Markdown lines 204–346 · Part 2 of 6
with my hands. But the energy that they were measuring was emanating from the solar plexus.
So I found that very interesting. They're continuing to do more work and try and determine
much more about that, again, not that the electrical pulse thing is the thing doing the healing,
we could just hook up a bunch of car batteries if we wanted to do that. In this case, that seems
to be some other phenomena that's happening at the same time that the healing energy is
occurring. Okay. So much for my adventures with the ICMP. I'm going to talk now about
actually I'm going to give you the same presentation that I gave them on what Hemi sync is
because the reason I was out there to talk is ways in which people can obtain altered states of
consciousness that might facilitate the his hearing mode. And then I've tried this out as a lab
tour talk several times. So if you were here last week, you've probably heard this talk before,
but I'll change my story a little bit to make it more interesting. For those of you who haven't
heard this before, this will be kind of new material presented. So I'm going to talk to you about
the same kind of talk I gave to them about how Hemi sync generates altered states of
consciousness and that may be helpful for people doing these healing things. Yeah, if you can
open the curtain mirror, maybe you the middle key. Okay. We're going to talk about using brain
mapping to measure brain waves, brainwaves being in control, I think that they might want that
Mark coat to be able to see the right 14 There you go. If you measure brainwaves, those
brainwaves are paralleled with defined states of consciousness. So just like measuring the little
spark that we're talking about isn't truly measuring the healing energy. If we can measure
some brainwaves, we can get an idea about changes in states of consciousness. So what
we're going to talk about is measuring those brainwaves. To do this, we have a brain mapping
system from Mexico or a company out in Boulder, Colorado. This is a system that is
inexpensive enough for a small organization like ours to have a hospital type system cost
between 50 $150,000 to do brain mapping, but this with $12,000. And your own computer, if
you already have your own computer. For $12,000, you can do brain mapping with this system
here and it's a real nice system has worked really well for us. You hook it up like this, for those
of you who haven't experienced this, this is a cap system that's very much like a woman's
bathing cap, it feels like it's pressing against your head when it's on your head. It has the
electrode position spaced around the head and information runs down this wire and onto the
computer, we lay the person down in the booth like this and plug them into this little gray box
here and send the signals off to the other room, I have to pause here and tell a little story.
Usually when I do this lecture, it's for the people that are the gateway voyage and several of
you have been to the Gateway bridge. And you know, the first thing we do is we take their
watches away. Well, someone jumps up and says she's got a watch on, she's got a watch on.
It's they become very, very interested in what time it is. And so they they begin to look at the
slide and wonder what time it is on her watch there, which doesn't make a whole lot of suits
because I took the picture three or four years ago, that's okay.
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Now this is what the pictures coming off the brain look like initially in there the squiggly line so
that you have all seen on a graph machine when the paper rolls through the graph machine
and makes the squiggly lines, when when they first invented this machine, the first thing they
had to do was make a readout that looked just like what everybody else had always used the
squiggly lines coming out, it's hard to interpret and understand these lines. And we're going to
not look at them again after this. But I just want to show you looking at a computer screen, the
very first thing you can see is what we call the raw EEG or the squiggly lines coming across.
Moving from that we can do different analysis. This one is a topographic and spectrum
analysis. By topographic I mean this is organized, the way the head is organized. And if you
look at this picture of the head, you can see how the letters parallel certain positions on the
head. Well, that's you're just like you're looking down on top of somebody's head with a nose
up. Well, that's the way all these figures are going to be that we're going to look at. So here
we're looking down on the top of the head with a nose up. And these are the bar graphs are
easy to understand in terms of frequency, here's a zero to 64 cycles per second guide here
and we can just lay that right up on any one of these Intel what frequencies are predominant
this one particular time. This is one second of information. So when we do a brain mapping, we
collect lots and lots of seconds of information.
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Here is a different analysis here using Fast Fourier Transform mathematics. And if you
memorize that, then you can go home and impress your friends. Fast Fourier Transform
mathematics means that if I look at this and you say okay, so that's a brainwave, but what free
Couldn't see is it? Well, you can go over here and say it's made up of a lot of different
frequencies. Predominantly, it's made up of alpha here. So we have delta frequencies, Theta
Frequencies, alpha, beta, and gamma. But the Fourier transform mathematics can break out
and determine what are the frequency components of this wave, and then makes a little bar
graph easy to read here, and breaks them out into the proportions that they exist within that
waveform itself. So it's really a nice, very quick, detailed analysis. Once the information is
inside the computer, it will tell you anything you want to know, you just have to think of the
question that you want to ask it. Here's what it looks like when it's mapped out the same Epic's
of data, the same one second of information, that now it's in a map form, and by map form, I
mean, these are the amplitudes, various frequencies, these ovals over here pertained to Delta
frequencies, and these are ovals representing what's happening in delta. This is theta here.
And these ovals represent what's happening in theta in this is alpha. In this case, now we can
ask the computer to look at any ranges of frequencies. This is just delta, theta and alpha for
now. The top row of ovals represent absolute values. The bottom row of ovals is more
interesting to us at this time, because it represents relative values, meaning that these are
mathematically compared with one another for power purposes. And what this is saying to us,
this bottom row is saying to us is that in the Alpha range in the back of the head, here, there's
a lots of amplitude of alpha, there doesn't seem to be in comparison, very much power in these
ovals here. This being the power scale, and the brighter colors here are representative. So just
a very quick look at this, you say well, what's happening, he's got a whole lot of alpha in the
back of his head. That's what's happening in this picture. And that's a whole lot easier to see in
this picture than it was in those squiggly lines when I first showed you, although it's the same
situation, same moment in time, it's very easy to look right at this and say there's a lot of alpha
in the back of the head here. We call that resting state alpha, which we'll talk about a little bit
more. Here are some of the kinds of things that we're here at the Institute look at in terms of
what's going on with brainwaves here.
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Don't change a quick look at? We're going to talk about several of these as we go along.
What's the black thing on the left hemisphere? Is he on camera? Yeah, this is black, meaning
there's nothing happening. It's not like there's a hole in his head. It's just saying there's no
activity there. The blue is very, very low activity happening. How can someone not have
anything? Yeah, that's a good idea. In this is looking at only the gamma frequencies. Okay? So
it's saying there's no gamma there. At the same moment in time, they might have some other
frequencies happening there. But it's saying in the gamma range, there is nothing happening.
Okay, gamma frequency, anything right now, anything about 30 cycles per second, we've
lumped into the range of gamma. We've learned over the years to talk about delta theta, alpha
and beta. And now with the advent of computerized electroencephalography, there's another
one you can learn to say really fast computerized electroencephalography. We can look at
frequencies faster than 30 cycles per second, for 40 years, there were no brain waves faster
than 30 cycles per second, because those little pins couldn't spoil any faster than 30 times per
second. So there's simply no research on basis of brainwaves happening over 30 cycles per
second. Now, since 1982, when these concepts were all invented, began to look at brainwaves
moving much, much faster. In at UCLA, they're looking at some brainwaves up in the kilohertz
ranges that are happening. So you have to have an expensive machine to look at that. I want
to go into now, talking about not laying a foundation first about what the greater community
knows about brainwaves and state of consciousness. And so this isn't Monroe Institute stuff
right now this is just kind of a background of what the community knows about in the literature
says about brainwaves and altered states of consciousness. And then from that basis, we'll
look at what Hemi Sync does to your brain. So to start out with I'm going to talk about two
things very simplistic things dissociative states of conscious dismissing transcendent states of
consciousness. And these are not academically complete definitions that we're going to be
using. But they're going to be just simple things that we can talk about really easily. For
example, in transcendent states of consciousness, the Tibetans have 251, discrete, different
transcendent states. And I won't be covering each one of those this afternoon, I'm going to
lump them all together and just talk about the thing called transcendent states of
consciousness. Let's talk about dissociative states of consciousness. First. Dissociative states
of consciousness are very common to all of us. Because it's very much like sleeping and
dreaming is your basic dissociative state of consciousness. And we have these really rough
definitions of it saying that
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the things that you perceive to be happening to you are non physical, for example, in a dream
when you're dreaming about running down the beach, and you feel the sand beneath your feet,
and you hear the sound of the surf and so forth. Those are not physical indicators. Those are
somehow non physical things that are happening to you that comprise your experience.
Physically, what's happening is you're laying in bed, and the blankets are on top of you, and
the sheets are below you, and so forth, and so on. So the experience you're having is the
result of non physical input. So we can say that's kind of one of the first things you also are not
normally in your physical body, meaning that the physics of being in my physical body don't
apply in this particular condition. If I want to go upstairs, now, I simply have to take this body of
mine and walk up the stairs to get upstairs. That's the physics of being here. In a dissociative
state of consciousness, I might just wonder, in my mind, well, I wonder what's upstairs and
blink, I'm right there. So the physics of having to maneuver this body around are different. In
terms of what's happening with the physical body, it's usually laying on the bed totally asleep,
or in some sort of a trance. So these are just very general concepts of what it takes to be in a
dissociative state of consciousness. Obviously, if they were always to talk about focus levels,