Physics

Un compendiu care se dorește a fi exhaustiv pentru domeniul fizicii, cu accent pe explicarea fenomenelor și aplicațiilor practice. O carte pentru studiul personal, concisă și ușor de citit, care clarifică aceste teorii ale fizicii, cel mai important domeniu al științei pe care se bazează toate celelalte abordări teoretice și explicații ale fenomenelor științifice. ”Lumina” este o introducere în fenomenologia opticii geometrice, fizice și cuantice, și a teoriei culorilor în conexiune cu teoriile fundamentale ale luminii. Despre proprietățile luminii, absorbția și (...) și emisia luminii. ”Fizica atomică și nucleară” abordează, pe lângă cele două enomene din titlu, radioactivitatea, fizica particulelor, fisiunea, fuziunea și energia nucleară. Conținutul oferă o perspectivă modernă a domeniului, simultan cu o retrospectivă istorică a dezvoltării salecu accent pe explicațiile fizice ale fenomenelor, ocurența naturală, măsurare, și utilizarea practică a fenomenelor respective. ”Relativitatea” include cele două mari teorii dezvoltate de Albert Einstein, teoria relativității speciale și relativitatea generală, cu ecuațiile lui Einstein, unde ”spațiu-timpul spune materiei cum să se miște, iar materia spune spațiu-timpului cum să se curbeze.” ”Mecanica cuantică” este o introducere la nivel fenomenologic, cu un aparat matematic minimal, în mecanica cuantică, un ghid pentru cine dorește să înțeleagă cea mai modernă, mai complexă și mai neconformă disciplină fizică, un domeniu care a schimbat fundamental percepțiile oamenilor de știință despre Lume. Ultimele două capitole prezintă cele mai noi descoperiri științifice din domeniul fizicii și problemele rămase încă fără răspuns (”Perspective”), și o introducere în sisteme de măsurare și lucrul cu vectori (”Anexe”). (shrink)

Historically, the hypothesis that our world is a computer simulation has struck many as just another improbable-but-possible “skeptical hypothesis” about the nature of reality. Recently, however, the simulation hypothesis has received significant attention from philosophers, physicists, and the popular press. This is due to the discovery of an epistemic dependency: If we believe that our civilization will one day run many simulations concerning its ancestry, then we should believe that we are probably in an ancestor simulation right now. This essay (...) examines a troubling but underexplored feature of the ancestor-simulation hypothesis: the termination risk posed by both ancestor-simulation technology and experimental probes into whether our world is an ancestor simulation. This essay evaluates the termination risk by using extrapolations from current computing practices and simulation technology. The conclusions, while provisional, have great implications for debates concerning the fundamental nature of reality and the safety of contemporary physics. (shrink)

Research into ancient physical structures, some having been known as the seven wonders of the ancient world, inspired new developments in the early history of mathematics. At the other end of this spectrum of inquiry the research is concerned with the minimum of observations from physical data as exemplified by Eddington's Principle. Current discussions of the interplay between physics and mathematics revive some of this early history of mathematics and offer insight into the fine-structure constant. Arthur Eddington's work leads to (...) a new calculation of the inverse fine-structure constant giving the same approximate value as ancient geometry combined with the golden ratio structure of the hydrogen atom. The hyperbolic function suggested by Alfred Landé leads to another result, involving the Laplace limit of Kepler's equation, with the same approximate value and related to the aforementioned results. The accuracy of these results are consistent with the standard reference. Relationships between the four fundamental coupling constants are also found. (shrink)

Un compendiu care se dorește a fi exhaustiv pentru domeniul fizicii, cu accent pe explicarea fenomenelor și aplicațiilor practice. O carte pentru studiul personal, concisă și ușor de citit, care clarifică aceste teorii ale fizicii, cel mai important domeniu al științei pe care se bazează toate celelalte abordări teoretice și explicații ale fenomenelor științifice. Primele două capitole, Știința” și ”Fizica”, explorează principalele teme și teorii ale științei și filozofiei contemporane a științei în general, și fizicii în particular, evidențiind întrebările fascinante (...) și provocatoare actuale. ”Mecanica” prezintă o privire de ansamblu asupra mecanicii clasice,cu o acoperire a principiilor și tehnicilor fundamentale, un domeniu vechi dar care se află la baza întregii fizicii, și care în ultimii ani a cunoscut o dezvoltare rapidă. Se subliniază principiile de bază fenomenologice, fără a insista pe un formalism excesiv. Capitolul ”Materia” descrie perspectivă contemporană asupra materiei, care ia în considerare toate entităţile ştiinţifice observabile, în funcţie de condiţiile termodinamice precum fi temperatura şi presiunea (solid, lichid, gaz, plasma) și tranziţiile de fază. În ”Căldura” se abordează conceptul de temperatură, și modalități de măsurare, și aplicații practice în inginerie. Un punct de vedere contemporan privind energia, termodinamica și legile ei, cu detalierea celor mai importante principii care o guvernează. Un capitol special este dedicat schimbărilor climatice și încălzirii globale actuale. Capitolul ”Sunetul” explorează lumea sunetelor - cum se generează, se propagă, se percep și se înregistrează sunetele, în natură și în activitatea umană. Informații utile, la nivel fenomenologic, despre vibrații și unde, acustică, și sunete muzicale: caracteristici, descrieri fizice, fenomene specifice. Despre muzică și acustica instrumentelor muzicale. ”Electricitate și magnetism” este o introducere în lumea electromagnetismului, cu ajutorul unui aparat matematic minimal, și cu exemple și aplicații din viața reală. Un domeniu care reprezintă o parte importantă a vieții noastre. Capitolul acoperă toate subiectele introductive standard, respectiv electrostatica, curentul electric, magnetismul, inducția electromagnetică. (shrink)

The aim of this work is, first, to set the basis for a formal model of science, then, it is to show that the laws of physics are its theorems. Necessarily, all formal theories that are the product of science are theorems of our model. As this includes physics, our model is, therefore, its logical foundation. -/- In the first part of the paper we present and investigate a number of desiderata regarding the formal practice of science including definitions and (...) properties previously anticipated in the literature. Then, we present a formal model of science meeting these criteria. -/- We define the domain of the theory of everything in physics as the set of all statements decidable by the practice of science in nature. For each named concept of the previous sentence (theory, physics, statement, decidable, practice of science and nature), we produce a suitable mathematical definition. The central thesis of this work is to show that the laws of physics are a theorem of these definitions; ergo, the laws of physics are formal theorems of science. With this definition, the difficulty of producing a sound axiomatic basis for the domain is reduced to formalizing the practice of science within mathematics and the laws of physics are simply theorems provable in it. -/- Main result: The ideal practice of science consists of constructing a message (in the sense of Shannon's theory of information) of experiments (the elements of the message) constrained by the requirement that its elements are verifiable (provable) within some set of logical resources (the statistical priors of the message). In this context, we define the priors as Nature and we qualify the message as scientific. Nature is thus a general proof checker for experiments, and the World is understood by constructing a maximally informative scientific message. -/- Central thesis: We show that the equation of state regarding the construction of a scientific message bounds nature (the priors) to a cosmology entirely emergent from the entropy of the scientific message. We argue that our model is an axiomatic realization of the (later) participatory universe envisioned by John Archibald Wheeler (the aphorism "it from bit"), in which the "it" and its properties are formally derived from the "bit" which we define as (and only as) the information obtained by practice of science. -/- This derivation of the laws of physics is based only on the practice of science in nature and is thus scientifically irrefutable. (shrink)

Michael Riordan, Lillian Hoddeson and Adrienne W. Kolb, Tunnel Visions: The Rise and Fall of the Superconducting Super Collider (Chicago and London: The University of Chicago Press, 2015), xiii+448 pp.

The Operational Architectonics (OA) of brain-mind functioning is a theory that unifies brain and mind through nested and dynamic hierarchy of electromagnetic brain fields. Recently, it has been enriched by concepts from physics like time, space, entropy, and self-organized criticality. This review paper advances OA theory further by delving into the foundations of quantum physics and Eastern metaphysics in relation to mind function. We aim to show that the brain-mind OA is the boundary between and integration point of quantum physics (...) and Eastern metaphysics, and that it may inspire building a richer and more inclusive paradigm of the brain-mind relation, where quantum physics and Eastern metaphysics are inherently intertwined. (shrink)

In the article, with the help of various models, the thesis on the fundamental nature of the field form of matter in physics is considered. In the first chapter a model of special relativity is constructed, on the basis of which the priority of the massless form of matter is revealed. In the second chapter, a field model of inert and heavy mass is constructed and on this basis the mechanism of inertia and gravity of weighty bodies is revealed. In (...) the third chapter, the example of geons shows the fundamental nature of a massless form of matter on the Planck scale. The three-dimensionality of the observable space is substantiated. In the fourth chapter, we consider a variant of solving the problem of singularities in general relativity using the example of multidimensional spaces. The last chapter examines the author's approach to quantum gravity. The conclusions do not contradict the main thesis of the article on the fundamental nature of the massless form of matter. We emphasize the qualitative nature of the presentation of the material in the article. (shrink)

The aim of the present article is to consider the shortcomings of the physicalist rainfall example set forth by Aristotle in Physics II.8. I first outline the ancient physicalist account of the coming-to-be of natural organisms and the accompanying rejection of the teleological character of such processes. Then I examine the rainfall example itself. The fundamental difficulty is that rainfall does not appear to have a proper nature. Hence it is not natural in the strict sense and cannot be used (...) in arguments either for or against natural teleology. Rainfall can at most have an end in a weak sense, which makes it inadequate as a paradigm. Furthermore, the physicalist conception of action for an end is itself flawed. I argue that they construe it anthropomorphically and falsely presuppose a symmetry between coming-to-be and ceasing-to-be. I would like to thank Hasse Hamalainen and Marcin Karas for looking at earlier drafts of this paper. I am also especially grateful for the numerous remarks and suggestions of three anonymous referees. (shrink)

With the help of syncretiсs as a new philosophical logic, the philosophy of carriers, the theory of similarity and the theory of Infinite Hierarchical Nesting of Matter, the problems of modern physics are analyzed. We consider the classical and relativistic mechanics, the special and general theories of relativity, the theory of electromagnetic and gravitational fields, of weak and strong interactions. The goal is axiomatization of these theories, building models of elementary particles and of their interactions with each other. The main (...) obtained results are: the model of bead lightning; an explanation of redshift of the spectra of galaxies; the derivation of the Newton law in the concept of gravitons; the calculation of nuclear forces and the structure of simplest nuclei with the help of the theory of strong gravitation; building the model of weak interactions of elementary particles; presentation of quarks as a particular type of quasiparticles; explanation of the electron spin. The book should be useful for students and researchers, as well as for those interested in physical and philosophical problems. Tables 20. Fig. 30. Ref. 155 titles. (shrink)

In classical electrodynamics, electromagnetic effects are calculated from solution of wave equation formed by combination of four Maxwell’s equations. However, along with retarded solution, this wave equation admits advanced solution in which case the effect happens before the cause. So, to preserve causality in natural events, the retarded solution is intentionally chosen and the advance part is just ignored. But, an equation or method cannot be called fundamental if it admits a wrong result (that violates principle of causality) in addition (...) to the correct result. Since it is the Maxwell’s form of equations that gives birth to this acausal advanced potential, we rewrite these equations in a different form using the recent theory of reaction at a distance (Biswaranjan Dikshit, Physics essays, 24(1), 4-9, 2011) so that the process of calculation does not generate any advanced effects. Thus, the long-standing causality problem in electrodynamics is solved. (shrink)

Consistent with special relativity and statistical physics, here we construct a partition function of space-time events. The union of these two theories resolves longstanding problems in regards to time. It augments the standard description of time given by the (non-relativistic) arrow of time to one able to show the emergence of three macroscopic regimes of time: the past, the present, and the future, represented by space-like entropy, light-like entropy, and time-like entropy, respectively, and in a manner consistent with our experience (...) of said regimes. First, using Fermi-Dirac statistics, we find that the system essentially describes a "waterfall" of space-time events. This "waterfall" recedes in space-time at the speed of light towards the direction of the future as it "floods" local space with events. Furthermore, an observer O will perceive two horizons that can be interpreted as hiding events behind it. The first is an event horizon, and its entropy hides events in the regions that O cannot see. The second is a time horizon, and its entropy "shields" events from O's causal influence. As only past events are "shielded", and not future events, an asymmetry in time is thus created. (shrink)

Background. Drawing on social identity theory and positive psychology, this study investigated women’s responses to the social environment of physics classrooms. It also investigated STEM identity and gender disparities on academic achievement and flourishing in an undergraduate introductory physics course for STEM majors. 160 undergraduate students enrolled in an introductory physics course were administered a baseline survey with self-report measures on course belonging, physics identification, flourishing, and demographics at the beginning of the course and a post-survey at the end of (...) the academic term. Students also completed force concept inventories and physics course grades were obtained from the registrar. Results. Women reported less course belonging and less physics identification than men. Physics identification and grades evidenced a longitudinal bidirectional relationship for all students (regardless of gender) such that when controlling for baseline physics knowledge: (a) students with higher physics identification were more likely to earn higher grades; and (b) students with higher grades evidenced more physics identification at the end of the term. Men scored higher on the force concept inventory than women, although no gender disparities emerged for course grades. For women, higher physics (versus lower) identification was associated with more positive changes in flourishing over the course of the term. High-identifying men showed the opposite pattern: negative change in flourishing was more strongly associated with high identifiers than low identifiers. Conclusions. Overall, this study underlines gender disparities in physics both in terms of belonging and physics knowledge. It suggests that strong STEM identity may be associated with academic performance and flourishing in undergraduate physics courses at the end of the term, particularly for women. A number of avenues for future research are discussed. (shrink)

In their recent book Every Thing Must Go, Ladyman and Ross claim: (i) Physics is analytically complete since it is the only science that cannot be left incomplete. (ii) There might not be an ontologically fundamental level. (iii) We should not admit anything into our ontology unless it has explanatory and predictive utility. In this discussion note I aim to show that the ontological commitment in implies that the completeness of no science can be achieved where no fundamental level exists. (...) Therefore, if claim requires a science to actually be complete in order to be considered as physics,, and if Ladyman and Ross's “tentative metaphysical hypothesis ... that there is no fundamental level” is true,, then there simply is no physics. Ladyman and Ross can, however, avoid this unwanted result if they merely require physics to ever strive for completeness rather than to already be complete. (shrink)

The standard model of subatomic particles and the periodic table of the atoms have the common goal to bring order in the bewildering chaos of the constituents of matter. Their success relies on the presence of fundamental symmetries in their core. The purpose of the book is to share the admiration for the power and the beauty of these symmetries. The reader is taken on a journey from the basic geometric symmetry group of a circle to the sublime dynamic symmetries (...) that govern the motions of the particles. The trail follows the lines of parentage linking groups upstream to the unitary symmetry of the eightfold way of quarks, and to the four-dimensional symmetry of the hydrogen atom. Along the way the theory of symmetry groups is gradually introduced with special emphasis on graphical representations. The final challenge is to open up the structure of Mendeleev's table which goes beyond the symmetry of the hydrogen atom. Breaking this symmetry to accommodate the multi-electron atoms requires to leave the common ground of linear algebras and explore the potential of non-linearity. (shrink)

In this paper I discuss the delayed choice quantum eraser experiment by giving a straightforward account in standard quantum mechanics. At first glance, the experiment suggests that measurements on one part of an entangled photon pair can be employed to control whether the measurement outcome of the other part of the photon pair produces interference fringes at a screen after being sent through a double slit. Significantly, the choice whether there is interference or not can be made long after the (...) signal photon encounters the screen. The results of the experiment have been alleged to invoke some sort of 'backwards in time influences'. I argue that in the standard collapse interpretation the issue can be eliminated by taking into account the collapse of the overall entangled state due to the signal photon. Likewise, in the de Broglie-Bohm picture the particle's trajectories can be given a well-defined description at any instant of time during the experiment. Thus, there is no need to resort to any kind of 'backwards in time influence'. As a matter of fact, the delayed choice quantum eraser experiment turns out to resemble a Bell-type measurement, and so there really is no mystery. (shrink)

I propose a method to derive the familiar laws of physics from algorithmic information theory (AIT). Specifically, I introduce the notion of a proven computing reserve and I use it to connect AIT to physics.

This contributed volume is the result of a July 2010 workshop at the University of Wuppertal Interdisciplinary Centre for Science and Technology Studies which brought together world-wide experts from physics, philosophy and history, in order to address a set of questions first posed in the 1950s: How do we compare spacetime theories? How do we judge, objectively, which is the “best” theory? Is there even a unique answer to this question? -/- The goal of the workshop, and of this book, (...) is to contribute to the development of a meta-theory of spacetime theories. Such a meta-theory would reveal insights about specific spacetime theories by distilling their essential similarities and differences, deliver a framework for a class of theories that could be helpful as a blueprint to build other meta-theories, and provide a higher level viewpoint for judging which theory most accurately describes nature. But rather than drawing a map in broad strokes, the focus is on particularly rich regions in the “space of spacetime theories.” -/- This work will be of interest to physicists, as well as philosophers and historians of science working with or interested in General Relativity and/or Space, Time and Gravitation more generally. (shrink)

The mind of man is central to the structure and functioning of the physical world. Modern physical theory indicates that the mind stands in a relationship of equals to the physical world. Both are fundamental, neither can be reduced to the other, and both require each other for their full understanding. This thesis is at odds with the view of the universe found in Newtonian mechanics as well as the generally held view among contemporary physicists of modern physical theory. Since (...) the Renaissance, man has come to understand a great deal about the physical world, and he has gained significant control over it. This increased power over the physical world has occurred hand in hand with the assumption that the structure and functioning of the physical world is essentially independent from his cognitive functioning. According to this assumption, if man’s cognitive capacity did not exist, the functioning of the physical world would not be fundamentally altered. This last statement is not in fact correct, and modern physical theory, and even fundamentals underlying Newtonian mechanics, provide evidence to attest to this. Nonetheless, contemporary physicists for the most part do not see that the relationship of human cognition to the physical world is radically altered in their own modern theory, theory that is supported by a great deal of empirical data. Instead, attempting to preserve the thesis that the structure and functioning of the physical world is independent of the mind while on a practical level relying on modern theory that contradicts this thesis, physicists have placed themselves in the position of wondering at times exactly what is the nature of the physical world at the same time they obtain experimental results concerning the physical world that can only be labeled astonishing in their precision and the scope of their implications. Modern physical theory consists of three main components: 1) the special and general theories of relativity; 2) quantum mechanics; and 3) statistical mechanics. There are very successful theories that have been developed on the basis of these three bedrock areas. An example of one is quantum electrodynamics. But these theories owe their conceptual foundation to the three components mentioned. The basic issues at the core of these three components also are expressed in these later theories. In addition, there are new unresolved issues of a fundamental nature concerning the conceptual integrity of these later theories that do not apply to quantum mechanics, relativity theory, and statistical mechanics. Quantum mechanics and relativity theory are areas I have written about for over twelve years. The nature of statistical mechanics has also been of interest to me during this time. But when I took a serious look in 1993 at Tolman’s (1938) The Principles of Statistical Mechanics, it became clear that the mind is linked to the physical world in statistical mechanics, a relationship I had found earlier in both relativity theory and quantum mechanics. It was after reading Tolman’s justification of the method of statistical mechanics in the original that I decided to write this book. When I found that the three components of modern physical theory all pointed to the same relationship between mind and the physical world, it became clear that the fundamental isolation of the mind from the physical world that has characterized our experience since the development of Newtonian mechanics is unfounded. Based on empirically supported principles of modern physical theory, I determined that the appropriate assumption for one’s experience, that the mind is linked to the physical world, could be stated with confidence. The impact of this change in assumption concerning the relationship of man to the cosmos in modern physical theory will find its way into our everyday experience. It will perhaps have no greater effect than in reducing the sense of isolation of man from the world that has characterized modern existence. (shrink)

Rutherford’s α-particles scattering experiment was one of the milestone for the physics community as it provided an insight to an atom thus discarding the previously prevailed Thomson’s model. Through this article we shall examine the theoretical formulation of Rutherford’s experiment and how it helped to shape the modern physics.

Microorganisms demonstrate conscious-like intelligent behaviour, and this form of consciousness may have emerged from a quantum mediated mechanism as observed in cytoskeletal structures like the microtubules present in nerve cells whichapparently have the architecture to quantum compute. This paper hypothesises the emergence of proto-consciousness in primitivecytoskeletal systems found in the microbial kingdoms of archaea, bacteria and eukarya. To explain this, we make use of the Subject–Object Model (SOM) of consciousness which evaluates the rise of the degree of consciousness to conscious (...) behaviourin these systems supporting the hypothesis of emergence and propagation of conscious behaviour during the pre-Cambrian partof Earth’s evolutionary history. Consciousness as proto-consciousness or sentience computed via primitive cytoskeletal structures substantiates as a driver for the intelligence observed in the microbial world during this period ranging from single-cellular to collective intelligence as a means to adapt and survive. The growth in complexity of intelligence, cytoskeletal system and adaptive behaviours are key to evolution, and thus supports the progression of the Lamarckian theory of evolution driven by quantum mediated proto-consciousness to consciousness as described in the SOM of consciousness. (shrink)

I pedagogically show that the momentum operator in quantum mechanics, in the position representation, commonly known to be a derivative with respect to a spatial x-coordinate, can be derived by identifying momentum as the generator of space translations.

This document is a set of notes I took on QFT as a graduate student at the University of Pennsylvania, mainly inspired in lectures by Burt Ovrut, but also working through Peskin and Schroeder (1995), as well as David Tong’s lecture notes available online. They take a slow pedagogical approach to introducing classical field theory, Noether’s theorem, the principles of quantum mechanics, scattering theory, and culminating in the derivation of Feynman diagrams.

This thesis is a work of experimental physics, a search for new physics with the ATLAS experiment. I post this thesis on the PhilArchive because it includes a pedagogical summary of quantum mechanics and the standard model of particle physics in the combination of chapters 1-2 and appendix A. This was my attempt at the end of my PhD of giving a bird's eye view of the standard model, with a thorough bibliography of the publication trail that lead to its (...) development. I find myself pointing to it at philosophy conferences. // -/- This thesis presents a review of work on the performance of the reconstruction and identification of hadronic tau decays and studies of events reconstructed with a ditau final state with the ATLAS detector at the Large Hadron Collider. The first cut-based tau identification used with ATLAS data and the first observations of W→τν and Z→ττ at ATLAS are described, as well as many of the issues concerning the calibration and systematic uncertainties of reconstructed taus. The first measurement of the Z→ττ cross section at ATLAS with 2010 dataset is reviewed. Last, results are presented from the first search for high-mass resonances decaying to ττ at ATLAS with the 2011 dataset. (shrink)

We present a simple model of cosmology inspired by a cycle of statistical physics involving the age, the size and the entropy of the system. The model is formalized in statistical physics by the introduction of a micro-state q defined only with a time quantity t(q) and a position quantity x(q). In this representation, many of the laws of classical physics (inertia, special relativity, general relativity, and dark energy) are emergent as entropic laws and are associated to the thermodynamic trade-offs (...) between the age and size of the system. The representation also produces an emergent arrow of time which, when acting on these laws, enforces the cosmological horizons that bound the observable universe by abruptly limiting the occupancy rate of the micro-states beyond them. (shrink)

Black holes are one of the fascinating objects in the universe with gravitational pull strong enough to capture light within them. Through this article we have attempted to provide an insight to the black holes, on their formation and theoretical developments that made them one of the unsolved mysteries of universe.

This article provides a brief outline of Special Theory of Relativity. The physics before the relativity, the special relativity in itself, and the consequences of special relativity are discussed here.

We report a mathematical construction that is autological, universal and tautological. The autological property allows the derivation of the laws of physics from the construction, while the other two properties explain why the construction is universally and necessarily applicable to the world. The construction can explain the World at its most fundamental level up to and including the derivation of the familiar laws of physics. It is formulated as a statistical ensemble of feasible mathematics (an algorithmic information theory analog to (...) statistical physics) and its domain is the set of all analytical statements of logic ---here they take the role of the permissible facts of the world. The familiar laws of physics are emergent from the ensemble as entropic laws; this includes special relativity, general relativity, dark energy, the Schrödinger equation, the Dirac equation, quantum field theory, the speed of light as a maximal speed, and the space-time background. Furthermore, the construction provides tentative solutions in regard to the quantum measurement problem, the unification of physics and the arrow of time. In this context, the laws of physics are interpreted as the limits applicable to the feasible verification of the elements of the set of all analytical facts (they limit the actual facts of the world). The scope is universal (applies to the whole world), it is constructed tautologically (is irrefutable) and it is autological (allows the derivation of the laws of physics) ---thus, it is a tentative final theory. (shrink)

After a brief review of the golden ratio in history and our previous exposition of the fine-structure constant and equations with the exponential function, the fine-structure constant is studied in the context of other research calculating the fine-structure constant from the golden ratio geometry of the hydrogen atom. This research is extended and the fine-structure constant is then calculated in powers of the golden ratio to an accuracy consistent with the most recent publications. The mathematical constants associated with the golden (...) ratio are also involved in both the calculation of the fine-structure constant and the proton-electron mass ratio. These constants are included in symbolic geometry of historical relevance in the science of the ancients. (shrink)

Analogy in science knew its successes and failures, as illustrated by examples from the eighteenth-century physics. At times, some scientists abstained from using a certain analogy on the ground that it had not yet been demonstrated. Several false discoveries in the 18th and early 19th centuries appeared to support their caution. It is now clear that such a position reflected a methodological confusion that resulted from a failure to distinguish between particular and general analogies. Considering analogy as a hierarchical structure (...) provides a new insight into 'testing an analogy'. While warning science teachers of dangers associated with use of analogy, historical cases and their analysis provided here may encourage them to use analogy more extensively while avoiding misconceptions. An argument is made that the history of science may be a better guide than philosophy of science and cognitive psychology when it concerns the role of analogy in science and in teaching science for understanding. (shrink)

This paper discusses a way of introducing a scientific controversy, which emphasizes objective aspects of such issues as multiple theoretical interpretation of phenomena, choosing a theory, insistence on the chosen theory, and others. The goal is to give students a better insight into the workings of science and provide guidelines for building theories in their own research.

Current day Physics and Science in general are based on a computational quantitative-reductionist approach that even though highly successful, they not only still leave consciousness out, but they don’t appear to offer any key of how consciousness is even supposed to be integrated into the current scientific establishment. This delay of integrating consciousness into Science starts to suggest that the current approaches might not be the most suitable tools of tackling consciousness. Therefore, in this paper, an approach that would be (...) in contrast to current Science, but ending by subsuming it, would be employed in analyzing consciousness. Consciousness would be shown to be an emergent phenomenon that would show a consistent structure throughout, and in this structure, suggestions for integrating current Physics would be made. (shrink)

Current day Physics and Science in general are based on a computational quantitative-reductionist approach that even though highly successful, they not only still leave consciousness out, but they don’t appear to offer any key of how consciousness is even supposed to be integrated into the current scientific establishment. This delay of integrating consciousness into Science starts to suggest that the current approaches might not be the most suitable tools of tackling consciousness. Therefore, in this paper, an approach that would be (...) in contrast to current Science, but ending by subsuming it, would be employed in analyzing consciousness. Consciousness would be shown to be an emergent phenomenon that would show a consistent structure throughout, and in this structure, suggestions for integrating current Physics would be made. (shrink)

THE PHENOMENOLOGICAL ESSENCE OF RELATIVITY. MATTERS CONCERNING THE BORDER BETWEEN HUSSERL AND EINSTEIN According to Hermann Weyl, Einstein’s Relativity Theory is a method that combines “analysis of essence” and “mathematical construction”. From this point of view, in this article I try to establish a parallelism between the formulation of Einstein’s Theory of Relativity and Husserl’s Phenomenology based on the comparison of the original texts and manuscripts. From this analysis, e.g. the conception of the gravitational field, as important result of the (...) General Relativity Theory, seems to be nothing else but a new type of “essence”, a phenomenological essence, in an environing objective world that is the “world‐of‐life”. In this world, pre‐ scientific world of the everyday life experience, the reality is given us as a relativistic reality dependent on the subjective activity of the individual knowers. On the basis of the consciousness data, we reconstruct the real and objective world of experience as starting point for every mathematical and physical construction of the world comprehension. This study seeks to present a convincing case both that Husserlian phenomenology influenced 20th Century natural science in an important way. (shrink)

According to Roy Sorensen, when one looks at the Moon, during a solar eclipse, what she sees is its inner part of the farther, reflective one, and not the always-facing-Earth side of our natural satellite. To make his point clearer, he put forward the famous example of a double eclipse involving the fictional planets Far and Near. From the observer’s vantage point, the two planets have the same apparent diameter and overlap. What the agent sees is a dark disk, but (...) believes that what she is seeing is Near, because Far is behind it. Sorensen claims that what she actually sees is planet Far and that the causal theory of perception explains why this is the case. Of course, this position stands against common sense. Sorensen shows that it counters Alvin Goldman’s renowned observation criteria too. Nonetheless, he maintains, since Near is causally idle and the agent does see something, the only possible conclusion is that she sees Far, pace Goldman – and common sense. In this paper, I try to demonstrate that Sorensen is wrong and that the correct solution to the eclipse riddle is that the observer sees Near. As a matter of fact, besides meeting common sense and Goldman’s observability criteria, Near can be legitimately be considered the object of a successful perceptual discrimination even in the light of the causal theory of perception. (shrink)

Remarkable advances in cold fusion, known also as LENR, raised the hope for a safer and cheaper nuclear energy. The results, however, cannot be explained from the point of view of current physical understanding of nuclear fusion. This is an obstacle for research investment in this field. The present book suggests a new approach for analysis of the experimental results and practical recommendations based on the models of atomic nuclei derived in the BSM-Supergravitation Unified theory (BSM-SG). The book provides: (1) (...) a method for analysis of the LENR experiments using the BSM-SG atomic models; (b) a selection of isotopes suitable for a more efficient energy yield with a minimum of radioactive byproducts; (c) practical considerations for selection of the technical method and the reaction environment. (shrink)

The Simulation Hypothesis proposes that all of reality, including the earth and the universe, is in fact an artificial simulation, analogous to a computer simulation, and as such our reality is an illusion. In this essay I describe a method for programming mass, length, time and charge (MLTA) as geometrical objects derived from the formula for a virtual electron; $f_e = 4\pi^2r^3$ ($r = 2^6 3 \pi^2 \alpha \Omega^5$) where the fine structure constant $\alpha$ = 137.03599... and $\Omega$ = 2.00713494... (...) are mathematical constants and the MLTA geometries are; M = (1), T = ($2\pi$), L = ($2\pi^2\Omega^2$), A = ($4\pi \Omega)^3/\alpha$. As objects they are independent of any set of units and also of any numbering system, terrestrial or alien. As the geometries are interrelated according to $f_e$, we can replace designations such as ($kg, m, s, A$) with a rule set; mass = $u^{15}$, length = $u^{-13}$, time = $u^{-30}$, ampere = $u^{3}$. The formula $f_e$ is unit-less ($u^0$) and combines these geometries in the following ratio M$^9$T$^{11}$/L$^{15}$ and (AL)$^3$/T, as such these ratio are unit-less. To translate MLTA to their respective SI Planck units requires an additional 2 unit-dependent scalars. We may thereby derive the CODATA 2014 physical constants via the 2 (fixed) mathematical constants ($\alpha, \Omega$), 2 dimensioned scalars and the rule set $u$. As all constants can be defined geometrically, the least precise constants ($G, h, e, m_e, k_B$...) can also be solved via the most precise ($c, \mu_0, R_\infty, \alpha$), numerical precision then limited by the precision of the fine structure constant $\alpha$. (shrink)

Haec tractatio est responsio critica ad tractationem Ludovici Groarke, titulo “Orbitae ellipticae, possintne Aristotelice explicari?”, necnon ad commentationem Jacobi Franklin, cui titulus “De orbitis ellipticis ac Aristotelica revolutione scientifica”. Auctor imprimis ostendit explanationem “Aristotelicam” orbitarum ellipticarum a L. Groarke propositam non solum analysi Newtonianae repugnare, sed etiam in se esse incohaerentem. Porro auctor alia L. Groarke proposita impugnat: scil. nostri temporis physicam mathematicam esse essentialiter Platonicam, item Newtonianam orbitarum ellipticarum explicationem assymetriam prae se ferre inexplicabilem. Auctor e contra arguit, textibus (...) nonnulis S. Thomae Aquinatis innixus, physicam modernam, mathematica sui methodo non exclusa, realisticae epistemologiae Aristotelicae esse congruam, immo pure Aristotelice intelligi posse. Auctor tamen reicit quod J. Franklin insinuat, scil. physicam modernam nunc Aristotelicae philosophiae naturalis explere munia. Physica mathematica enim, methodo sua constricta, quaestiones genuine philosophicas movere non potest, ac proinde philosophiae naturalis vice fungi nequit.This discussion article is a critical reaction to L. Groarke’s paper “Can Aristotelianism Make Sense of Perihelion–Aphelion Orbits?” and J. Franklin’s comment “Elliptical Orbits and the Aristotelian Scientific Revolution”. In the first place, the author shows that Groarke’s proposed “Aristotelian” explanation of elliptical planetary orbits is inconsistent both in itself and with the Newtonian analysis. Furthermore, he challenges Groarke’s claims that modern mathematical physics is inherently Platonic and that the Newtonian explication of elliptical orbits involves unexplained assymmetries. With the help of several Aquinas’s texts the author argues that modern physics, including its maths-driven methodology, is not incompatible with Aristotelian realist epistemology but can be interpreted in a purely Aristotelian vein. On the other hand, the author rejects the view implied by Franklin that modern physics is an up-to-date replacement of Aristotelian philosophy of nature. Due to its methodological limits, mathematical physics is incapable of asking genuinely philosophical questions concerning the essence of bodies, and so it cannot be expected to do the job of natural philosophy. (shrink)