-free in QUTE), and more. We sincerely hope that you enjoy reading the articles in this scientific journal and look forward to your submissions for publication in Advanced Quantum Technologies. The Editorial Team of Advanced Quantum Technologies

Advanced Quantum Technologies•Dec 31, 2023•0 citations

Observer-Bound Reality: Parallel Universes & Dimensions

RÜZGAR İNAL

Observer-Bound Reality Hypothesis (OBRH) is a speculative theoretical hypothesis concerning the relationship between observation, measurement, and physical reality in quantum physics. The hypothesis is motivated by the different outcomes observed in double-slit experiments under conditions where which-path information is unavailable or becomes obtainable. OBRH proposes that an observer may not necessarily observe the entirety of reality, but rather the physical state that is accessible within the reality in which the observer is situated. Within this framework, the concept of an observer is not restricted to human consciousness. A physical or observational system may be considered an observer if it obtains, records, or otherwise acquires information about another system. The hypothesis therefore considers both conscious and non-conscious observational systems. A central aspect of OBRH is the possibility that physical states inaccessible to an observer may not necessarily be nonexistent. Instead, they could, in principle, correspond to different physical states associated with another reality, parallel universe, or additional dimension. In this sense, what appears to an observer as an inaccessible or undefined state could potentially represent a state that is physically realized beyond the observer's accessible reality. OBRH therefore explores the theoretical possibility of multiple realities, parallel universes, or additional dimensions in which physical states inaccessible from one observer's reality could exist. These possibilities are not presented as established facts. No claim is made that parallel universes, alternate realities, or additional dimensions have been experimentally demonstrated. Rather, they are considered as possible theoretical frameworks that could potentially explain phenomena that remain conceptually unresolved within the hypothesis. The work discusses this hypothesis through several conceptual examples, including the double-slit experiment, a pencil, a fan, and a camera. These examples are used to examine how information, observation, and physical state may depend on the observational framework in which a system exists. The hypothesis also examines several fundamental questions: Does observation reveal reality, or does it determine which physical state becomes accessible? Can an observer access only the reality in which it is physically situated? Could an unobservable physical state correspond to a state existing in another reality or dimension? Could different realities or dimensions theoretically interact or exchange information? If an observer affects another system through measurement, what determines the physical state of the observer itself? Must an observer itself be observed for its state to become physically defined? A proposed theoretical research process is presented: Observation → Anomaly or unexpected result → Experiment → Identification of different physical behavior → Mathematical modeling → Investigation of possible interaction with another reality or dimension → Experimentally testable prediction The hypothesis ultimately requires a rigorous mathematical formulation, compatibility with established physical theories, and experimentally testable predictions before it can be scientifically evaluated. OBRH explores the possibility that parallel universes, alternate realities, or additional dimensions may exist and could potentially provide a theoretical framework for understanding the relationship between observation, accessible physical states, and quantum measurement. These possibilities remain speculative and require mathematical formulation and experimental evidence for scientific evaluation. This work is presented explicitly as a speculative theoretical hypothesis and has not been experimentally validated or established as a confirmed physical theory.

•Aug 24, 2026•0 citations
Charl's Theorys is an evolving personal inquiry into the nature of reality, time, observation, information, entanglement, human decision-making, and possible futures.The work developed through a series of questions and propositions concerning how individual decisions continually affect future outcomes; whether reality may be understood as a continuously updating path through an immense landscape of possibilities; the relationship between this idea and concepts from quantum mechanics, relativity, entanglement and Many-Worlds interpretations; and whether information might exist or be accessible beyond an individual's immediately experienced path.The document also explores questions involving the speed of light and an expanding universe, quantum observation and the double-slit experiment, the Mandela effect, time travel and cascading changes to future events, the possible significance of exceptional human insight, and parallels with the concept of the Akashic Records.Charl's propositions and questions are intentionally distinguished from ChatGPT's responses and commentary throughout the document. The work is not presented as experimental proof or as a completed scientific theory. It is published as an open record of interconnected ideas and questions, inviting consideration, discussion, criticism, and further development by interested readers.Public Edition 1.0 — September 29, 2026.
Advanced Quantum Technologies (QUTE) as a part of the prestigious Advanced journal portfolio, is a high-impact international journal disseminating the best peer-reviewed research in quantum science and technologies, including but not limited to quantum optics, quantum computing, quantum information, topological materials, superconductors, nanophotonics, quantum metrology, and micro- and nano-electromechanical systems. QUTE published 513 articles, including 418 Research Articles and 95 Reviews from established and emerging researchers since launched in late 2018 (according to Web of Science, December 03, 2023). Our listing of the most accessed articles can be found here, which illustrates the broad range of topics that have been covered by this young and multidisciplinary journal already. Moreover, the QUTE cover gallery provides a colorful graphical showcase of excellent research from the past 5 years. In this way, the journal is an important support for researchers to fulfill their mission and maximize their scientific discoveries. We would like to point you to some of the recently published highlight articles on various relevant topics, such as an inter-European quantum network (DOI 10.1002/qute.202200061), atom–photon hybrid systems (DOI 10.1002/qute.202300090), linear optical universal quantum gates (DOI 10.1002/qute.202300009), and quantum materials (DOI 10.1002/qute.202200131). Special issues on Quantum Sensing, guest-edited by Tongcang Li (Purdue University), Ren-bao Liu (Chinese University of Hong Kong), and Chong Zu (Washington University in St. Louis); Quantum Machine Learning, guest-edited by Lucas Lamata (Universidad de Sevilla) and José D. Martín-Guerrero (Universitat de València); and Photonic Quantum Technologies, guest-edited by Mohamed Benyoucef (QUTE Editorial Advisory Board, University of Kassel), are soon to follow. As a recent addition to our Editorial Advisory Board, we welcome Xinhua Peng of the University of Science and Technology of China and Kaiyou Wang of the Chinese Academy of Sciences. Prof. Xinhua Peng's research interest is quantum computation, quantum simulation, and quantum control using magnetic resonance technology, and Prof. Kaiyou Wang's skills are in spintronics and antiferromagnetism. The entire Advisory Board representing a wide range of research topics is listed here. Advanced Quantum Technologies offers authors the option to publish their articles Open Access, which means the articles are immediately free to read, download, and share. If you get ready to submit, please don't forget to ensure funder compliance, check eligibility for funding, and learn more about open access, which can help you compare the open-access policies of your funder or institution with the options available at Advanced Quantum Technologies and Wiley. Please also check and read about our transformative, institutional, and funder agreements available in many world regions, and discover the different options for publishing open access, copyright licenses (the alternative way to publish cost-free in QUTE), and more. We sincerely hope that you enjoy reading the articles in this scientific journal and look forward to your submissions for publication in Advanced Quantum Technologies. The Editorial Team of Advanced Quantum Technologies
Observer-Bound Reality Hypothesis (OBRH) is a speculative theoretical hypothesis concerning the relationship between observation, measurement, and physical reality in quantum physics. The hypothesis is motivated by the different outcomes observed in double-slit experiments under conditions where which-path information is unavailable or becomes obtainable. OBRH proposes that an observer may not necessarily observe the entirety of reality, but rather the physical state that is accessible within the reality in which the observer is situated. Within this framework, the concept of an observer is not restricted to human consciousness. A physical or observational system may be considered an observer if it obtains, records, or otherwise acquires information about another system. The hypothesis therefore considers both conscious and non-conscious observational systems. A central aspect of OBRH is the possibility that physical states inaccessible to an observer may not necessarily be nonexistent. Instead, they could, in principle, correspond to different physical states associated with another reality, parallel universe, or additional dimension. In this sense, what appears to an observer as an inaccessible or undefined state could potentially represent a state that is physically realized beyond the observer's accessible reality. OBRH therefore explores the theoretical possibility of multiple realities, parallel universes, or additional dimensions in which physical states inaccessible from one observer's reality could exist. These possibilities are not presented as established facts. No claim is made that parallel universes, alternate realities, or additional dimensions have been experimentally demonstrated. Rather, they are considered as possible theoretical frameworks that could potentially explain phenomena that remain conceptually unresolved within the hypothesis. The work discusses this hypothesis through several conceptual examples, including the double-slit experiment, a pencil, a fan, and a camera. These examples are used to examine how information, observation, and physical state may depend on the observational framework in which a system exists. The hypothesis also examines several fundamental questions: Does observation reveal reality, or does it determine which physical state becomes accessible? Can an observer access only the reality in which it is physically situated? Could an unobservable physical state correspond to a state existing in another reality or dimension? Could different realities or dimensions theoretically interact or exchange information? If an observer affects another system through measurement, what determines the physical state of the observer itself? Must an observer itself be observed for its state to become physically defined? A proposed theoretical research process is presented: Observation → Anomaly or unexpected result → Experiment → Identification of different physical behavior → Mathematical modeling → Investigation of possible interaction with another reality or dimension → Experimentally testable prediction The hypothesis ultimately requires a rigorous mathematical formulation, compatibility with established physical theories, and experimentally testable predictions before it can be scientifically evaluated. OBRH explores the possibility that parallel universes, alternate realities, or additional dimensions may exist and could potentially provide a theoretical framework for understanding the relationship between observation, accessible physical states, and quantum measurement. These possibilities remain speculative and require mathematical formulation and experimental evidence for scientific evaluation. This work is presented explicitly as a speculative theoretical hypothesis and has not been experimentally validated or established as a confirmed physical theory.