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originally posted by: NoRulesAllowed
But it gets interesting once you know that the subjectivity ("is it a particle? is it a wave?) becomes OBJECTIVE since it not only becomes a wave/particle for you but also for everyone else.
(Once the state is determined everyone will agree, it's not that one scientist will see it as a wave and the other as a particle)
originally posted by: smithjustinb
originally posted by: NoRulesAllowed
But it gets interesting once you know that the subjectivity ("is it a particle? is it a wave?) becomes OBJECTIVE since it not only becomes a wave/particle for you but also for everyone else.
The question I'm asking here is, "does it?" I am wondering if maybe what I see is objectively different than what you see. For example, I saw this video a while back where some scientists were able to map a cats brain and reconstruct the brainwaves into an image that was a representation of what the cat was seeing, and astonishingly, although the cat was looking at a human face, the human face had cat-like characteristics. So my question is, "When we observe, are we creating a separate objective reality?"
(Once the state is determined everyone will agree, it's not that one scientist will see it as a wave and the other as a particle)
Noone is seeing a wave, because seeing is what makes the wave a particle. The point here is that maybe we are each seeing different possible positions.
How does the particle KNOW you are observing it ?
originally posted by: Zaanny
The part that cooks my noodle is....
How does the particle KNOW you are observing it ?
Without the observer it acts as if ALL variables in the mathematics are present. AKA the wave pattern
All potential locations of the particle could be here.
originally posted by: Kroovistos
a reply to: Zaanny
Imagine that every person is walking around with their own (their own consciousness interpreting through a brain that is a complex combination of neuro-networking based on subjective experiences throughout their life).
Everyone is looking at reality, but they're interpreting reality in their own way. Where some may see a castle, others may see a home. Others yet may see a vacation spot. The emphasis on this is that we don't have these wildly different realities; there's still a common sense of "this is green" or "this is made of stone." Rather, to me at least, it seems like it's the description of the object and the elicited emotions beyond the portrayal that give the subjectivity.
originally posted by: Ninipe
Try a new perspective, if you watch a bunch of particles they behave as a wave, because they are interfering with each other, if you look at a single particle it has no one to interfere with, therefore it goes in a straight line. So the particle doesn't actually give a # if someone is looking at it, it just has no one to bounce against. Like if you own a single cat it gets bored and sleeps 24/7, if you got a bunch of cats they, well there is a lot more interaction. So this is just a way, to confuse the stupid. "Oooh, look it's magic!"
originally posted by: Ninipe
a reply to: smithjustinb
really? well I remember a classroom with approximately 30 people watching very closely as the single particle made a dot.
An important version of this experiment involves single particles (or waves—for consistency, they are called particles here). Sending particles through a double-slit apparatus one at a time results in single particles appearing on the screen, as expected. Remarkably, however, an interference pattern emerges when these particles are allowed to build up one by one (see the image to the right). This demonstrates the wave-particle duality, which states that all matter exhibits both wave and particle properties: the particle is measured as a single pulse at a single position, while the wave describes the probability of absorbing the particle at a specific place of the detector.[23] This phenomenon has been shown to occur with photons, electrons, atoms and even some molecules, including buckyballs.[24][25][26][27][28] So experiments with electrons add confirmatory evidence to the view of Dirac that electrons, protons, neutrons, and even larger entities that are ordinarily called particles nevertheless have their own wave nature and even their own specific frequencies.
This experimental fact is highly reproducible, and the mathematics of quantum mechanics (see below) allows us to predict the exact probability of an electron striking the screen at any particular point. However, the electrons do not arrive at the screen in any predictable order. In other words, knowing where all the previous electrons appeared on the screen and in what order tells us nothing about where any future electron will hit, even though the probabilities at specific points can be calculated.[29] (Note that it is not the probabilities of photons appearing at various points along the detection screen that add or cancel, but the amplitudes. Probabilities are the squares of amplitudes. Also note that if there is a cancellation of waves at some point, that does not mean that a photon disappears; it only means that the probability of a photon's appearing at that point will decrease, and the probability that it will appear somewhere else increases.) Thus, we have the appearance of a seemingly causeless selection event in a highly orderly and predictable formulation of the interference pattern. Ever since the origination of quantum mechanics, some theorists have searched for ways to incorporate additional determinants or "hidden variables" that, were they to become known, would account for the location of each individual impact with the target.[30]
Let me guess the "b" in your name stands for "believe"?