It's Elemental

Tag: Quantum Mechanics

  • Quantum Mechanics – To Understand or Not Understand, that is the question

    Quantum Mechanics – To Understand or Not Understand, that is the question

    fractal flowerIntroduction

    About 100 years ago the birth of quantum theory changed forever how humans perceive the universe… sort of.  Certainly “quantum physics” is a phrase found far outside the boundaries of physics classrooms, and has even achieved a fairly wide popularity through movies such as What the Bleep and works like Fritjof Capra’s Tao of Physics.  Does this mean, for the average person who has at least been introduced to some basic ideas from quantum mechanics, that reality will never be the same?  Or do ideas from quantum mechanics (QM) remain something of a curiosity—fascinating and mind-boggling but so far removed from ‘normal’ everyday experience as to be essentially irrelevant?

    Take a moment and ponder this question for yourself.  Can you remember how you were affected when you first heard of electron tunneling, the EPR paradox, entanglement, the uncertainty principle, or more likely, Schrodinger’s cat?  Did your view of the world change?  A more relevant question might be: how do you know?  Perhaps the next time you looked at the shimmer of a butterfly’s wings or the more prosaic spectrum reflected off a thin layer of oil on pavement you gave an intellectual nod to the underlying quantum mechanical principles which give rise to these phenomena… and then went on about your day just like it was 1904 (the year before Einstein’s four seminal papers revolutionized the world of physics—many other worlds are still playing catch up).

    Now, quantum mechanics is, without a doubt, one of the best theories ever produced by human minds.  The effects of QM are likewise undeniable in their scope, and have reached every corner of the Earth, influencing the course of the 20th century immeasurably, mostly through the various technologies it has made possible (from computers and just about everything electronic—transistors, anyone?—to advances in medicine, communications, manufacturing, and more).  But the problem here is that (more…)

  • Chaos theory and fractals: 3/4

    Chaos theory and fractals: 3/4

    3. And so, there’s all this talk about ‘deterministic chaotic systems’… What exactly, is the stunning significance of this? I think I get that every shape in nature is ultimately created by patterns of itself within itself, but I’m confused as a biologist or physiologist or biochemist because things like continents are made of trillions of completely different molecules of matter. How does that relate to fractals?

    The stunning significance of deterministic chaotic systems is that the Newtonian paradigm which equated determinism with complete predictability (ala Laplace) was shown to be WRONG.  Chaos theory shows that we can have deterministic systems that are simply NOT PREDICATBLE.  It is also stunning because the mathematics of fractals has helped us gain much deeper insights into some of the important vexing problems that stymied Newtonian-style thinkers (non-linear systems, fluid flow, etc.).  It has fundamentally changed our view of the universe.  It is often said that in the 20th century the most important epistemological advances were 1) Relativity 2) Quantum Mechanics, and 3) Chaos Theory, with 4) Goedel’s Theorem as another important, but less well-understood revolutionary idea.

    Fractals are NOT only in the realm of geometrical structure; this is simply where we have the easiest access to their manifestation.  Fractals can also describe the pattern of any iterated process.  So you can have fractal family dynamics, in which large scale interactions are repeated on smaller scales, both in the sense of emotional scale and time scale and so forth.

    Also, not EVERY shape in nature is fractal.  There are plenty of non-fractal shapes, but it does appear that fractals are an intimate aspect of nature’s expression (and more accurately, evolution).

  • Evidence, science, and spiritual knowing: developing organs of spiritual perception

    Evidence can be gained through a variety of means.  Just as you would wish to use a sensitive detector of particular frequencies of light if you are doing x-ray crystallography, and not, say, an acoustic detector, so too we need to develop and use detectors that are appropriate to the realm in which we wish to gather evidence if we are to hope to gain any knowledge in that realm. 

    Thus, if we wish to develop knowledge of spiritual realms, we will need to develop organs of perception (for no material ‘device’ can do this for us) which are capable of perceiving in the realm of the spirit.  Not only that, but those organs, like any physical detector, need to be sensitized, tuned, and placed in the proper experimental setup for good evidence gathering to be likely.

    Of course, the basis for the spiritual organs of perception we are talking about here are rooted in our attention: it’s quality and rhythm.  For example, we lay people can only talk about all the fascinating stuff coming out of quantum mechanics in a second-(or third)-hand way, because we have ourselves not done the experiments in question, and our judgments and opinions on the matters are derivative of the interpretations of these experiments by those who have done them and their interpreters.  We would not expect an interested lay person to provide new information about quantum processes ex nihilo, but we can learn to conceptualize and come into closer relationship with those processes by virtue of our studies of what has been communicated about them by relative authorities.

    The exact same holds for spiritual considerations: those that have developed capacities to perceive spiritual realms can interpret and communicate these results to those of us that don’t, and we can study and learn about realms which we may not otherwise have access to as a consequence.  Moreover, just as we might, if we were really interested, take the necessary steps to learn the skills and concepts necessary to do research in quantum mechanics, so too we can take the steps necessary to learn the skills and concepts that allow one to do research in the spiritual worlds.

    Or does all this sound completely far-fetched?

    Unless we are scientific researchers in a particular field, we actually have very little direct evidence for our knowledge about quantum mechanical processes, chaos theory, and so forth; it’s almost completely anecdotal, yet we trust those that have done the research to provide us with a coherent and accurate picture of ‘what it is like’, and primarily on this basis we feel comfortable using the concepts and talking the talk.

    I’m only writing this because I wanted to point out that the scientific method in no way whatsoever excludes the non-physical, and that it is possible to have a clear understanding of how that is so; i.e. such a thing as spiritual science is possible.  Poor research is just as much of a problem in physical science as in spiritual science — and we must either rely upon ‘experts’ to let us know when this is the case or become an expert ourselves.

    Tree of the Wise
    Tree of the Wise
  • Gasp! Newton LIED to you about his three laws of motion!

    I’ve been thinking about the co-existence of multiple descriptions of reality lately.  In particular, as someone who has taught high-school physics, I run up against a philosophical quandary when I’m presenting, say Newton’s laws of motion.  Am I presenting a lie to the students, because quantum mechanics and general relativity replaced the Newtonian physics?

    Particle TrackOn the one hand, we can argue that classical physics is flat-out wrong in its basic foundations, and thus that all of the subsequent predictions of it’s theories are equally (and absolutely) wrong as well.  For example, take the prediction of a cannonball’s trajectory.  Classically this follows a simple parabolic curve… but there are a number of non-Newtonian complexifications to this story that are required for a ‘truer’ description of the event.  First you have the non-linear, chaotic effects of friction, then you have general relativistic corrections (changes in space-time curvature vary with distance to the mass of the Earth, thus changes in momentum, and even the mass of the cannonball, plus time dilation and other flying pink elephants), and then quantum corrections (virtual particle interactions, uncertainty limits, kryptonite fragments).

    But, as evidenced by the crumbling city walls, the cannonball hits them anyway, whether or not we take these things into account (well, friction is really pretty important, but that’s why things in physics-world are always frictionless to begin with).  In other words, even though, in an abstract and theoretical sense, classical physics is complexly wrong, it is also simply correct.  It will get you to the moon just fine, thank you, no relativistic corrections needed.

    The issue may require some consideration of the shifting between an epistemological stance and an ontological stance (that confounded relationship again!).

    Ontologically we must say that Newton’s physics provides only an approximation of more fundamental principles.  We can thus think of the classical principles as “wrong” because if we are to look at the phenomenon in its more complete ontological situation, other principles are required.  However, when we don’t look in this way, the classical principles are arguably just as “right” as the more fundamental principles that need to be introduced when you look at the situation more completely.  In other words, questions about ontology can be taken in-situ, and not, as most philosophers would have it, absolutely. This is a big faux-pas, as it undermines the common meaning of ‘ontology’, which refers to the essence or real being of a phenomena.

    But if we our queues from Whitehead, we realize that the idea of being may no longer require some kind of Parmenidean, unalterable and unchangeable essence that is just itself for all eternity.  Essence-being-may rather have existence only as a process, as an ongoing creation, subject always to the bursting through of novelty.

    Somewhat ironically, if we took this, rather than the Newtonian assumptions as a starting point, then it would not be problematic to see that Newton’s physics can indeed have an equivalent ontological status in certain circumstances as the relativistic and quantum laws do in other circumstances.  There may be no ontological need to posit relativistic effects unless such effects create differences that impinge upon classically-based predictions.

    Of course, the fact that just this does occur in some situations is exactly why people had to come up with relativity and quantum mechanics!  But the establishment of new ‘laws’ may not obviate the ontological status of earlier laws when we don’t arbitrarily discount the importance of the evolving context within which any ontological consideration arises in the first place.

    life_12weeks1The situation becomes more apparent when we are no longer considering simple physical systems, but try to account for more complex phenomena: life, emotion, healing, consciousness, social effects, etc.  In these cases, the ‘laws’ of physics are simply completely and utterly inadequate to the phenomena; they explain only a tiny fraction of each phenomenon.  New ‘laws’, and other principles are required to make sense of these different realms.  These laws may or may not be ultimately reducible to known physical laws, but that may not even matter!

    What ‘exists’ for a given way of approaching a complex, embedded, extended, and recursive system may change on the basis of how that system is approached, i.e. by the ‘question’ that is asked of it.  Which of course leads us to the insight, offered by Bohr, that just this is how the universe works: it answers questions (is something for us) by virtue of the questions asked of it, which is another way to say “How you pay attention changes what comes to your attention.”

    Classical physics will never ‘go away’, unless human experience changes so radically as to no longer require its principles for explanation (this is highly unlikely).  We should be careful of the classical assumptions about ontology, and of projecting an absoluteness onto ‘being’ that is not sensitive to the human act of in-situ knowing.  To declare, because the fundamental principles of chemistry can be reduced to physical principles, that “chemistry is not needed” would be a folly; chemical principles, when unreduced, still operate in an ontologically satisfying way – for the chemist.  The fact that those behaviors can be thought of in ‘more fundamental’ terms does not automatically privilege the more fundamental understanding in an ontological sense.

    This does not lead to ‘state-specific sciences’ (ala Charles Tart), which are radically separate, in which every question may have its own unique ontology and epistemology.  It appears that the universe doesn’t quite work this way, because principles from one realm don’t stay put; they leak out into other, seemingly unrelated disciplines, where they may find fruitful soil, even taking over the previous assumptions at times.  The universe doesn’t seem to split itself up quite the way we do.  In other words, we cannot hold onto an ontology that abstracts itself indefinitely, but we cannot also completely de-reify ontological considerations (the mistake of much of post-modernism) in favor of purely ‘constructed’ ontologies.

    OuroborosWe are thus lead to consider an epistemology – an embedded, flexible, transformable epistemology – may be go hand-in-hand with a companion ontology – a process-oriented, non-reductive, complex ontology.  The ontology is thus capable of shifting on the basis of epistemological concerns, but is not reducible to them.  The epistemology is likewise capable of transforming on the basis of ontological considerations, but cannot be completely enslaved to them.  Rather, the epistemology and the ontology co-exist in a creative dance of becoming, mutually reinforcing each other and destroying each other in a complex cybernetic loop.


  • observing the observer

    So then to begin in the middle I have many questions: 
      
    What constitutes an observer? How do we think about what an observer is/does? Is it as simply complex as the recursive: “An observer creates distinctions; distinctions create observers.”? 
      
    What is a distinction? In order for it to occur, does it require only an observer, or is there also an ‘observed’? If so, what constitutes the observed if we are speaking of it before the act of observation? Or is there no such thing as an ‘observed’ before its being observed? Is it possible for the specific distinction within the observed to be meaningless before observation while still maintaining on a higher order level that there is a realm of the ‘unobserved-observed’? 
      
    I mean to think about this issue as much as possible without the benefit of assumptions, knowing this is impossible. 
      
    Does the concept of the complementarity of field/wave in quantum physics help conceptualize this problem? Physicists can speak of descriptions of … using words that evoke particulate metaphors or wave-like metaphors. The … is always …, although some like to speak of wavicles to try and express the idea that beneath (?) the individual descriptions of what happens in particle physics experiments as either particle-like or wave-like, some more encompassing ‘reality’ is manifesting in an either/or fashion while remaining singular in itself. 
      
    The epistemological issue of the observer/observed qua cybernetics thus seems analogically exact to the epistemological dilemmas raised in our attempts to understand the quantum mechanics. Both point to some aspect of recursion as a central feature of any potential ordering of knowledge.

    There's a Light Inside