Students often invoke quantum mechanics in class or papers to make philosophical points.This tendency has been encouraged by pop culture influences like the film What the Bleep do We Know?There is little merit to most of these putative implications.However, it is difficult for philosophy teachers unfamiliar with quantum mechanics to handle these supposed implications in a clear and careful way.This paper is a philosophy of science version of MythBusters.We offer a brief primer on the nature of quantum mechanics, enumerate nine of the most common implications associated with quantum mechanics, and finally clarify each implication with the facts.Our goal is to explain what quantum mechanics doesn't show.
Students often invoke quantum mechanics in class or papers to make philosophical points.This tendency has been encouraged by pop culture influences like the film What the Bleep do We Know?There is little merit to most of these putative implications.However, it is difficult for philosophy teachers unfamiliar with quantum mechanics to handle these supposed implications in a clear and careful way.This paper is a philosophy of science version of MythBusters.We offer a brief primer on the nature of quantum mechanics, enumerate nine of the most common implications associated with quantum mechanics, and finally clarify each implication with the facts.Our goal is to explain what quantum mechanics doesn't show.
Quantum mechanics is the most fundamental, and most successful, branch of physics. It was discovered from the experiment and forged with the experiment. And yet, given its unique indeterministic perspective of Nature, it is also the most criticized branch of physics. Famous critics, such as Einstein, and Schrödinger, called it ‘not complete’ and even ‘repugnant’, respectively. On the other hand, for those of us who have been in contact with quantum mechanics for nearly 50 years, and made a living out of it for the last 45 plus years, quantum is like a benevolent teacher and generous provider that is misunderstood by many and unappreciated by others. The ineffability of quantum mechanics is a direct consequence of quantum mechanic's proximity to Nature. Indeed, Nature is a lot more subtle, a lot more richer, than what our linguistic abilities can describe and our philosophies can assimilate. In Quantum Clear we set out to explain the foundations of quantum mechanics and to clarify many of the misunderstandings that surround it.
INTRODUCTION In 1965 Hilary Putnam published the standard work on the interpretation of quantum mechanics, a piece that all philosophers of quantum mechanics of the time had to come to terms with. He laid out one-by-one in a clear non-technical way each of the available approaches to the problem and explained, again non-technically but very exactly, what is wrong with them. In his own final words Putnam took ‘the modest but essential step of becoming clear on the nature and magnitude of the difficulties’ (1965, 158). In the almost forty years since there have been a variety of advances, technical developments and new points of view. But none of these is uncontroversial. In fact each suffers from some one or another of the very difficulties that Putnam summarised. Many of the newer approaches explain why the problem is not a problem after all; a few bury the problems in technical detail; and some make heroic assumptions, often metaphysical, that cause the problems to disappear. My conclusion surveying the contemporary literature is the same as Putnam's in 1965: ‘no satisfactory interpretation of quantum mechanics exists today’ (1965, 157). The time scale is amazing. Putnam's important piece was written forty years after the first formulations and successes of quantum mechanics. I am writing forty years later, and about a theory that has transformed our technology and our way of thinking about the world. Why does this theory still have ‘no satisfactory interpretation’?
This thesis aims to explore the relationship between the science, the philosophy and the esoteric imagination of the American physicist David Bohm (1917-1992). Bohm is recognized as one of the most brilliant physicists of his generation. He is famous for his ‘hidden variables’ interpretation of quantum mechanics. Bohm wrote extensively on philosophical and psychological subjects. In his celebrated book Wholeness and the Implicate Order (1882) he introduced the influential ideas of the Explicate and the Implicate orders that are at the core of his process philosophy. Bohm was also a very close disciple of the Indian teacher Jiddu Krishnamurti (1895-1986), whom he recognized to have had an important influence on his thought. Chapter 1 is a general explanation of what I intend to do, why my research is filling an important gap, introduce the field of Western esotericism as a scholarly subject and suggesting that it offers a fruitful way of approaching the thought of David Bohm. I also explain my research principles and a brief description of the philosophical standpoint from which I am approaching the material. Chapter 2 gives a description of the textual sources I used in my research. This is followed by a comprehensive literature review. Chapter 3 is a biographical essay where I give an account of Bohm’s life, career, works, major ideas and their development, stressing their significance for the development of Bohm’s holistic philosophy and his interactions with the esoteric. This chapter is an introduction to the main ideas of the dissertation. Chapter 4 revisits the genesis of the Causal Interpretation, Bohm’s first attempt to deal with the interpretation of quantum mechanics. I make emphasis on the philosophical developments that gave rise to it. I introduce all the relevant physics and give a detailed explanation of the problem of interpretation and Bohm’s first proposal. Chapter 5 is about the philosophical developments in Bohm’s thought brought by the Causal Interpretation. In particular I examine the influence that G. W. F. Hegel (1770-1831) had on Bohm’s thought and explain why I take the view that this is an esoteric influence. Chapter 6 reviews the developments in Bohm’s thought during the 1960’s. I describe Bohm’s search for radically new concepts in physics and his exchanges with several thinkers ending with his encounter with Jiddu Krishnamurti. Chapters 7 and 8 are devoted to the study of Bohm’s philosophy as he elaborated it after 1960. Chapter 7 concentrates on the idea of the Implicate Order and it also studies the Ontological Interpretation of Quantum Mechanics, Bohm’s last version of his interpretation effort, which is based on the Implicate Order. In chapter 8 I examine Bohm’s theory of how the mind and the body are connected through a ladder of consciousness formed by a series of Explicate and Implicate Orders, and finishes with an exposition of Bohm’s dialogue technique. In the last chapter I summarize my conclusions. An appendix is included with a brief overview of Bohm’s legacy. All the relevant details about the esoteric currents that Bohm encountered during his life and that are required to understand our argument are introduced as they are needed throughout the main body of the text.
This work presents a conceptual and interdisciplinary inquiry into the human tendency to label unfamiliar or incomprehensible phenomena as “nonsense.” Drawing from quantum mechanics, cognitive science, chaos theory, philosophy of science, and Islamic metaphysics, the paper argues that perceived meaninglessness arises not from reality itself but from the limitations of human perception and cognition. The study explores observer bias, selective attention, and intentionality as key factors shaping how reality is interpreted. Within this framework, intention is treated as a metaphysical component influencing how potential outcomes are experienced and understood, rather than as a physical or experimental variable. The paper does not propose any modification to formal quantum mechanics; instead, it offers a philosophical and metaphysical interpretation of observer-related phenomena, meaning, and intentional alignment. Apparent randomness and chaos are examined as expressions of hidden order, emphasizing epistemic humility and caution against forcing interpretation through limited frameworks. By integrating scientific concepts with philosophical theology, this work aims to encourage a deeper reflection on meaning, perception, and the boundaries of human understanding, while maintaining a clear distinction between empirical science and metaphysical interpretation.
Applications of quantum mechanics have led to many successful predictions and explanations of puzzling phenomena, and we now apply quantum mechanics to gain, process, and communicate information in novel ways. We can understand quantum mechanics by understanding how we have applied it. We should not seek agreement on the nature of the world it represents, because this theory does not itself represent the physical world (though its applications do help us to represent it better). When applied to a quantum state, quantum mechanics yields probabiities for physical events: both state and probability are objective--not because they represent elements of phyiscal reality, but because each exerts norrmative authority over the beliefs of anyone who accepts quantum mechanics and applies it relative to a physical situation they may (but need not) occupy. These events may be described by statements that are meaningful in an appropriate environmental context, and quantum mechanics can help one to say when that is. Measurement creates an appropriate context, so here the Born rule indirectly yields probabilities of measurement outcomes. The quantum state of a system does not "collapse" on measurement: a new state must be assigned relative to a physical situation in which information about the outcome is accessible. Understood this way, there is no measurement problem, and violations of Bell inequalities does not demonstrate "spooky" non-local action. Quantum field theories have no physical ontology of their own: a quantum field is a mathematical object in a model whose application helps us to improve and extend our descriptions of the world in other terms. We cannot realise the scenario of Wigner's friend and its recent extensions: but the data that provide overwhelming evidence for quantum mechanics are objective in the same sense as the relative measurement outcomes described in those scenarios.