by gg3 » Thu 17 Aug 2006, 01:44:32
Hi y'all, sorry about the delayed reply here; nearly got Darwinized last week & just got back from the hospital tonight (more about which later in another topic, and no, I didn't lose any bits along the way...:-).
Sicophiliac:
Yes, a mix of accurate perception, inference, and imagination. In fact that's also what normal awareness consists of, though most people cling to the belief that it's predominantly accurate perception. Most of the people most of the time are neither conscious (aware that they exist and are present) nor lucid (aware of their internal state); although this can be overcome easily enough via mindfulness meditation.
Accurate info as percentage of total compared to random guessing: This is where statistical remote viewing tests come into play. When you're dealing with a constrained target set, i.e. the digits 0 - 9 for example, you can measure the hit rate and determine statistical significance compared to chance. Most of the OBE research has used open target sets, i.e. pictures chosen at random from sets of pictures, that kind of thing, and double or triple blind judging techniques to determine hits and accuracy (see Krippner & Ullman). Research methodology is a topic I could go into for paragraphs so I'll stop for now:-).
Eyeballs in the room: interesting metaphor, and you just came up with a great suggestion whether or not you realized it. My eyes are open, I perceive photons that are bouncing around the room: photons that enter my eye and strike the absorptive medium on the retina presumably are not reflected back into the room again, so you see two dark spots at the locations of my pupils. Generalization: perception of light involves absorption of photons by a sensory organ. Higher-order generalization: photons are conserved; any given photon will travel along until it is reflected off something (in which case it changes direction) or absorbed by something (in which case it adds its increment of energy to the absorptive medium).
Now watch where this gets us (and you'll also see why methodology is such a turn-on). The eye can detect single photons amidst background of complete darkness. OK, now from the beginning of these discussions we've postulated that nonlocality is involved in remote viewing. We know from other work on nonlocality in nonliving physical systems (the classic photon pair experiments) that once you "perceive" a photon with a detector, the state of the other photon in the pair is determined.
So: Consider a long narrow container, we'll call it a "detection chamber", through which individual photons pass one at a time. At the far end of the chamber is a photocell. If some kind of nonlocal perception is detecting a photon as it passes through the container, we might expect that the photon gets depleted of a certain amount of energy in the process, and thereby fails to retain the critical value of energy needed to trip the photocell. But we might see other behaviors instead or in addition: perhaps the polarization of the photon changes (so let's install a polarizing filter), perhaps something else occurs.
I suspect that we will notice some type of behavioral changes of photons that are detected nonlocally.
Here's a protocol:
Once per second a target is generated. The target would be one of a number of types, for example:
1) photon is (a) emitted or (b) not emitted into detection chamber; or
2) photon is always emitted into detection chamber but (a) is polarized or (b) is not polarized, or
3) photon is always emitted and always polarized but could be (a) horizontally polarized or (b) vertically polarized.
Also once per second, as the target photon is generated, a beep tone is played to Bob who is sitting in the human subject room in the psi lab in the next building. Bob's task is to press Button (a) or Button (b) (ten points to anyone who knows the completely irrelevant GPO Telephones reference for "Button A or B":-) depending on his perception of the target photon.
Hypothesis: Those target photons for which Bob scores accurate hits, will demonstrate different behavior compared to those target photons for which Bob scores inaccurately or at chance level. For example, if Bob has accurately perceived a target photon, then the photocell in the detection chamber will be unable to perceive that photon: it will have been "conserved" by being "absorbed" by Bob's nonlocal perception of it.
The test of the hypothesis would of course be the statistical significance of any difference between two groups of results, those being Bob's hits vs. Bob's misses. (For example, two-tailed T-test, looking for P<.01)
Hmm, I don't know if this one has been done yet, but if not, it would be interesting. I should pester a couple of people I know....
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Dimensions: keep in mind that the term "dimension" only means "axis of measurement." Now it may be that my above wild speculation about a hypothesis & test protocol, could be worked as a multidimensional model involving more than fourspace (three spatial plus time). There was a 9-D model I've run across (about 5 years ago) that seemed reasonably elegant; and of course one can come up with a nicely symmetrical 9-D model based on 3 spatial, 3 time, and 3 "information," though how to populate some of the axes is not immediately apparent.
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Here's another wild speculation. What if localized perception & consciousness was the anomaly and the exception, and nonlocality was the rule or the predominant characteristic of things? That is, what if you're really "out of a body" to begin with, and getting stuck inside a brain is the odd exception? Think of being accustomed to seeing and hearing in 360-degrees all the time, and now suddenly you're plonked into a container that only lets you see about a 120-degree field of view unless you rotate the container. (Technically we've already addressed this question but it's interesting to re-examine as a thought experiment.)
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OK, I've rambled enough for now; more later...