Foundations of Relational Realism presents an intuitive interpretation of quantum mechanics, based on a revised decoherent histories interpretation, structured within a category theoretic topological formalism. -/- If there is a central conceptual framework that has reliably borne the weight of modern physics as it ascends into the twenty-first century, it is the framework of quantum mechanics. Because of its enduring stability in experimental application, physics has today reached heights that not only inspire wonder, but arguably exceed the limits of intuitive (...) vision, if not intuitive comprehension. For many physicists and philosophers, however, the currently fashionable tendency toward exotic interpretation of the theoretical formalism is recognized not as a mark of ascent for the tower of physics, but rather an indicator of sway—one that must be dampened rather than encouraged if practical progress is to continue. -/- In this unique two-part volume, designed to be comprehensible to both specialists and non-specialists, the authors chart out a pathway forward by identifying the central deficiency in most interpretations of quantum mechanics: That in its conventional, metrical depiction of extension, inherited from the Enlightenment, objects are characterized as fundamental to relations—i.e., such that relations presuppose objects but objects do not presuppose relations. The authors, by contrast, argue that quantum mechanics exemplifies the fact that physical extensiveness is fundamentally topological rather than metrical, with its proper logico-mathematical framework being category theoretic rather than set theoretic. -/- By this thesis, extensiveness fundamentally entails not only relations of objects, but also relations of relations. Thus, the fundamental quanta of quantum physics are properly defined as units of logico-physical relation rather than merely units of physical relata as is the current convention. Objects are always understood as relata, and likewise relations are always understood objectively. In this way, objects and relations are coherently defined as mutually implicative. The conventional notion of a history as “a story about fundamental objects” is thereby reversed, such that the classical “objects” become the story by which we understand physical systems that are fundamentally histories of quantum events. -/- These are just a few of the novel critical claims explored in this volume—claims whose exemplification in quantum mechanics will, the authors argue, serve more broadly as foundational principles for the philosophy of nature as it evolves through the twenty-first century and beyond. (shrink)

The overwhelming majority of the attempts in exploring the problems related to quantum logical structures and their interpretation have been based on an underlying set-theoretic syntactic language. We propose a transition in the involved syntactic language to tackle these problems from the set-theoretic to the category-theoretic mode, together with a study of the consequent semantic transition in the logical interpretation of quantum event structures. In the present work, this is realized by representing categorically the global structure of a quantum algebra (...) of events (or propositions) in terms of sheaves of local Boolean frames forming Boolean localization functors. The category of sheaves is a topos providing the possibility of applying the powerful logical classification methodology of topos theory with reference to the quantum world. In particular, we show that the topos-theoretic representation scheme of quantum event algebras by means of Boolean localization functors incorporates an object of truth values, which constitutes the appropriate tool for the definition of quantum truth-value assignments to propositions describing the behavior of quantum systems. Effectively, this scheme induces a revised realist account of truth in the quantum domain of discourse. We also include an Appendix, where we compare our topos-theoretic representation scheme of quantum event algebras with other categorial and topos-theoretic approaches. (shrink)

This unique book provides a self-contained conceptual and technical introduction to the theory of differential sheaves. This serves both the newcomer and the experienced researcher in undertaking a background-independent, natural and relational approach to "physical geometry". In this manner, this book is situated at the crossroads between the foundations of mathematical analysis with a view toward differential geometry and the foundations of theoretical physics with a view toward quantum mechanics and quantum gravity. The unifying thread is provided by the theory (...) of adjoint functors in category theory and the elucidation of the concepts of sheaf theory and homological algebra in relation to the description and analysis of dynamically constituted physical geometric spectrums. (shrink)

This volume develops a fundamentally different categorical framework for conceptualizing time and reality. The actual taking place of reality is conceived as a “constellatory self-unfolding” characterized by strong self-referentiality and occurring in the primordial form of time, the not yet sequentially structured “time-space of the present.” Concomitantly, both the sequentially ordered aspect of time and the factual aspect of reality appear as emergent phenomena that come into being only after reality has actually taken place. In this new framework, time functions (...) as an ontophainetic [H1] platform, i.e., as the stage on which reality can first occur. Events are merely the “tracks” that the actual taking place of reality leaves behind on the co-emergent “canvas’’ of local spacetime. -/- The view of time proposed here is particularly relevant to the recent debate over the “ER=EPR” conjecture targeting the relation between quantum physics and general relativity theory. The novelty of this radically different framework is that it allows quantum reduction and singularities to be addressed as inverse transitions into and out of the factual layer of reality: In quantum physical state reduction, reality “gains” the chrono-ontological format of facticity, and the sequential aspect of time becomes applicable. In singularities, by contrast, the opposite happens: Reality loses its local spacetime formation and reverts back to its primordial, pre-local shape – making the use of causality relations, Boolean logic and the dichotomization of subject and object obsolete in the process. -/- For our understanding of the relation between quantum and relativistic physics, this new view opens up fundamentally new perspectives: Both are legitimate views of time and reality; they simply address very different chrono-ontological portraits, and thus should not lead us to erroneously prefer one view over the other. -/- The task of the book is to provide a formal framework in which this radically different view of time and reality can be suitably addressed. The mathematical approach is based on the logical and topological features of the Borromean Rings, and draws upon concepts and methods from algebraic and geometric topology – especially the theory of sheaves and links, group theory, logic and information theory in relation to the standard constructions employed in quantum mechanics and general relativity, shedding new light on the problems of their compatibility. The intended audience includes physicists, mathematicians and philosophers with an interest in the conceptual and mathematical foundations of modern physics. (shrink)

Mit ihrer Studie liefert Maria Daskalaki eine systematische Rekonstruktion des Vernunftbegriffs in Hegels "Phänomenologie des Geistes", die der Absicht des Philosophen gerecht wird, den Gegensatz bzw. die Antinomie als die unüberschreitbare Grenze der Philosophie zu überwinden. Insofern widerspricht sie nachdrücklich weit verbreiteten Interpretationen der "Phänomenologie", in denen die Einheit und logische Argumentationsstruktur des Werkes in Frage gestellt wird. Die Autorin stellt sich die anspruchsvolle Aufgabe, die Übergänge zwischen den Gestalten des Bewusstseins ohne Anlehnung auf ein dogmatisch angenommenes philosophisches Prinzip nachzuvollziehen. (...) Deswegen setzt sie bei den „natürlichen Bestimmungen“ des Bewusstseins an, wie sie Hegel selbst in der Einleitung festlegt. In ihrer Studie verfolgt sie detailliert die Gestalten des Bewusstseins bis zum Vernunftkapitel und führt die These einer Bewegung von der Substanz zum Subjekt und umgekehrt ein, die alle Gestalten des Bewusstseins durchdringt. Anhand dieser These wird der Versuch Hegels – im Unterschied zu Kant und Fichte – beleuchtet, den Dualismus zu überwinden und die tiefere Einheit zwischen Denken und Sein zu begründen, ohne auf irrationale Mittel zurückzugreifen. Durch ihren innovativen Interpretationsvorschlag zeigt die Autorin überzeugend die Einheit und logische Stringenz der Hegelschen Vernunftbegründung in der "Phänomenologie" auf. (shrink)

Though still viewed as the missing link between recruitment and retention, organisational induction programmes have recently acquired a new function: they can mould the new employee by inducing a positive "first impression" about the organisation and presenting a "caring" company image. Up to now, however, the majority of the induction literature has failed to refer to the political and ethical aspects of this process and analyse the embedded ideological structures and cultural practices through which induction trainers and newcomers construct, reconstruct (...) and deconstruct induction discourses and 'management language'. This paper argues that induction should be treated as a part of an organisational cosmos that is constantly created and re-created, defined and re-defined based on the discursive interactions of its increasingly "sophisticated‟ subjects. (shrink)

Homologous operational localization processes are effectuated in terms of generalized topological covering systems on structures of physical events. We study localization systems of quantum events' structures by means of Gtothendieck topologies on the base category of Boolean events' algebras. We show that a quantum events algebra is represented by means of a Grothendieck sheaf-theoretic fibred structure, with respect to the global partial order of quantum events' fibres over the base category of local Boolean frames.

Rosen's modelling relations constitute a conceptual schema for the understanding of the bidirectional process of correspondence between natural systems and formal symbolic systems. The notion of formal systems used in this study refers to information structures constructed as algebraic rings of observable attributes of natural systems, in which the notion of observable signifies a physical attribute that, in principle, can be measured. Due to the fact that modelling relations are bidirectional by construction, they admit a precise categorical formulation in terms (...) of the category-theoretic syntactic language of adjoint functors, representing the inverse processes of information encoding/decoding via adjunctions. As an application, we construct a topological modelling schema of complex systems. The crucial distinguishing requirement between simple and complex systems in this schema is reflected with respect to their rings of observables by the property of global commutativity. The global information structure representing the behaviour of a complex system is modelled functorially in terms of its spectrum functor. An exact modelling relation is obtained by means of a complex encoding/decoding adjunction restricted to an equivalence between the category of complex information structures and the category of sheaves over a base category of partial or local information carriers equipped with an appropriate topology. (shrink)

We construct a sheaf-theoretic representation of quantum probabilistic structures, in terms of covering systems of Boolean measure algebras. These systems coordinatize quantum states by means of Boolean coefficients, interpreted as Boolean localization measures. The representation is based on the existence of a pair of adjoint functors between the category of presheaves of Boolean measure algebras and the category of quantum measure algebras. The sheaf-theoretic semantic transition of quantum structures shifts their physical significance from the orthoposet axiomatization at the level of (...) events, to the sheaf-theoretic gluing conditions at the level of Boolean localization systems. (shrink)

The existence of singularities alerts that one of the highest priorities of a centennial perspective on general relativity should be a careful re-thinking of the validity domain of Einstein’s field equations. We address the problem of constructing distinguishable extensions of the smooth spacetime manifold model, which can incorporate singularities, while retaining the form of the field equations. The sheaf-theoretic formulation of this problem is tantamount to extending the algebra sheaf of smooth functions to a distribution-like algebra sheaf in which the (...) former may be embedded, satisfying the pertinent cohomological conditions required for the coordinatization of all of the tensorial physical quantities, such that the form of the field equations is preserved. We present in detail the construction of these distribution-like algebra sheaves in terms of residue classes of sequences of smooth functions modulo the information of singular loci encoded in suitable ideals. Finally, we consider the application of these distribution-like solution sheaves in geometrodynamics by modeling topologically-circular boundaries of singular loci in three-dimensional space in terms of topological links. It turns out that the Borromean link represents higher order wormhole solutions. (shrink)

Using the concept of adjunction, for the comprehension of the structure of a complex system, developed in Part I, we introduce the notion of covering systems consisting of partially or locally defined adequately understood objects. This notion incorporates the necessary and sufficient conditions for a sheaf theoretical representation of the informational content included in the structure of a complex system in terms of localization systems. Furthermore, it accommodates a formulation of an invariance property of information communication concerning the analysis of (...) a complex system. (shrink)

We propose a sheaf-theoretic framework for the representation of a quantum observable structure in terms of Boolean information sieves. The algebraic representation of a quantum observable structure in the relational local terms of sheaf theory effectuates a semantic transition from the axiomatic set-theoretic context of orthocomplemented partially ordered sets, la Birkhoff and Von Neumann, to the categorical topos-theoretic context of Boolean information sieves, la Grothendieck. The representation schema is based on the existence of a categorical adjunction, which is used as (...) a theoretical platform for the development of a functorial formulation of information transfer, between quantum observables and Boolean localisation devices in typical quantum measurement situations. We also establish precise criteria of integrability and invariance of quantum information transfer by cohomological means. (shrink)

In this paper we adopt a category-theoretic viewpoint in order to analyze the semantics of complementarity for quantum systems. Based on the existence of a pair of adjoint functors between the topos of presheaves of the Boolean kind of structure and the category of the quantum kind of structure, we establish a twofold complementarity scheme which constitutes an instance of the concept of adjunction. It is further argued that the established scheme is inextricably connected with a realistic philosophical attitude, although (...) substantially different from the classical one. (shrink)

We develop a general covariant categorical modeling theory of natural systems’ behavior based on the fundamental functorial processes of representation and localization-globalization. In the first part of this study we analyze the process of representation. Representation constitutes a categorical modeling relation that signifies the semantic bidirectional process of correspondence between natural systems and formal symbolic systems. The notion of formal systems is substantiated by algebraic rings of observable attributes of natural systems. In this perspective, the distinction between simple and complex (...) systems is reflected in the appropriate qualification of their corresponding rings of observables. The crucial distinguishing requirement with respect to the coordinatizing rings of observables has to do with the property of global commutativity. The global information structure representing the behavior of a complex system is modeled functorially in terms of its Spectrum functor. Due to the fact that, the fundamental process of representation is bidirectional by construction, it admits a precise categorical formulation in terms of the syntactic language of adjoint functors, constituting thus, a categorical adjunction. The left adjoint functor of this adjunction signifies the process of encoding the information related with phenomena of natural systems in terms of coordinatizing rings of observables, whereas, the right adjoint functor signifies the inverse process of information decoding, which, can be used for making predictions about the behavior of natural systems. (shrink)

We develop a general covariant categorical modeling theory of natural systems' behavior based on the fundamental functorial processes of representation and localization-globalization. In the second part of this study we analyze the semantic bidirectional process of localization-globalization. The notion of a localization system of a complex information structure bears a dual role: Firstly, it determines the appropriate categorical environment of base reference contexts for considering the operational modeling of a complex system's behavior, and secondly, it specifies the global compatibility conditions (...) of local contextual information. A localization system acts on the global information structure of a complex system, partitions it into sorts, and eventually, forces the consistent sheaf-theoretic fibering of the latter over the base category of commutative reference contexts. In this manner, the sheafification of the Spectrum functor of a complex information structure takes place by imposing on the uniform and homologous fibered structure of elements of the Spectrum presheaf the following two requirements of coherence in relation to the localization-globalization process: [i]. Compatibility of information under restriction from the global to the local level, and [ii]. Compatibility of information under extension from the local to the global level. Correspondingly, the options of local and global receive a concrete mathematical meaning with respect to a suitable notion of topology (categorical Grothendieck topology) defined on the base category of commutative reference contexts. Finally, the accurate functorial process modeling of a complex system's behavior, respecting the processes of representation and localization-globalization, is being effectuated by means of establishing a categorical dual equivalence between the category of complex information structures, and the topes of sheaves over the base category of partial or local information carriers, equipped with the categorical topology of epimorphosis families. (shrink)

We develop a category theoretical scheme for the comprehension of the information structure associated with a complex system, in terms of families of partial or local information carriers. The scheme is based on the existence of a categorical adjunction, that provides a theoretical platform for the descriptive analysis of the complex system as a process of functorial information communication.

We develop a relativistic perspective on structures of quantum observables, in terms of localization systems of Boolean coordinatizing charts. This perspective implies that the quantum world is comprehended via Boolean reference frames for measurement of observables, pasted together along their overlaps. The scheme is formalized categorically, as an instance of the adjunction concept. The latter is used as a framework for the specification of a categorical equivalence signifying an invariance in the translational code of communication between Boolean localizing contexts and (...) quantum systems. Aspects of the scheme semantics are discussed in relation to logic. The interpretation of coordinatizing localization systems, as structure sheaves, provides the basis for the development of an algebraic differential geometric machinery suited to the quantum regime. (shrink)

All the typical global quantum mechanical observables are complex relative phases obtained by interference phenomena. They are described by means of some global geometric phase factor, which is thought of as the “memory” of a quantum system undergoing a “cyclic evolution” after coming back to its original physical state. The origin of a geometric phase factor can be traced to the local phase invariance of the transition probability assignment in quantum mechanics. Beyond this invariance, transition probabilities also remain invariant under (...) the operation of complex conjugation. Most important, geometric phase factors distinguish between unitary and antiunitary transformations in terms of complex conjugation. These two types of invariance functions as an anchor point to investigate the role of loops and based loops in the state space of a quantum system as well as their links and interrelations. We show that arbitrary transition probabilities can be calculated using projective invariants of loops in the space of rays. The case of the double slit experiment serves as a model for this purpose. We also represent the action of one-parameter unitary groups in terms of oppositely oriented-based loops at a fixed ray. In this context, we explain the relation among observables, local Boolean frames of projectors, and one-parameter unitary groups. Next, we exploit the non-commutative group structure of oriented-based loops in 3-d space and demonstrate that it carries the topological semantics of a Borromean link. Finally, we prove that there exists a representation of this group structure in terms of one-parameter unitary groups that realizes the topological linking properties of the Borromean link. (shrink)

In this work we expand the foundational perspective of category theory on quantum event structures by showing the existence of an object of truth values in the category of quantum event algebras, characterized as subobject classifier. This object plays the corresponking role that the two-valued Boolean truth values object plays in a classical event structure. We construct the object of quantum truth values explicitly and argue that it constitutes the appropriate choice for the valuation of propositions describing the behavior of (...) quantum systems. (shrink)

In this paper we analyze the physical semantics and propose an interpretation of quantum event structures from the perspective offered by the categorical scheme of Part I.

In this paper a mathematical scheme for the analysis of quantum event structures is being proposed based on category theoretical methods. It is shown that there exists an adjunctive correspondence between Boolean presheaves of event algebras and quantum event algebras. The adjunction permits a characterization of quantum event structures as Boolean manifolds of event structures. -/- .

In an attempt to probe the objects belonging to the quantum species of structure,we develop the idea of using observables of the Boolean species of structures,as coordinatizing objects in the quantum world. This results in a contextualisticperspective on the latter through local Boolean measurement reference frames.The semantics of this representation is discussed extensively.

We develop a categorical scheme of interpretation of quantum event structures from the viewpoint of Grothendieck topoi. The construction is based on the existence of an adjunctive correspondence between Boolean presheaves of event algebras and Quantum event algebras, which we construct explicitly. We show that the established adjunction can be transformed to a categorical equivalence if the base category of Boolean event algebras, defining variation, is endowed with a suitable Grothendieck topology of covering systems. The scheme leads to a sheaf (...) theoretical representation of Quantum structure in terms of variation taking place over epimorphic families of Boolean reference frames. (shrink)

We construct a sheaf-theoretic representation of quantum observables algebras over a base category equipped with a Grothendieck topology, consisting of epimorphic families of commutative observables algebras, playing the role of local arithmetics in measurement situations. This construction makes possible the adaptation of the methodology of Abstract Differential Geometry (ADG), à la Mallios, in a topos-theoretic environment, and hence, the extension of the “mechanism of differentials” in the quantum regime. The process of gluing information, within diagrams of commutative algebraic localizations, generates (...) dynamics, involving the transition from the classical to the quantum regime, formulated cohomologically in terms of a functorial quantum connection, and subsequently, detected via the associated curvature of that connection. (shrink)

The quantum transition probability assignment is an equiareal transformation from the annulus of symplectic spinorial amplitudes to the disk of complex state vectors, which makes it equivalent to the equiareal projection of Archimedes. The latter corresponds to a symplectic synchronization method, which applies to the quantum phase space in view of Weyl’s quantization approach involving an Abelian group of unitary ray rotations. We show that Archimedes’ method of synchronization, in terms of a measure-preserving transformation to an equiareal disk, imposes the (...) integrality of the quantum of action, and requires the extension of the classical moment map from the real line to the circle. Additionally, the same synchronization method is encoded in the structure of the Heisenberg group, viewed as a principal bundle with a connection, whose curvature and anholonomy is expressed in terms of area bounding loops in relation to the underlying Abelian shadow on a symplectic plane. In this manner, we show that the geometric phase pertains to the minimal synchronized area \ of the 2-d symplectic Abelian shadow of the symplectic ball, modulo \. The integrality condition naturally leads to the consideration of modular commutative observables pertaining to the role of the discrete Heisenberg group. We prove that the structural transition from non-commutativity to modular commutativity in accordance to Weyl’s group-theoretic commutation relations takes place via universal factorization through the discrete Heisenberg group. In this way, we derive a homology-theoretic formulation of the synchronization method in terms of the area-bounding cells of the modular lattice \ in relation to any Abelian symplectic shadow. Thus, we finally obtain the physical interpretation of the analytic representation of quantum states as theta functions corresponding to the sections of a complex line bundle with an integral symplectic structure. (shrink)

The category-theoretic representation of quantum event structures provides a canonical setting for confronting the fundamental problem of truth valuation in quantum mechanics as exemplified, in particular, by Kochen–Specker’s theorem. In the present study, this is realized on the basis of the existence of a categorical adjunction between the category of sheaves of variable local Boolean frames, constituting a topos, and the category of quantum event algebras. We show explicitly that the latter category is equipped with an object of truth values, (...) or classifying object, which constitutes the appropriate tool for assigning truth values to propositions describing the behavior of quantum systems. Effectively, this category-theoretic representation scheme circumvents consistently the semantic ambiguity with respect to truth valuation that is inherent in conventional quantum mechanics by inducing an objective contextual account of truth in the quantum domain of discourse. The philosophical implications of the resulting account are analyzed. We argue that it subscribes neither to a pragmatic instrumental nor to a relative notion of truth. Such an account essentially denies that there can be a universal context of reference or an Archimedean standpoint from which to evaluate logically the totality of facts of nature. (shrink)

The category-theoretic representation of quantum event structures provides a canonical setting for confronting the fundamental problem of truth valua- tion in quantum mechanics as exemplified, in particular, by Kochen-Specker’s theorem. In the present study, this is realized on the basis of the existence of a categorical adjunction between the category of sheaves of variable local Boolean frames, constituting a topos, and the category of quantum event al- gebras. We show explicitly that the latter category is equipped with an object of (...) truth values, or classifying object, which constitutes the appropriate tool for assigning truth values to propositions describing the behavior of quantum systems. Effectively, this category-theoretic representation scheme circumvents consistently the semantic ambiguity with respect to truth valuation that is in- herent in conventional quantum mechanics by inducing an objective contextual account of truth in the quantum domain of discourse. The philosophical im- plications of the resulting account are analyzed. We argue that it subscribes neither to a pragmatic instrumental nor to a relative notion of truth. Such an account essentially denies that there can be a universal context of reference or an Archimedean standpoint from which to evaluate logically the totality of facts of nature. In this light, the transcendence condition of the usual concep- tion of correspondence truth is superseded by a reflective-like transcendental reasoning of the proposed account of truth that is suitable to the quantum domain of discourse. (shrink)

The category-theoretic representation of quantum event structures provides a canonical setting for confronting the fundamental problem of truth valuation in quantum mechanics as exemplified, in particular, by Kochen-Specker’s theorem. In the present study, this is realized by representing categorically the global structure of a quantum algebra of events in terms of sheaves of local Boolean frames forming Boolean localization functors. The category of sheaves is a topos providing the possibility of applying the powerful logical classification methodology of topos theory with (...) reference to the quantum world. In particular, we show that the topos-theoretic representation scheme of quantum event algebras by means of Boolean localization functors incorporates an object of truth values, which constitutes the appropriate tool for the definition of quantum truth-value assignments to propositions describing the behavior of quantum systems. Effectively, this scheme induces a contextualist account of truth in the quantum domain of discourse. The philosophical implications of the resulting account are analyzed. Such an account essentially denies that there can be a universal context of reference or an Archimedean standpoint from which to state the totality of facts of nature. (shrink)

Contemporary scientific perspectivism is primarily viewed as a methodological framework of how we obtain and form scientific knowledge of nature, through a broadly perspectivist process, especially, with reference to quantum mechanics. In the present study, this is implemented by representing categorically the global structure of a quantum algebra of events in terms of structured interconnected families of local Boolean probing frames, realized as suitable perspectives or contexts for measuring physical quantities. The essential philosophical meaning of the proposed approach implies that (...) the quantum world can be consistently approached and comprehended through a multilevel structure of locally variable perspectives, which interlock, in a category-theoretical environment, to form a coherent picture of the whole in a non-trivial way. (shrink)

L'Exil est la patrie de la pensée regroupe un ensemble de textes inédits ou introuvables de Kostas Axelos. Prolongeant ses derniers livres (Réponses énigmatiques, Minuit, 2005 ; En quête de l'impensé, Encre marine, 2012, posthume), il questionne la philosophie du XXe siècle et relit sous le signe de l'exil la vie et l'oeuvre du philosophe, éclairant d'un jour nouveau une pensée singulière. On trouvera également dans ce recueil des contributions philosophiques majeures sur Axelos (P. Fougeyrollas, F. Dastur, S. Jollivet, L. (...) Couloubaritsis), ainsi que de nombreux témoignages, dessins et photographies. (shrink)

Foundations of Relational Realism: A Topological Approach to Quantum Mechanics and the Philosophy of Nature by Michael Epperson and Elias Zafiris sets out to achieve three goals: to develop a version of Whiteheadian metaphysics that the authors call “relational realism”; to formalize relational realism in terms of category theory, in particular sheaf theory; and to use relational realism to solve the interpretative problems of quantum mechanics. These goals are ambitious, to say the least, and all this is leaving aside (...) those sections of FRR which argue that relational realism yields the key to understanding quantum gravity!The text is 388 pages long and comprises two parts. Part I, by Epperson, introduces relational realism and its application to quantum mechanics. Part II, by Zafiris, develops the sheaf theory formalism for relational realism. As the authors say, their exposition is “nonlinear”, and this feature of FRR, alon .. (shrink)

[My conclusion: MANY UNBELIEVABLE similar ideas to my ideas (2008-2014 + 2016, 2017) referring to my EDWs, Einstein’s both relativities, quantum mechanics (entanglement, etc.), the relationship between Einstien’s general relativity and quantum mechanics!!!!!! -/- In 2008, UNBELIEVABLE similar ideas to quantum mechanics; in 2014, 2016, and 2017 - unbelievable similar ideas to Einstein’s both special and general relativity; in 2014, 2016, 2017, unbelievable similar ideas to the relationship between Einstein’s general relativity and quantum mechanics, etc. etc. etc. -/- All their (...) ideas are written using mathematical and physical notions (old or invented by them), but their ideas are UNBELIEVABLE similar to my ideas (in philosophy and Physics)… Just another (“complicated”) language, the same framework, the same ideas….] . (shrink)

Some preliminary comments Introduction: The EDWs perspective in my article from 2005 and my book from 2008 -/- I. PHYSICS, COGNITIVE NEUROSCIENCE, PHILOSOPHY (‘REBORN DINOSAURS’ ) • (2016) Did Sean Carroll’s ideas (California Institute of Technology, USA) (within the wrong framework, the “universe”) plagiarize my ideas (2002-2010) (within the EDWs framework) on quantum mechanics, the relationship between Einstein relativity and quantum mechanics, life, the mind-brain problem, etc.? • (2016) The unbelievable similarities between Frank Wilczek’s ideas (Nobel Prize in Physics) and (...) my ideas (2002-2008, etc.) (Philosophy of Mind and Quantum Mechanics) • (2017-2019 NEW) Strong similarity between Carlo Rovelli’s ideas (Italy) in three books (2015, 2017) to my ideas (2002-2008) + commentary February 2018! • (2016) Kastner + (2017) R. E. Kastner, Stuart Kauffman, Michael Epperson “Taking Heisenberg’s Potentia Seriously”: Quite similar ideas to my ideas (2008) + • (2017) A trick: Unbelievable similarities between Lee Smolin’s ideas (2017) and my ideas (2002-2008) • (May 2018) ‘Thus spoke Zarathustra!’ - A fairy-tale with Eugen Ionesco and the Idiot about Nothingness -/- II. PHYSICS • (2011) The unbelievable similarities between Radu Ionicioiu (Physics, University of Bucharest, Romania) and Daniel R. Terno’s ideas (Physics, Macquarie University, Sydney, Australia) and my ideas (Quantum Mechanics) • (2013) Côté B. Gilbert (Oontario, Canada) Unbelievalbe similarities • (2015) The strong similarity between Pikovski Igor, Zych Magdalena, Costa Fabio, and Brukner Časlav’s ideas and my ideas (2006-2008) regarding the Schrodinger’s cat’s interactions with its environment (the gravitation of Earth) (both entities being macro-objects) (Quantum Mechanics) • (2015) The strong similarity between Elisabetta Caffau’s ideas (Center for Astronomy at the University of Heidelberg and the Paris Observatory) and my ideas (2011, 2014) regarding the appearance of Big Bang in many places (Cosmology) • (2015) Did Wolfram Schommers (University of Texas at Arlington, USA & Karlsruhe Institute of Technology, Germany) plagiarize my ideas? (Physics) • (2015) Some astrophysicists about "Dark Matter May be 'Another Dimension' - Or Even a Major Galactic Transport System" January 22, 2015 • (2016) The strong similarities between Dylan H. Mahler, Lee Rozema, Kent Fisher, Lydia Vermeyden, Kevin J. Resch, Howard M. Wiseman, and Aephraim Steinberg’s ideas (USA) and my ideas (Quantum Mechanics) • (2016) The unbelievable similarities between Bill Poirier’s ‘Many Interacting Worlds’ and my EDWs (Quantum Mechanics) • (2016 or 2017) Similarities between Adam Frank’s ideas (University of Rochester in New York , USA) (“Minding matter - The closer you look, the more the materialist position in physics appears to rest on shaky metaphysical ground”) and my ideas (2005, 2008) • (2017, 2017) Did Sebastian de Haro (HPS, Cambridge, UK) plagiarize my ideas (2002-2008) • (2017) Unbelievable similarities between Laura Condiotto’s ideas and my ideas (2002-2008) • (2016) The unbelievable similarities between Hugo F. Alrøe and Egon Noe’s (Department of Agroecology, Aarhus University, Denmark) ideas (USA) and my ideas (2002-2008) (Bohr's complementarity extended to ontology) • (2017) The unbelievable similar ideas between Federico Zalamea’s ideas and my ideas • (2018) Unbelievable similarities between Peter J. Lewis’s ideas (2018) and my ideas (2002-2008) • (2018) Timothy Hollowood, ‘Classical from Quantum’, [arXiv:1803.04700v1 [quant-ph] 13 March 2018] • (2018) Mario Hubert and Davide Romano, ‘The Wave-Function as a Multi-Field’ -/- III. COGNITIVE NEUROSCIENCE AND PHILOSOPHY OF MIND • (2011-2014) Did Georg Northoff (Psychoanalysis, Institute of Mental Health) plagiarize my ideas (2002-2008)? • (2011) The unbelievable similarities between Kalina Diego Cosmelli, Legrand Dorothée and Thompson Evan’s ideas (USA) and my ideas (Cognitive Neuroscience) • (2015) Did David Ludwig (Philosophy, University of Amsterdam) plagiarize many of my ideas? (Philosophy (of Mind) • (2016) Did Neil D. Theise (Department of Pathology, Icahn School of Medicine at Mount Sinai, New York, USA) and Kafatos C. Menas (Department of Medicine, Icahn School of Medicine at Mount Sinai, New York, USA) plagiarize my ideas of Physics and Cognitive Neuroscience and Philosophy (the mind-brain problem, quantum mechanics, etc.) from 2002-2008? • Did David Bourget (2018) (Director, Centre for Digital Philosophy, Western University (or University of Western Ontario) plagiarize my ideas regarding the mind-brain problem? + Chalmers • (2016) Unbelievable similarities between Dan Siegel’s ideas (Mindsight Institute, USA) and my ideas (2002-2008) -/- IV. Philosophy (of science) • (2010) The unbelievable similarities between Alexey Alyushin (Moscow, Russia) and my ideas (on Ontology) • (2013 + 2017) Did Markus Gabriel (Bonn University) plagiarize my ideas? • (2013) The unbelievable similarities between Andrew Newman’s ideas (University of Nebraska, at Omaha, USA) and my ideas (Ontology) • (2016) Did Tahko E. Tuomas (University of Helsinki, Finland) plagiarize my ideas? + Tahko E. Tuomas (‘The Epistemology of Essence’) • (2017) Did Jani Hakkarainen (University of Tampere, Finland) plagiarize my ideas (2002-2008)? + (2017) Markku Keinänen, Antti Keskinen & Jani Hakkarainen • (2017) The unbelievable similarities between Dean Rickles’s ideas (HPS, Univ. of Sydney) and my ideas (2002-2008) • (2017) Did Dirk K. F. Meijer and Hans J. H. Geesink (University of Groningen, Netherlands) plagiarize my ideas (2002-2008)? (2017) • (2018) Unbelievable similar ideas between Jason Winning’s ideas (2018) and my ideas (2002-2008) • (2018) David Mark Kovacs (Lecturer of philosophy at Tel Aviv University), ‘The Deflationary Theory of Ontological Dependence’, Philosophical Quarterly (forthcoming) -/- Conclusion [Obviously, there are other “specialists” that published UNBELIEVABLE similar ideas to my ideas but I have not discovered them yet…] Bibliography [Some people haven't read my works but they claim my ideas can be found in other works. Soon, they will discover EDWs in Shakespeare, Bach, Sophocles and ET's letter sent 10 million years ago... me vs. people who have plagiarized my ideas: on Youtube] ------------------------------------------------------------------ July 2018 -/- • Oreste M. Fiocco • Baptiste Le Bihan (University of Geneva, forthcoming) • Antonella Mallozzi (The Graduate Center – CUNY, forthcoming in Synthese, penultimate draft) • Erik C. Banks (Wright State University, 2014) • Sami Pihlström (2009) • Katherin Koslicki’s ideas (2008) The Structure of Objects, Oxford University Press) and my ideas (2002-2005-2006) -/- November 2018 • Maurizio Ferraris (2014/2012) Manifesto of New Realism -/- • Graham Harman (2017) : Object-Oriented Ontology: A New Theory of Everything (Penguin Books) ---------------------------------------------------------------- -/- January 2019 • Philip Ball (2018): “Why everything you thought you knew about quantum physics is different” • Gerhard Grössing “Vacuum landscaping: cause of nonlocal influences without signaling” • Anne Sophie Meincke (November 2018) The Disappearance of Change (IJPS) 28. The Disappearance of Change Towards a Process Account of Persistence Forthcoming in: International Journal of Philosophical Studies DOI: 10.1080/09672559.2018.1548634 • Baptiste Le Bihana (University of Geneva) and James Read (Oxford Univ.) “Duality and Ontology” (forthcoming, in Philosophy Compass) • Baptiste Le Bihan (University of Geneva): “Space Emergence in Contemporary Physics: Why We Do Not Need Fundamentality, Layers of Reality and Emergence” in Disputatio, Vol. X, No. 49, November 2018 • Alexander Alexandrovich Antonov (2016) (Research Center of Information Technologies “TELAN Electronics”, Kiev, Ukraine): “Hypothesis of the Hidden Multiverse Explains Dark Matter and Dark Energy”, Journal of Modern Physics, 2016, 7, 1228-1246 -/- February 2019 • James Barham (2019): “The Reality of Purpose and the Reform of Naturalism” • Giorgio Lando (2017) Mereology - A Philosophical Introduction, Bloomsbury Academic • (2018) Albrecht von M¨uller • Elias Zafiris, Concept and Formalization of Constellatory Self-Unfolding - A Novel Perspective on the Relation between Quantum and Relativistic Physics • (2019) Flaminia Giacomini, Esteban Castro-Ruiz, & Časlav Brukner “Quantum mechanics and the covariance of physical laws in quantum reference frames”, Nature Communications • (2019) Valia Allori, “Scientific Realism without the Wave-Function: An Example of Naturalized Quantum Metaphysics” (to appear in J. Saatsi, S. French (eds.) “Scientific Realism and the Quantum” OUP (2019) - Department of Philosophy Northern Illinois University) • (2018) Paulo De Jesus “Thinking through enactive agency: sense-making, bio-semiosis and the ontologies of organismic worlds”, Phenom Cogn Sci • (2016) TIMOTHY MORTON, For a Logic of Future Coexistence, (Columbia University Press) • (2017) Andrew Cooper, Two directions for teleology: naturalism and idealism, Synthese . (shrink)

COTENT -/- (second April 2019) Why so many people (from so many countries/domains/on so many topics) have already plagiarized my ideas? (Gabriel Vacariu) -/- Some preliminary comments Introduction: The EDWs perspective in my article from 2005 and my book from 2008 -/- I. PHYSICS, COGNITIVE NEUROSCIENCE, PHILOSOPHY (‘REBORN DINOSAURS’ ) • (2016) Did Sean Carroll’s ideas (California Institute of Technology, USA) plagiarize my ideas (2002-2010) (within the EDWs framework)? • (2016) Frank Wilczek’s ideas (Nobel Prize in Physics) (Philosophy of Mind (...) and Quantum Mechanics) • (2017-2019 - NEW March 2019) Carlo Rovelli’s ideas (Italy) in three books (2015, 2017) to my ideas (2002-2008) + commentary February 2018! • (2016) Kastner + (2017) R. E. Kastner, Stuart Kauffman, Michael Epperson • (2017) A trick: Lee Smolin’s ideas (2017) and my ideas (2002-2008) • (May 2018) ‘Thus spoke Zarathustra!’ - A fairy-tale with Eugen Ionesco and the Idiot about Nothingness -/- II. PHYSICS • (2011) Radu Ionicioiu (Physics, University of Bucharest, Romania) and Daniel R. Terno (Physics, Macquarie University, Sydney, Australia) • (2013) Côté B. Gilbert (Oontario, Canada) • (2015) Pikovski Igor, Zych Magdalena, Costa Fabio, and Brukner Časlav’s ideas and my ideas (2006-2008) (Quantum Mechanics) • (2015) Elisabetta Caffau’s ideas (Center for Astronomy at the University of Heidelberg and the Paris Observatory) and my ideas (2011, 2014) • (2015) Did Wolfram Schommers (University of Texas at Arlington, USA & Karlsruhe Institute of Technology, Germany) (Physics) • (2015) "Dark Matter May be 'Another Dimension' - Or Even a Major Galactic Transport System" January 22, 2015 • (2016) Dylan H. Mahler, Lee Rozema, Kent Fisher, Lydia Vermeyden, Kevin J. Resch, Howard M. Wiseman, and Aephraim Steinberg’s ideas (USA) • (2016) Bill Poirier’s ‘Many Interacting Worlds’ (Quantum Mechanics) • (2016 or Adam Frank’s ideas (University of Rochester in New York , USA) • (2017, 2017) Did Sebastian de Haro (HPS, Cambridge, UK) plagiarize my ideas (2002-2008) • (2017) Laura Condiotto’s ideas and my ideas (2002-2008) • (2016) Hugo F. Alrøe and Egon Noe’s (Department of Agroecology, Aarhus University, Denmark) ideas (USA) • (2017) Federico Zalamea’s ideas and my ideas • (2018) Peter J. Lewis’s ideas (2018) and my ideas (2002-2008) • (2018) Timothy Hollowood, ‘Classical from Quantum’, [arXiv:1803.04700v1 [quant-ph] 13 March 2018] • (2018) Mario Hubert and Davide Romano, ‘The Wave-Function as a Multi-Field’ -/- III. COGNITIVE NEUROSCIENCE AND PHILOSOPHY OF MIND • (2011-2014) Did Georg Northoff (Psychoanalysis, Institute of Mental Health) plagiarize my ideas (2002-2008)? • (2011) Kalina Diego Cosmelli, Legrand Dorothée and Thompson Evan’s ideas (USA) and my ideas (Cognitive Neuroscience) • (2015) Did David Ludwig (Philosophy, University of Amsterdam) plagiarize many of my ideas? (Philosophy (of Mind) • (2016) Neil D. Theise (Department of Pathology, Icahn School of Medicine at Mount Sinai, New York, USA) and Kafatos C. Menas (Department of Medicine, Icahn School of Medicine at Mount Sinai, New York, USA) • David Bourget (2018) (Director, Centre for Digital Philosophy, Western University (or University of Western Ontario) + Chalmers • (2016) Dan Siegel’s ideas (Mindsight Institute, USA) -/- IV. Philosophy (of science) • (2010) Alexey Alyushin (Moscow, Russia) • (2013 + 2017) Did Markus Gabriel (Bonn University) • (2013) Andrew Newman’s ideas (University of Nebraska, at Omaha, USA) • (2016) Did Tahko E. Tuomas (University of Helsinki, Finland) plagiarize my ideas? + Tahko E. Tuomas (‘The Epistemology of Essence’) • (2017) Jani Hakkarainen (University of Tampere, Finland) + (2017) Markku Keinänen, Antti Keskinen & Jani Hakkarainen • (2017) Dean Rickles’s ideas (HPS, Univ. of Sydney) • (2017) Did Dirk K. F. Meijer and Hans J. H. Geesink (University of Groningen, Netherlands • (2018) Jason Winning’s ideas (2018) • (2018) David Mark Kovacs (Lecturer of philosophy at Tel Aviv University) -/- Conclusion Bibliography -/- July 2018 • Oreste M. Fiocco • Baptiste Le Bihan (University of Geneva, forthcoming) • Antonella Mallozzi (The Graduate Center – CUNY, forthcoming in Synthese, penultimate draft) • Erik C. Banks (Wright State University, 2014) • Sami Pihlström (2009) • Katherin Koslicki’s ideas (2008) -/- November 2018 • Maurizio Ferraris (2014/2012) Manifesto of New Realism • Graham Harman (2017) : Object-Oriented Ontology: -/- January 2019 • Philip Ball (2018): “Why everything you thought you knew about quantum physics is different” • Gerhard Grössing “Vacuum landscaping: cause of nonlocal influences without signaling” • Anne Sophie Meincke (November 2018) The Disappearance of Change (IJPS) • Baptiste Le Bihana (University of Geneva) and James Read (Oxford Univ.) “Duality and Ontology” • Baptiste Le Bihan (University of Geneva): “Space Emergence in Contemporary Physics: • Alexander Alexandrovich Antonov (2016) -/- February 2019 • James Barham (2019): “The Reality of Purpose and the Reform of Naturalism” • Giorgio Lando (2017) Mereology - A Philosophical Introduction, Bloomsbury Academic • (2018) Albrecht von M¨uller • Elias Zafiris, Concept and Formalization of Constellatory Self-Unfolding • (2019) Flaminia Giacomini, Esteban Castro-Ruiz, & Časlav Brukner • (2019) Valia Allori, “Scientific Realism without the Wave-Function: An Example of Naturalized Quantum Metaphysics” • (2018) Paulo De Jesus “Thinking through enactive agency: • (2016) TIMOTHY MORTON, For a Logic of Future Coexistence, (Columbia University Press) • (2017) Andrew Cooper, Two directions for teleology: -/- March 2019 • (2019) Massimiliano Proietti,1 Alexander Pickston,1 Francesco Graffitti,1 Peter Barrow,1 Dmytro Kundys,1 Cyril Branciard,2 Martin Ringbauer,1, 3 and Alessandro Fedrizzi1: (2019) “Experimental rejection of observer-independence in the quantum world” • (2015) Cˇaslav Brukner On the quantum measurement problem, • (2015) Mateus Araújo, Cyril Branciard, Fabio Costa, Adrien Feix, Christina Giarmatzi, Časlav Brukner, Witnessing causal nonseparability, • (2008 + 2013) Giulio Chiribella,∗ Giacomo Mauro D’Ariano,† and Paolo Perinotti‡ QUIT Group, Dipartimento di Fisica “A. Volta” and INFM, via Bassi 6, 27100 Pavia, Italy§ (Dated: October 22, 2018): Transforming quantum operations: quantum supermaps (22 Oct 2008) + Giulio Chiribella,1, ∗ Giacomo Mauro D’Ariano,2, † Paolo Perinotti,2, ‡ and Benoit Valiron3, § (2013), Quantum computations without definite causal structure, • (2013) Ognyan Oreshkov1;2, Fabio Costa1, Cˇ aslav Brukner1;3, Quantum correlations • (2018) Marcus Schmieke, Kränzlin, 17 July 2018, “Orthogonal Complementarity -/- April 2019 These articles are in this book: Reality and its Structure - Essays in Fundamentality, Ricki Bliss and Graham Priest (2018), Oxford Univ Press -/- Gabriel Oak Rabin (2018) Grounding Orthodoxy and the Layered Conception Daniel Nolan (2018) Cosmic Loops Naomi Thompson (2018) Metaphysical Interdependence, Epistemic Coherentism, and Tuomas E. Tahko (2018) Holistic Explanation Fundamentality and Ontological Minimality Matteo Morganti (2018) The Structure of Physical Reality Beyond Foundationalism Nathan Wildman (2018) On Shaky Ground? Exploring the Contingent Fundamentality Thesis -/- (2015) M. Ringbauer, B. Duffus, C. Branciard1;3, E. G. Cavalcanti4, A. G. White1;2 & A. Fedrizzi: “Measurements on the reality of the wavefunction” . (shrink)

COTENT -/- (April 2019) Why so many people (from so many countries/domains/on so many topics) have already plagiarized my ideas? (Gabriel Vacariu) -/- Some preliminary comments Introduction: The EDWs perspective in my article from 2005 and my book from 2008 -/- I. PHYSICS, COGNITIVE NEUROSCIENCE, PHILOSOPHY (‘REBORN DINOSAURS’) • (2016) Sean Carroll (California Institute of Technology, USA) • (2016) Frank Wilczek (Nobel Prize in Physics) • (2017-2019 - NEW March 2019) Carlo Rovelli in three books (2015, 2017) to my ideas (...) (2002-2008) + commentary February 2018! • (2016) Kastner + (2017) R. E. Kastner, Stuart Kauffman, Michael Epperson • (2017) Lee Smolin (2017) • (May 2018) ‘Thus spoke Zarathustra!’ - A fairy-tale with Eugen Ionesco and the Idiot about Nothingness -/- II. PHYSICS • (2011) Radu Ionicioiu (Physics, University of Bucharest, Romania) and Daniel R. Terno’s ideas (Physics, Macquarie University, Sydney • (2013) Côté B. Gilbert (Oontario, Canada) • (2015) Pikovski Igor, Zych Magdalena, Costa Fabio, and Brukner Časlav • (2015) Elisabetta Caffau (Center for Astronomy at the University of Heidelberg and the Paris Observatory) • (2015) Wolfram Schommers • (2015) Some astrophysicists • (2016) Dylan H. Mahler, Lee Rozema, Kent Fisher, Lydia Vermeyden, Kevin J. Resch, Howard M. Wiseman, and Aephraim Steinberg • (2016) Bill Poirier • (2016 or 2017) Adam Frank • (2017, 2017) Sebastian de Haro • (2017) Laura Condiotto • (2016) Hugo F. Alrøe and Egon Noe • (2017) Federico Zalamea • (2018) Unbelievable similarities between Peter J. Lewis’s ideas (2018) and my ideas (2002-2008) • (2018) Timothy Hollowood, ‘Classical from Quantum’ • (2018) Mario Hubert and Davide Romano, ‘The Wave-Function as a Multi-Field’ -/- III. COGNITIVE NEUROSCIENCE AND PHILOSOPHY OF MIND • (2011-2014) Did Georg Northoff (Psychoanalysis, Institute of Mental Health) plagiarize my ideas (2002-2008)? • (2011) Kalina Diego Cosmelli, Legrand Dorothée and Thompson Evan’s ideas (USA) • (2015) David Ludwig (Philosophy, University of Amsterdam) • (2016) Neil D. Theise (Department of Pathology, Icahn School of Medicine at Mount Sinai, New York, USA) and Kafatos C. Menas • David Bourget (2018) (or University of Western Ontario) + Chalmers • (2016) Dan Siegel (Mindsight Institute, USA) -/- IV. Philosophy (of science) • (2010) Alexey Alyushin (Moscow, Russia) • (2013 + 2017) Markus Gabriel (Bonn University) • (2013) Andrew Newman’s ideas (University of Nebraska, at Omaha, USA) • (2016) Tahko E. Tuomas (University of Helsinki, Finland) + Tahko E. Tuomas • (2017) Jani Hakkarainen (University of Tampere, Finland) + (2017) Markku Keinänen, Antti Keskinen & Jani Hakkarainen • (2017) Dean Rickles (HPS, Univ. of Sydney) • (2017) Did Dirk K. F. Meijer and Hans J. H. Geesink (University of Groningen, Netherlands) • (2018) Jason Winning’s ideas (2018) • (2018) David Mark Kovacs (Lecturer of philosophy at Tel Aviv University) -/- July 2018 • Oreste M. Fiocco • Baptiste Le Bihan (University of Geneva, forthcoming) • Antonella Mallozzi (The Graduate Center – CUNY, forthcoming in Synthese, penultimate draft) • Erik C. Banks (Wright State University, 2014) • Sami Pihlström (2009) • Katherin Koslicki’s ideas (2008) The Structure of Objects, Oxford University Press) and my ideas (2002-2005-2006) -/- November 2018 • Maurizio Ferraris (2014/2012) Manifesto of New Realism • Graham Harman (2017) : Object-Oriented Ontology: A New Theory of Everything (Penguin Books) -/- January 2019 • Philip Ball (2018) • Gerhard Grössing • Anne Sophie Meincke (November 2018) • Baptiste Le Bihana (University of Geneva) and James Read (Oxford Univ.) • Baptiste Le Bihan (University of Geneva) • Alexander Alexandrovich Antonov (2016) (Research Center of Information Technologies “TELAN Electronics”, Kiev, Ukraine): -/- February 2019 • James Barham (2019) • Giorgio Lando (2017) • (2018) Albrecht von M¨uller • Elias Zafiris • (2019) Flaminia Giacomini, Esteban Castro-Ruiz, & Časlav • (2019) Valia Allori, OUP (2019) • (2018) Paulo De Jesus Phenom Cogn Sci • (2016) TIMOTHY MORTON, For a Logic of Future Coexistence • (2017) Andrew Cooper, Two directions for teleology: naturalism and idealism, Synthese -/- March 2019 • (2019) Massimiliano Proietti,1 Alexander Pickston,1 Francesco Graffitti,1 Peter Barrow,1 Dmytro Kundys,1 Cyril Branciard,2 Martin Ringbauer,1, 3 and Alessandro Fedrizzi1: (2019) • (2015) Cˇaslav Brukner On the quantum measurement problem, at arXiv:1507.05255v1 [quant-ph] 19 Jul 2015 • (2015) Mateus Araújo, Cyril Branciard, Fabio Costa, Adrien Feix, Christina Giarmatzi, Časlav Brukner, Witnessing causal nonseparability, • (2008 + 2013) Giulio Chiribella,∗ Giacomo Mauro D’Ariano,† and Paolo Perinotti‡ QUIT Group, Dipartimento di Fisica “A. Volta” and INFM, via Bassi 6, 27100 Pavia, Italy§ (Dated: October 22, 2018): Transforming quantum operations: quantum supermaps arXiv:0804.0180v2 [quant-ph] (22 Oct 2008) + Giulio Chiribella,1, ∗ Giacomo Mauro D’Ariano,2, † Paolo Perinotti,2, ‡ and Benoit Valiron3, § (2013), Quantum computations without definite causal structure, at • (2013) Ognyan Oreshkov1;2, Fabio Costa1, Cˇ aslav Brukner1;3, Quantum correlations with no causal order, • (2018) Marcus Schmieke, Kränzlin, 17 July 2018 These articles are in this book: Reality and its Structure - Essays in Fundamentality, Ricki Bliss and Graham Priest (2018), -/- Gabriel Oak Rabin (2018) Grounding Orthodoxy and the Layered Conception Daniel Nolan (2018) Cosmic Loops Naomi Thompson (2018) Metaphysical Interdependence, Epistemic Coherentism, and Tuomas E. Tahko (2018) Holistic Explanation Fundamentality and Ontological Minimality Matteo Morganti (2018) The Structure of Physical Reality Beyond Foundationalism Nathan Wildman (2018) On Shaky Ground? Exploring the Contingent Fundamentality Thesis -/- April 2019 (2015) M. Ringbauer1;2, B. Du_us1;2, C. Branciard1;3, E. G. Cavalcanti4, A. G. White1;2 & A. Fedrizzi: “Measurements on the reality of the wavefunction” -/- June 2019 Timothy Morton (2013), Realist Magic: Objects, Ontology, Causality (2013) Open Humanities Press Ian Bogost, Alien Phenomenology or, What It’s Like to Be a Thing (Minneapolis: University of Minnesota Press, 2012), 1–34 “Ian Bogost thinks objects as units”: Unit Operations: An Approach to Videogame Criticism (Cambridge: MIT Press, 2008) in Timothy Morton 2013, Realist Magic: Objects, Ontology, Causality (2013) OPEN HUMANITIES PRESS (I have not read Bogost yet, but in Morton’s book, I found UNBELIEVABLE similarity between Bogost’s main ideas and my EDWs ideas!!) -/- [Obviously, there are other “specialists” that published UNBELIEVABLE similar ideas to my ideas but I have not discovered them yet…] -/- . (shrink)

COTENT -/- (April 2019) Why so many people (from so many countries/domains/on so many topics) have already plagiarized my ideas? (Gabriel Vacariu) -/- Some preliminary comments Introduction: The EDWs perspective in my article from 2005 and my book from 2008 -/- I. PHYSICS, COGNITIVE NEUROSCIENCE, PHILOSOPHY (‘REBORN DINOSAURS’) • (2016) Sean Carroll (California Institute of Technology, USA) • (2016) Frank Wilczek (Nobel Prize in Physics) • (2017-2019 - NEW March 2019) Carlo Rovelli in three books (2015, 2017) to my ideas (...) (2002-2008) + commentary February 2018! • (2016) Kastner + (2017) R. E. Kastner, Stuart Kauffman, Michael Epperson • (2017) Lee Smolin (2017) • (May 2018) ‘Thus spoke Zarathustra!’ - A fairy-tale with Eugen Ionesco and the Idiot about Nothingness -/- II. PHYSICS • (2011) Radu Ionicioiu (Physics, University of Bucharest, Romania) and Daniel R. Terno’s ideas (Physics, Macquarie University, Sydney • (2013) Côté B. Gilbert (Oontario, Canada) • (2015) Pikovski Igor, Zych Magdalena, Costa Fabio, and Brukner Časlav • (2015) Elisabetta Caffau (Center for Astronomy at the University of Heidelberg and the Paris Observatory) • (2015) Wolfram Schommers • (2015) Some astrophysicists • (2016) Dylan H. Mahler, Lee Rozema, Kent Fisher, Lydia Vermeyden, Kevin J. Resch, Howard M. Wiseman, and Aephraim Steinberg • (2016) Bill Poirier • (2016 or 2017) Adam Frank • (2017, 2017) Sebastian de Haro • (2017) Laura Condiotto • (2016) Hugo F. Alrøe and Egon Noe • (2017) Federico Zalamea • (2018) Unbelievable similarities between Peter J. Lewis’s ideas (2018) and my ideas (2002-2008) • (2018) Timothy Hollowood, ‘Classical from Quantum’ • (2018) Mario Hubert and Davide Romano, ‘The Wave-Function as a Multi-Field’ -/- III. COGNITIVE NEUROSCIENCE AND PHILOSOPHY OF MIND • (2011-2014) Did Georg Northoff (Psychoanalysis, Institute of Mental Health) plagiarize my ideas (2002-2008)? • (2011) Kalina Diego Cosmelli, Legrand Dorothée and Thompson Evan’s ideas (USA) • (2015) David Ludwig (Philosophy, University of Amsterdam) • (2016) Neil D. Theise (Department of Pathology, Icahn School of Medicine at Mount Sinai, New York, USA) and Kafatos C. Menas • David Bourget (2018) (or University of Western Ontario) + Chalmers • (2016) Dan Siegel (Mindsight Institute, USA) -/- IV. Philosophy (of science) • (2010) Alexey Alyushin (Moscow, Russia) • (2013 + 2017) Markus Gabriel (Bonn University) • (2013) Andrew Newman’s ideas (University of Nebraska, at Omaha, USA) • (2016) Tahko E. Tuomas (University of Helsinki, Finland) + Tahko E. Tuomas • (2017) Jani Hakkarainen (University of Tampere, Finland) + (2017) Markku Keinänen, Antti Keskinen & Jani Hakkarainen • (2017) Dean Rickles (HPS, Univ. of Sydney) • (2017) Did Dirk K. F. Meijer and Hans J. H. Geesink (University of Groningen, Netherlands) • (2018) Jason Winning’s ideas (2018) • (2018) David Mark Kovacs (Lecturer of philosophy at Tel Aviv University) -/- July 2018 • Oreste M. Fiocco • Baptiste Le Bihan (University of Geneva, forthcoming) • Antonella Mallozzi (The Graduate Center – CUNY, forthcoming in Synthese, penultimate draft) • Erik C. Banks (Wright State University, 2014) • Sami Pihlström (2009) • Katherin Koslicki’s ideas (2008) The Structure of Objects, Oxford University Press) and my ideas (2002-2005-2006) -/- November 2018 • Maurizio Ferraris (2014/2012) Manifesto of New Realism • Graham Harman (2017) : Object-Oriented Ontology: A New Theory of Everything (Penguin Books) -/- January 2019 • Philip Ball (2018) • Gerhard Grössing • Anne Sophie Meincke (November 2018) • Baptiste Le Bihana (University of Geneva) and James Read (Oxford Univ.) • Baptiste Le Bihan (University of Geneva) • Alexander Alexandrovich Antonov (2016) (Research Center of Information Technologies “TELAN Electronics”, Kiev, Ukraine): -/- February 2019 • James Barham (2019) • Giorgio Lando (2017) • (2018) Albrecht von M¨uller • Elias Zafiris • (2019) Flaminia Giacomini, Esteban Castro-Ruiz, & Časlav • (2019) Valia Allori, OUP (2019) • (2018) Paulo De Jesus Phenom Cogn Sci • (2016) TIMOTHY MORTON, For a Logic of Future Coexistence • (2017) Andrew Cooper, Two directions for teleology: naturalism and idealism, Synthese -/- March 2019 • (2019) Massimiliano Proietti,1 Alexander Pickston,1 Francesco Graffitti,1 Peter Barrow,1 Dmytro Kundys,1 Cyril Branciard,2 Martin Ringbauer,1, 3 and Alessandro Fedrizzi1: (2019) • (2015) Cˇaslav Brukner On the quantum measurement problem, at arXiv:1507.05255v1 [quant-ph] 19 Jul 2015 • (2015) Mateus Araújo, Cyril Branciard, Fabio Costa, Adrien Feix, Christina Giarmatzi, Časlav Brukner, Witnessing causal nonseparability, • (2008 + 2013) Giulio Chiribella,∗ Giacomo Mauro D’Ariano,† and Paolo Perinotti‡ QUIT Group, Dipartimento di Fisica “A. Volta” and INFM, via Bassi 6, 27100 Pavia, Italy§ (Dated: October 22, 2018): Transforming quantum operations: quantum supermaps arXiv:0804.0180v2 [quant-ph] (22 Oct 2008) + Giulio Chiribella,1, ∗ Giacomo Mauro D’Ariano,2, † Paolo Perinotti,2, ‡ and Benoit Valiron3, § (2013), Quantum computations without definite causal structure, at • (2013) Ognyan Oreshkov1;2, Fabio Costa1, Cˇ aslav Brukner1;3, Quantum correlations with no causal order, • (2018) Marcus Schmieke, Kränzlin, 17 July 2018 These articles are in this book: Reality and its Structure - Essays in Fundamentality, Ricki Bliss and Graham Priest (2018), -/- Gabriel Oak Rabin (2018) Grounding Orthodoxy and the Layered Conception Daniel Nolan (2018) Cosmic Loops Naomi Thompson (2018) Metaphysical Interdependence, Epistemic Coherentism, and Tuomas E. Tahko (2018) Holistic Explanation Fundamentality and Ontological Minimality Matteo Morganti (2018) The Structure of Physical Reality Beyond Foundationalism Nathan Wildman (2018) On Shaky Ground? Exploring the Contingent Fundamentality Thesis -/- April 2019 (2015) M. Ringbauer1;2, B. Du_us1;2, C. Branciard1;3, E. G. Cavalcanti4, A. G. White1;2 & A. Fedrizzi: “Measurements on the reality of the wavefunction” -/- June 2019 Timothy Morton (2013), Realist Magic: Objects, Ontology, Causality (2013) Open Humanities Press Ian Bogost, Alien Phenomenology or, What It’s Like to Be a Thing (Minneapolis: University of Minnesota Press, 2012), 1–34 “Ian Bogost thinks objects as units”: Unit Operations: An Approach to Videogame Criticism (Cambridge: MIT Press, 2008) in Timothy Morton 2013, Realist Magic: Objects, Ontology, Causality (2013) OPEN HUMANITIES PRESS (I have not read Bogost yet, but in Morton’s book, I found UNBELIEVABLE similarity between Bogost’s main ideas and my EDWs ideas!!) -/- [Obviously, there are other “specialists” that published UNBELIEVABLE similar ideas to my ideas but I have not discovered them yet…] -/- . (shrink)