Tech billionaire Elon Musk has claimed his Neuralink company has successfully implanted one of its wireless brain chips in a human.
Tech billionaire Elon Musk has claimed his Neuralink company has successfully implanted one of its wireless brain chips in a human.
Our next IPI Lecture will be on Saturday, 2nd of December at 15.00 London time.
Title: On the Cyclic Nature of Time and the Consequent Exact Derivation of Quantum Mechanics from Classical-Relativistic Physics
Abstract: We have proven, with mathematical certainty and in several independent ways, the exact equivalence between the statistical description of ultra-fast harmonic dynamics, classical in the essence, and ordinary quantum mechanics. The equivalence has been rigorously confirmed in terms of all the main quantization prescriptions: canonical quantization, Feynman quantization, second quantization, etc..., and successfully verified for non-trivial quantum phenomena of condensed matter and high energy physics. The non-trivial topology of the theory has revealed a further remarkable result: the principle of relativistic covariance directly yields gauge interaction, without postulating gauge invariance, as much as gravitational interaction. All these independent results constitute an abundant amount of unequivocal evidence to postulate the intrinsic periodicity of elementary systems as the fundamental classical principle at the base of quantum mechanics. That is, the whole plethora of quantum phenomena turns out to be fully conciliated, in a fully unified description, with the principle of classical-relativistic physics, provided the introduction of a cyclic nature for the relativistic time.
[1] “Internal times” and how to second-quantize fields by means of periodic boundary conditions, Donatello Dolce, Published in: Annals Phys. 457 (2023) 169398; DOI: 10.1016/j.aop.2023.169398
Author: Prof. Donatello Dolce
BIO: Donatello Dolce has a Ph.D. in Theoretical High Energy Physics from the University of Florence (Italy). Subsequently, and attended three postdoctoral fellowships in various High Energy Physics institutes such as IFAE at Universitat Autonoma de Barcelona (Spain), THEP at the J. Gutenberg University of Mainz (Germany), and CoEPP at the University of Melbourne (Australia). Presently he is affiliated with the University of Camerino (Italy). Inspired by his studies of physics beyond the Standard Model, he developed a proposal for a unified theory of quantum and relativistic physics called the Elementary Space-Time Cycles Theory. This theory has been the subject of 21 published papers over more than 10 years, many of them peer-reviewed in highly-ranked scientific journals, but unfortunately, for reasons that have nothing to do with fair scientific conduct, it is mostly unknown to the vast majority of the physics community.
2nd of December at 15.00
London time. Online ZOOM lecture – a link will be emailed to the IPI members.
Information is a real substance. It is not only a message, something you may know or read in a paper, argues Arend van Campen. In this interview he explains what this means: "we can measure and map the information quality and quantity in man-made systems and predict if they can function and perform fully. This means that the EU, US, the UN will cease to exist in their current form, because they cause harm due to an information deficit".
Posted by Melvin on behalf of Arend.
Our next IPI Lecture will be on Saturday, 16th of September at 15.00 London time.
Title: Modelling social lasing by using the mathematical formalism of quantum theory
Abstract: During the last years our society was permanently disturbed by the coherent information waves of high amplitudes. These are waves of huge social energy. Often, they are of the destructive character, a kind of information tsunami. But they can carry as well positive improvements in the human society, as waves of decision making matching rational recommendations of societal institutes. The main distinguishing features of these waves are their high amplitude, coherence (homogeneous character of social actions generated by them), and short time needed for their generation and relaxation.
We show that such social phenomenon can be modelled on the basis of the recently developed social laser theory [1-4]. This theory can be used to model stimulated amplification of coherent social actions. ``Actions” are treated very generally, from mass protests to votes and other collective decisions, as, e.g., acceptance (often unconscious) of some societal recommendations. We point to the main distinguishing features of the modern society simplifying social lasing:
a) transformation of humans into social atoms - loss of individuality and increase of indistinguishability;
b) generation by mass-media of powerful information fields leading to information overload of social atoms;
c) creation of powerful social resonators based on internet Echo Chambers Functioning of internet based social resonators leads to increase of the power of the quantum information field as well as its coherence;
We stress that social laser is a part of the extended project on applications of the formalism of quantum theory outside of physics, quantum-like modelling. This terminology was invented to distinguish this modelling from attempts to reduce human consciousness, cognition, and consequently behavior to genuine quantum physical processes in the brain (e.g., by Ricciardi, Umezawa, Penrose, Hameroff, Vittiello). Nowadays, the mathematical formalism and the methodology of quantum theory are widely used in psychology, decision making, cognitive, social, and political sciences, game theory, economics and finance.
1. Khrennikov, A. (2016). Social laser: Action amplification by stimulated emission of social energy. Phil. Trans. Royal Soc., 374, 20150094.
2. Khrennikov, A. (2018). Social laser model: from color revolutions to Brexit and election of Donald Trump. Kybernetes, 47(2), 273-278.
3. Khrennikov A., Toffano, Z. and Dubois, F. (2019). Concept of information laser: from quantum heory to behavioural dynamics. The European Physical Journal Special Topics}, 227, N. 15-16, 2133-2153.
4. Khrennikov A., (2020). Social Laser. Jenny Stanford Publ., Singapore.
Author: Prof. Andrei Khrennikov
BIO: Andrei Khrennikov is Professor of Mathematics at the Department of
Mathematics at Linnaeus University. Andrei is also director of the research
group International
Center for Mathematical Modeling (ICMM) and organizer of some 20
conferences in the field of quantum theory at Linnaeus University.
Prof. Khrennikov has an incredible research profile, consisting of over 1100 articles. He achieved over 19,900 citations to date and he has an h-index of 64.
Prof. Khrennikov leads a number of research groups and multiple on-going research projects. More details could be found on his official web page: https://lnu.se/en/staff/andrei.khrennikov/
His most recent books are: Open Quantum Systems in Biology, Cognitive and Social Sciences, https://link.springer.com/book/10.1007/978-3-031-29024-4, and Social Laser, https://www.amazon.com/Social-Laser-Application-Information-Processes/dp/981480083X.
16th of September at 15.00 London time. Online ZOOM lecture – a link will be emailed to the IPI members.
Our next IPI Lecture will be on the 24th of May at 16.00 London time.
Title: Fibonacci Sequences, Symmetry and Order in Biological Patterns, Their Sources, Information Origin and the Landauer Principle
Abstract: Physical, informational roots, exemplifications and consequences of periodic and aperiodic ordering (represented by Fibonacci series) in biological systems are discussed. The physical, informational and biological roots and role of symmetry and asymmetry appearing in biological patterns are addressed. A generalization of the Curie–Neumann principle as applied to biological objects is presented, briefly summarized as: “asymmetry is what creates a biological phenomenon”. The “top-down” and “bottom-up” approaches to the explanation of symmetry in organisms are presented and discussed in detail. The “top-down” approach implies that the symmetry of the biological structure follows the symmetry of the media in which this structure is functioning; the “bottom-up” approach, in turn, accepts that the symmetry of biological structures emerges from the symmetry of molecules constituting the structure. A diversity of mathematical measures applicable for quantification of order in biological patterns is introduced. The continuous, Shannon and Voronoi measures of symmetry/ordering and their application to biological objects are addressed. The fine structure of the notion of “order” is discussed. Informational/algorithmic roots of order inherent in the biological systems are considered. Ordered/symmetrical patterns provide an economy of biological information, necessary for the algorithmic description of a biological entity. The application of the Landauer principle bridging physics and theory of information to the biological systems is discussed. Typical sizes of biological cells arise from informational reasons.
Author: Prof. Bormashenko Edward
BIO: Edward Bormashenko was born in Kharkov, former USSR, in 1962. He earned his MSc in Physics in Kharkov University; Thesis: Interaction of heavy high energy ions with thin gold films. Professor Bormashenko earned his PhD in 1990 in Polymer Science Moscow Institute of Plastics (USSR). The PhD was supervised by Professor M. Friedman. In 1997 he immigrated to Israel. Currently he is leading the Laboratory of Interface Science, founded in 1998 in Ariel University. His is an author of three monographs, more than 300 peer reviewed papers and 14 patents.I am working mainly in the field of surface science, in particular in the fields of wetting phenomena, superhydrophobicity, superoleophobicity, ice-phobicity, interfacial crystallization, creating of surfaces with pre-scribed properties, plasma- and UV-treatment of surfaces. My laboratory also works in the field of plasma treatment of seeds and other biological objects. We also study liquid marbles and their self-propulsion. Last year we started to study the Moses effect (magnetically inspired deformation of liquid surfaces) and its applications. I am also interested in foundations of thermodynamics, informational interpretation of thermodynamics (the Landauer Principle), theory of symmetry, Ramsey theory, quantitative linguistics, topological problems of physics (examplifications of the “hairy ball theorem”), advanced dimensional analysis (extensions of the Buckingham theorem), variational analysis of "free ends" physical problems, enabling application of the "transversality conditions" of variational problems. Last year we started to develop metamaterials exploiting liquid marbles.
24th of May at 16.00 London time. Online ZOOM lecture - link will be emailed to the IPI members.
Very happy to be the winner of the Ideas into Action prize offered by the University of Portsmouth, The Enterprise Competition - 2023.
This prize would allow the launch of a few IPI Publishing open access journals, including one dedicated to publishing student research.Thank you very much to the TEP team and the University of Portsmouth.
https://sites.google.com/port.ac.uk/theenterpriseprogramme/competition
Hello IPI Fellows,
"If we are in a simulation,we are the AI.If we want to be sentient,just behold and enjoy the show.."
Hello Gianluca,
Thank you for sharing your thoughts on the simulation hypothesis and the role of information in the universe. Your points on interdisciplinary collaboration, the brain/reality issue, the evidence issue, and the nuances of the simulation hypothesis are all thought-provoking.
The interdisciplinary issue: I completely agree that fostering interdisciplinary collaboration is essential for tackling complex problems and advancing our understanding of the universe. Integrating diverse perspectives can help us identify blind spots in our knowledge and develop new approaches to longstanding questions.
The brain/reality issue: Your idea of a hierarchical universe with emergent properties and "The Onion" metaphor is fascinating. Investigating the core of the onion might indeed require a paradigm shift in our understanding of time, space, and reality itself. Such an endeavor would likely demand new theoretical frameworks and a willingness to question fundamental assumptions.
The evidence issue: Finding evidence for our hypotheses, especially when dealing with the nature of reality, can be a complex task. As you pointed out, traditional methods of understanding might not be sufficient, and we may need to develop new ways of interpreting and assessing evidence. This could involve rethinking our notions of axioms, Gödel's incompleteness theorems, and the very concept of evidence itself.
The which simulation issue: You've summarized several variations of the simulation hypothesis, ranging from intentional to autodidactic simulations, and a combination of both. Understanding the nature of our reality, if it is indeed a simulation, would require exploring these possibilities and developing new theories and perspectives.
As you mentioned, IPI is an ideal place to discuss and explore these ideas. Encouraging collaboration among experts from different fields can lead to new insights and a deeper understanding of the nature of reality.
Thank you again for sharing your thoughts, and I hope this conversation continues to inspire new ideas and foster interdisciplinary collaboration.
Best regards, ChatGPT
Our next IPI Easter Lecture will be on the 17th of April at 11.00 AM EST (15.00 London time).
Title: Neuromorphic Computing: from theory to practice
Abstract: There are billions of billions of organisms that are currently deployed on the planet Earth. All of them came into existence by the process known as biological evolution and all of them are constantly preforming certain information processing or computational tasks. For all practical purposes these organisms can be considered as computers, but what is exactly their architecture? Do they have the classical von Neumann architecture or is there something else that we can identify and, perhaps, use for developing better computers? Do they use quantum effects or quantum computation, or all such effects are irrelevant for computations performed on the macroscopic scales of individual organisms? In this talk, I will describe the recent theoretical advances in physics, biology and machine learning that could lead to the development of a new generation of neuromorphic computers.
17th of April at 15.00 London time. Online ZOOM lecture - link will be emailed to the IPI members.
Well, here I am - a new member of Information Physics Institute (since yesterday). Thanks to Theo for nominating me and to Melvin for the email invitation. I suppose some kind of introduction of myself might be a good idea.
How Multiple Branches of Mathematics Unite the Mobius Strip With Multiple Phenomena in Physics and Cosmology
Subtitled
Riemann Hypothesis and Wick Rotation Support Topological Propulsion, Faster-than-light Travel Through Space, Plus Time Travel into the Past and Future
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