[00:04.850 --> 00:11.430]  So, it's kind of interesting because I can't see the screen here, but I can see it there,
[00:11.430 --> 00:13.830]  so I have a little bit of weatherman action happening.
[00:14.470 --> 00:19.690]  But, okay, this is the telematic site, and my partner in this,
[00:19.690 --> 00:24.070]  so I'm not just some sort of guy wandering around, is, well, I am that too,
[00:24.070 --> 00:29.230]  but is Dr. Cameron Jones of the Swinburne University of Technology.
[00:29.230 --> 00:31.490]  He's really the pioneer in this field.
[00:31.490 --> 00:40.510]  If you see the new light there, swirling around, that is the, is that the one?
[00:40.510 --> 00:42.390]  The paper that started it all.
[00:43.150 --> 00:47.290]  And what he's done, he's been doing this since, really, the early 90s.
[00:47.430 --> 00:49.890]  His PhD was a couple of years ago.
[00:51.170 --> 00:55.990]  He's the CD spiral, or the CD-ROM computing guru,
[00:55.990 --> 00:58.950]  and in fact, he's the only person who's been really doing it.
[00:59.550 --> 01:04.350]  There's a project, we went around and scouted the other competition,
[01:04.350 --> 01:08.570]  and there's a project at UCSD, and they posted they're going to be doing something in July.
[01:08.570 --> 01:12.090]  I don't know if they looked at our website and said, hey, we've got to do something soon,
[01:12.090 --> 01:15.410]  but it's almost August, so.
[01:16.270 --> 01:23.510]  The race is on for homebrew molecular biochips, which is what this ultimately is.
[01:24.290 --> 01:28.050]  But, what Dr. Jones has done is,
[01:28.870 --> 01:32.310]  you can specially mob these disks, and here's another shameless plug,
[01:32.310 --> 01:35.130]  we are going to be selling the disks next year.
[01:35.290 --> 01:39.930]  I'm going to be moving to Australia and New Zealand to work on it with him.
[01:39.930 --> 01:43.850]  And we're going to be selling, basically, they're treated disks,
[01:43.850 --> 01:49.290]  that you can lay bio-organic goo, or mass, or matter, whatever you want to call it, over.
[01:49.290 --> 01:54.810]  And have it stick on the chip, or have it stick on the disk,
[01:54.810 --> 01:57.290]  treat the disk as part of the mod process.
[01:57.530 --> 02:01.830]  But, beyond that, you put it in a CD drive, which we also supply,
[02:01.830 --> 02:03.830]  but you can also hook it into your system,
[02:03.830 --> 02:09.290]  so hackers can really use the tools to read or scan a biochip.
[02:09.570 --> 02:17.270]  And the CD-ROM scanners, right now, can read medical bacteria,
[02:17.270 --> 02:22.070]  if you're, you know, human bacteria, if you want to determine what kind of ailment you have.
[02:22.090 --> 02:24.410]  That's one of the main applications.
[02:24.690 --> 02:29.610]  This application here, of special interest to people here, is crypto.
[02:30.670 --> 02:43.470]  And, curiously, the patterns on a molecule, microbial molecule, are fractalic,
[02:43.470 --> 02:51.290]  and similar in nature to an MD5 hash data set.
[02:51.770 --> 02:56.290]  So, if you go down here, this is the basic method we're using.
[02:56.290 --> 03:01.470]  You can see it bounces off the ROM, it goes through some processing,
[03:02.190 --> 03:03.970]  and then it reads out on the other end.
[03:03.970 --> 03:06.030]  I'm writing the Linux software for it right now,
[03:06.030 --> 03:10.290]  and we're going to be selling it as a black box, or a white box,
[03:10.290 --> 03:12.830]  but a lot of the crypto stuff is already functional.
[03:12.830 --> 03:14.670]  It's been functional for a while.
[03:18.180 --> 03:22.020]  So, this is the hash and message digest function.
[03:22.840 --> 03:26.520]  Hash and message digest function is a one-way procedure.
[03:27.340 --> 03:28.880]  That is...
[03:30.360 --> 03:34.980]  So, you can read that, and what goes on is,
[03:35.960 --> 03:41.220]  that function can actually be performed on the data that you lay it over.
[03:41.220 --> 03:46.600]  It can really be done at all input-output levels, with all keys.
[03:46.720 --> 03:50.040]  What it does is, it simulates that kind of crypt key.
[03:51.500 --> 03:57.500]  And those are the differences when you change the keys.
[04:17.280 --> 04:20.380]  So, it will, in fact, encrypt the data differently.
[04:24.710 --> 04:27.250]  Pretty interesting, because of the speed.
[04:28.470 --> 04:31.250]  The speed of the encryption process is...
[04:32.310 --> 04:41.540]  It's based on the hardware of laying over a microbial organic mass on a CD.
[04:42.770 --> 04:47.690]  So, it's taking place with the light interactions between the optical head and the disk.
[04:48.270 --> 04:53.910]  And that's a lot faster than what takes place in a normal chip.
[04:53.910 --> 04:55.610]  A lot faster.
[04:56.510 --> 04:59.290]  So, some people are doing it right now.
[04:59.310 --> 05:06.910]  But you need the treated disks, and you need a modded CD-ROM drive that can sterilize your biomass.
[05:07.630 --> 05:12.850]  But other than that, our software is going to be fairly open-ended.
[05:13.090 --> 05:21.690]  And I'm setting up a P2P site, so you can do computation using this technique on a distributed network.
[05:21.690 --> 05:27.630]  So, everybody can run these little biochips that are on top of their disks off a distributed network.
[05:27.650 --> 05:29.570]  Now, the key for all of this is...
[05:29.570 --> 05:36.150]  In case you don't know, a CD-ROM path, or the track on a CD-ROM, is an Archimedean spiral.
[05:37.270 --> 05:40.090]  It's several kilometers long, believe it or not.
[05:40.090 --> 05:43.490]  It's 22,000 revolutions, approximately.
[05:45.110 --> 05:50.430]  22,188, just to end some change, like .604 something, just to show you that.
[05:50.430 --> 05:52.830]  I've been doing some of that.
[05:52.870 --> 05:58.770]  But, when you burn a disk, it forms a shallow pit on the disk.
[05:58.790 --> 06:05.130]  A professional burner, or a commercial burned disk, will be a clean cut.
[06:05.550 --> 06:09.570]  If you use your CD-ROM burner, it will have jagged edges along it.
[06:12.070 --> 06:14.210]  Jump back here...
[06:14.210 --> 06:16.950]  Okay, so that's the crypto stuff.
[06:16.950 --> 06:20.430]  And what happens is the mass is laid over those pits.
[06:21.050 --> 06:24.890]  The scanner is supposed to scan the pits.
[06:25.130 --> 06:29.870]  But instead, what it does is it hits the organic matter.
[06:29.870 --> 06:35.010]  It hits cellular 3D molecules at 700 nanometers.
[06:35.450 --> 06:42.910]  Now, a hydrogen molecule is under 1 nanometer, .5 nanometers, depending on the type of hydrogen.
[06:44.010 --> 06:47.410]  These are real atoms, not virtual atoms.
[06:48.650 --> 06:56.510]  It's not a PNP. It's an actual molecule with protons and neutrons inside it.
[06:56.950 --> 07:04.950]  So, it hits that at 700 nanometers, but instead of reading the pit and bouncing off it and giving it a 0 or a 1,
[07:06.810 --> 07:14.670]  when it runs through the checksum, there's a standard series of checksums that all the CD-ROM software uses,
[07:14.670 --> 07:16.630]  it gives a bunch of errors.
[07:18.030 --> 07:23.630]  So, we get those errors, and that's what we base our molecular reading scans on.
[07:23.630 --> 07:28.630]  So really, what it is, is an incredibly cheap microscope.
[07:29.530 --> 07:38.090]  That can, right now, discern bacteria, and it can also encrypt data extremely fast.
[07:42.600 --> 07:47.740]  That's the site. I have some shots of the spiral, because what we're going to do is,
[07:47.740 --> 07:55.000]  we're turning all of this, beyond the crypto, I'm turning the technology into a learning site for Australia,
[07:55.000 --> 08:01.900]  really for the world, so you can go and poke around it and see what all you can do with a CD-ROM spiral.
[08:02.200 --> 08:08.980]  The next major innovation we're working on, if you're interested in really pushing the edge,
[08:08.980 --> 08:13.320]  is a cellular CCD cluster that sticks on the back end of a disk.
[08:13.720 --> 08:21.860]  I discovered this when I was working on this, but actually, CD disks and DVD disks are semi-transparent,
[08:21.860 --> 08:25.440]  so you can actually see some of the light that passes through those disks.
[08:25.940 --> 08:29.700]  And CCDs can see some of the light that passes through those disks.
[08:29.700 --> 08:36.180]  So you put a CCD on the other end of the disk, and your scanner on the top, and the scanner shoots through the disk,
[08:36.180 --> 08:40.880]  and the CCDs beneath the disk read the light and read different levels of the light.
[08:41.020 --> 08:48.100]  But still, your average CCD, the quantum efficiency of an average CCD is maybe in the tens of thousands,
[08:48.100 --> 08:52.700]  so the number of electrons it will pick up is in the 10,000 range.
[08:53.820 --> 08:58.880]  That's not a single photon scanning CCD at 3 degrees Kelvin.
[08:58.880 --> 09:03.100]  You're not going to get quantum or molecular even precision off of it.
[09:03.340 --> 09:10.980]  But my other idea is clustering these CCD chips, the really cheap ones you can get off webcams,
[09:10.980 --> 09:18.020]  putting some kind of cooling on them, and running some more silencers on them, and synthesizing the data.
[09:19.500 --> 09:23.740]  So that's what I mean when I say putting a cluster on the back of the disk,
[09:23.740 --> 09:26.880]  so you can actually read the light. That's a good sign.
[09:26.880 --> 09:32.160]  So these are not the Pitt-Groove maps, but these are some maps I made of the convolver.
[09:32.820 --> 09:38.720]  This is actually Pavre, it's not done with the 3D regular wireframe mesh modeler.
[09:38.780 --> 09:40.800]  But it looks like the internet's down.
[09:42.180 --> 09:43.260]  Is it?
[09:45.620 --> 09:46.540]  Okay.
[09:46.980 --> 09:51.760]  These little things here, this is just more stuff to show you the scale of the spiral,
[09:51.760 --> 09:55.220]  so you can see the scale that the spiral's happening at.
[09:55.220 --> 09:58.340]  And over on the right, that's some coordinate translation.
[09:58.440 --> 10:03.140]  The main thing is every time you read a coordinate off a spiral,
[10:03.140 --> 10:07.100]  you have to translate that to the XY coordinate on the disk,
[10:07.100 --> 10:09.900]  so you can get a physical location.
[10:09.900 --> 10:13.060]  You're still getting a physical location when you get the point on the spiral,
[10:13.060 --> 10:15.000]  it's just you have to translate it out.
[10:15.120 --> 10:17.860]  So that's what the visualization is going to do.
[10:19.000 --> 10:25.220]  There's a technology called Ajax, it's really JavaScript, XML, and CSS,
[10:25.220 --> 10:28.580]  all these technologies fused together, they're old technologies.
[10:28.580 --> 10:33.860]  But they're getting faster and faster, and some of the games are actually better
[10:34.540 --> 10:37.360]  in a lot of ways than applets, because they don't crash your browser,
[10:37.360 --> 10:40.520]  and they don't take forever to load, but they're still nice and smooth.
[10:40.720 --> 10:44.340]  So we're going to start producing a lot of the interactive images for this
[10:44.340 --> 10:47.100]  in Ajax and JavaScript Interactive.
[10:47.100 --> 10:51.160]  So when you go in, you can actually... Google Maps is done that way,
[10:51.160 --> 10:55.660]  so you can move around the spiral, like you can move around a big Google Map.
[10:56.680 --> 11:00.680]  And you can see real-time scans taking place on the spiral,
[11:00.680 --> 11:02.840]  like you can move around a Google Map.
[11:02.840 --> 11:07.540]  So we'll map out the mesh of the 3D organic goo on the disk,
[11:07.540 --> 11:10.420]  and you can move around it, because it's so huge.
[11:10.600 --> 11:13.080]  Let's see if the network's back up, so you can see the scale.
[11:13.080 --> 11:15.840]  You can move around it like you'd move around a Google Map.
[11:15.840 --> 11:17.300]  It's still down.
[11:18.500 --> 11:23.540]  So all this stuff is the size of the bit, how the bit size can vary.
[11:23.540 --> 11:28.740]  These bricks are actually not accurate representations of the spiral bit.
[11:28.740 --> 11:32.000]  They're more like spheres, which are easier to render.
[11:32.360 --> 11:34.600]  But they're stretched out, usually.
[11:40.200 --> 11:40.980]  Okay.
[11:41.140 --> 11:43.100]  Alright, well, we have no network.
[11:43.200 --> 11:47.000]  But at least we have this page, and...
[11:47.560 --> 11:50.280]  One of the other areas, one of the other apps,
[11:50.280 --> 11:53.640]  is something called PolyVault Geospheres.
[11:53.640 --> 11:57.000]  It takes the molecular structures on the disk,
[11:57.860 --> 12:02.440]  and it's an attempt to pick up small energy signatures,
[12:02.440 --> 12:07.060]  like you'd pick up large energy signatures with a collider.
[12:07.640 --> 12:12.340]  So really, one of my goals is to tune small molecular configurations,
[12:12.340 --> 12:13.840]  like Radiolaria.
[12:13.840 --> 12:22.080]  There's a site called www.radiolaria.org.
[12:22.120 --> 12:24.900]  And it has all these fantastic designs.
[12:24.900 --> 12:27.760]  They're a lot more intricate than Buckyballs.
[12:29.400 --> 12:35.020]  They're slightly larger and organic, but they still are enclosures.
[12:35.160 --> 12:40.260]  So I'm looking at tuning those enclosures to pick up very subtle energy signatures.
[12:40.260 --> 12:46.000]  Because when you have a collider, and a proton and an antiproton hit,
[12:46.000 --> 12:48.940]  there are millions and millions of decays that occur.
[12:49.860 --> 12:54.600]  So in order to read those decays, you need a quantum-capable computer.
[12:54.600 --> 13:00.300]  But in order to get a quantum-capable computer, you need to read those decays.
[13:00.300 --> 13:02.480]  So it's a real paradox.
[13:03.380 --> 13:06.660]  Because this is molecular technology,
[13:06.660 --> 13:11.860]  and basically what you'll have is the capability of making a molecular biochip
[13:12.760 --> 13:16.900]  for pennies on the dollar, which is orders of magnitude faster
[13:16.900 --> 13:23.920]  than a large Optron AMD64 supercluster, or even Blue Gene.
[13:24.440 --> 13:28.340]  If you have enough of these glue blobs spread out in your apartment,
[13:28.340 --> 13:31.420]  you're going to really get a much, much faster machine.
[13:31.920 --> 13:35.660]  One of the keys to accepting a lot of this is chaos computing,
[13:35.660 --> 13:40.500]  which is using genetic algorithms and really a massively parallel process.
[13:40.500 --> 13:44.600]  Because the interactions that take place within these glue masses,
[13:44.600 --> 13:48.360]  they're semi-random, they're not entirely linear.
[13:48.420 --> 13:52.360]  There is an order and a linearity to these molecular structures,
[13:52.360 --> 13:56.260]  but it's not like something you'd read when you look at a blown-up diagram
[13:56.260 --> 13:59.800]  of a microchip, where everything is a big grid.
[14:00.380 --> 14:04.520]  And it's all taking place in 3D, so it's a lot more complex.
[14:04.520 --> 14:09.680]  And you really can't do it with a linear programming approach.
[14:09.680 --> 14:11.940]  You need a chaos programming approach.
[14:11.940 --> 14:15.820]  I really only found a couple references to chaos computing,
[14:15.820 --> 14:20.220]  and that's sort of picking out the subtle EM vibrations
[14:20.220 --> 14:23.140]  and attaining switching power from there.
[14:23.320 --> 14:27.200]  But anyways, so that's the chicken-and-the-egg paradox.
[14:27.200 --> 14:31.360]  In order to get these quantum signatures, and in order to get a quantum computer
[14:31.360 --> 14:34.260]  that powerful, you can start out at the molecular level,
[14:34.260 --> 14:37.840]  and then sort of, as the main app for all these molecular chips
[14:37.840 --> 14:40.420]  that we're looking at designing, it's tunneling in.
[14:40.740 --> 14:43.560]  Obviously, tunneling into smaller and smaller,
[14:43.560 --> 14:46.120]  switching and smaller and smaller, switching mechanisms
[14:46.120 --> 14:47.900]  to build a faster computer.
[14:47.900 --> 14:51.840]  So you have a regular, maybe an optron cluster as your outer shell,
[14:51.840 --> 14:54.460]  and inside that shell you have molecular chips.
[14:54.460 --> 14:57.360]  Inside that shell you have, maybe, atomic chips.
[14:57.360 --> 15:00.340]  And inside that, if your configurations work,
[15:00.340 --> 15:02.580]  you have a subatomic realm.
[15:02.640 --> 15:07.300]  And you can keep probing, and a lot of the ways that people are discovering gravity
[15:07.300 --> 15:13.480]  or anti-gravity is to read particles decaying.
[15:13.980 --> 15:18.540]  All of those decays, they usually don't read in these huge colliders
[15:18.540 --> 15:21.740]  because there's too many of them.
[15:22.140 --> 15:25.700]  But with a powerful enough system, one of the things that we want to look at
[15:25.700 --> 15:27.240]  are all these decays.
[15:27.240 --> 15:31.640]  It's a very generic, basic problem that people who want to look at supercomputers,
[15:31.640 --> 15:33.320]  they look at the weather, they look at chips.
[15:33.320 --> 15:34.880]  Did you have a question there?
[15:42.250 --> 15:46.270]  Yeah, that is the case. That's what's currently functional.
[15:46.270 --> 15:49.490]  We're also able to do crypto and MD5 encryption
[15:50.110 --> 15:52.450]  with certain fractalic patterns.
[15:56.150 --> 16:00.310]  That is what I'm doing with a lot of the chaos computing technology,
[16:00.310 --> 16:03.270]  is looking at what else they can do.
[16:03.830 --> 16:06.670]  There is genetic algorithms.
[16:06.670 --> 16:09.650]  There's a bunch of books out on genetic algorithms.
[16:09.650 --> 16:14.610]  I really haven't seen too many functions that define a fitness of a switching process
[16:15.970 --> 16:19.490]  and basically throw things in the chaotic soup
[16:19.490 --> 16:23.170]  until they obtain those switching results.
[16:23.590 --> 16:26.490]  So that's one of the things that I want to do with chaos,
[16:26.490 --> 16:29.230]  or that I'm working on with chaos computing and genetic algorithms
[16:29.230 --> 16:34.970]  to define a problem, define something like rendering something in 3D very fast.
[16:35.030 --> 16:39.770]  So if you can have a biochip that does a 3D calculation extremely fast,
[16:39.770 --> 16:43.070]  then I guess you've proven your case once again.
[16:43.350 --> 16:48.810]  It's all really slow because the I.O. is based off a DVD head or a CD head.
[16:48.810 --> 16:51.190]  It's 700 nanometers, which is still good.
[16:51.190 --> 16:53.070]  You're going to get a lot of I.O. off that.
[16:53.070 --> 16:56.770]  But it's only one head, and then it's getting processed in your computer.
[16:56.770 --> 17:03.270]  But if it's a very complex calculation that's taking place on the I.O. chip,
[17:03.270 --> 17:08.010]  like MD5, or like a scan even,
[17:08.310 --> 17:11.530]  though that's technically not a switching function,
[17:11.530 --> 17:14.550]  it's a breakthrough.
[17:14.550 --> 17:19.110]  It's definitely something that is worthy of attention.
[17:20.150 --> 17:24.590]  So there's a lot of problems that can be solved this way.
[17:24.590 --> 17:27.370]  Mainly speed and cost.
[17:27.370 --> 17:30.090]  You can make your own biochip here.
[17:30.390 --> 17:33.710]  You're ahead of everybody else in the computing game.
[17:34.230 --> 17:36.790]  So I don't know if the network's backed up.
[17:37.050 --> 17:38.370]  I go down the list here.
[17:38.370 --> 17:39.610]  What this does is...
[17:39.610 --> 17:42.210]  The site is Telematics.
[17:42.210 --> 17:46.030]  It's off magicgardenlabs.com, Molecular Media Project.
[17:46.090 --> 17:50.550]  We are going to hook up the technology there and run it in real time
[17:50.550 --> 17:55.250]  and have these scans and switching functions running in real time on CD hardware there.
[17:55.250 --> 17:58.990]  So you can go onto the website and see the CD being scanned
[17:58.990 --> 18:01.990]  and see the biomass being scanned on the website.
[18:01.990 --> 18:03.230]  Play with it.
[18:03.450 --> 18:08.550]  One of the things that I'm working on are virtual filters that fit on top of the disk.
[18:08.630 --> 18:12.870]  So you can sort of pretend filter the data.
[18:13.090 --> 18:17.070]  You can also synthesize the filters with genetic algorithms.
[18:17.070 --> 18:21.030]  So the filters are generated using a random mutation process.
[18:21.390 --> 18:25.290]  And then they're synthesized using a random mutation process.
[18:25.630 --> 18:29.050]  So all of it right now is at the code vet level.
[18:29.050 --> 18:31.210]  So the functions aren't too complex.
[18:31.210 --> 18:33.230]  Nothing too complex happens.
[18:33.450 --> 18:37.930]  They just sort of feed out and see how basic they can get.
[18:38.810 --> 18:42.270]  So that's good I got that one on there.
[18:42.270 --> 18:45.430]  Oh, it is?
[18:45.610 --> 18:46.770]  Okay.
[18:46.950 --> 18:50.450]  So that's really the spiral generation code.
[18:50.610 --> 18:52.650]  That's not going to be too much.
[18:52.770 --> 18:55.190]  Let's go back up here.
[18:55.570 --> 18:58.050]  And this is the actual page.
[19:00.470 --> 19:02.530]  No, I don't...
[19:02.530 --> 19:05.750]  Well, they're down. Maybe this one isn't down.
[19:10.860 --> 19:12.140]  Okay.
[19:12.140 --> 19:14.800]  I can't even read this online.
[19:16.940 --> 19:18.060]  Anyways.
[19:20.460 --> 19:23.800]  Here's some links. Optical disk specifications.
[19:23.800 --> 19:26.360]  This is some more graphic stuff at the bottom.
[19:26.680 --> 19:34.600]  So the switching and the chaos and the idea of using genetic algorithms to speed things up is nothing new.
[19:34.600 --> 19:36.020]  There's a kernel trap.
[19:36.020 --> 19:41.260]  On kernel trap there's a Linux patch for tuning a Linux kernel with genetic algorithms.
[19:41.260 --> 19:43.860]  I have a link to it. I don't think it's on this page.
[19:43.860 --> 19:45.640]  But it's on one of my link lists.
[19:45.760 --> 19:50.600]  So it goes through and it guesses the fastest way to tune your Linux system.
[19:50.600 --> 19:54.580]  And it gives usually a 10-20% performance improvement.
[19:54.680 --> 20:00.100]  Which is really significant since you spend a couple hundred bucks to get that much faster on your CPU.
[20:01.080 --> 20:04.080]  But that's really sort of the base level of it.
[20:05.220 --> 20:08.000]  It's really, really fast stuff.
[20:08.000 --> 20:12.340]  And then there's a couple other pages.
[20:12.340 --> 20:14.820]  There's a switching page which is also real big.
[20:14.820 --> 20:20.800]  We're looking at doing models of the microbial structures to see how they bounce light around.
[20:20.800 --> 20:22.320]  To see how they compute.
[20:24.560 --> 20:27.100]  So I got about 10 minutes left.
[20:27.100 --> 20:28.540]  Are there any questions?
[20:29.280 --> 20:30.060]  Yeah.
[20:37.630 --> 20:44.730]  The website is telescope3d.sourceforge.org
[20:47.010 --> 20:49.150]  CCD is really synthesis.
[20:49.150 --> 20:52.330]  There's a guy, Steve Chambers, who has the QYAC club.
[20:52.330 --> 20:55.830]  The quick cam imaging group out of the UK.
[20:55.830 --> 20:59.750]  And he's gone around and synthesized time based.
[20:59.750 --> 21:02.570]  He's done time based synthesis.
[21:02.570 --> 21:08.390]  But really all it is is basic interferometry between two CCDs that are close together.
[21:08.390 --> 21:10.730]  I just call it cellular interferometry.
[21:10.730 --> 21:13.490]  So if you have two CCD chips like this.
[21:13.490 --> 21:17.490]  Combining the data on the chips to see if you can get a resolution improvement.
[21:17.950 --> 21:19.490]  So you have a huge cluster.
[21:19.490 --> 21:24.230]  It's making a large CCD chip out of a bunch of little CCD chips.
[21:24.770 --> 21:26.450]  So that's much cheaper.
[21:26.450 --> 21:31.790]  You can just go around and steal webcams and link them together and synthesize the data.
[21:31.790 --> 21:34.470]  But I'm working on getting all the code in.
[21:34.470 --> 21:37.030]  The first, I have a list of experiments.
[21:37.030 --> 21:43.790]  And the first experiment that I'm doing with the software is actually taking these filters.
[21:43.790 --> 21:46.510]  Taking different, it's reverse interferometry.
[21:46.510 --> 21:51.090]  So it takes an optical disc head read at different points along the disc.
[21:51.090 --> 21:54.870]  And then it synthesizes those reads into one image.
[21:59.400 --> 22:01.280]  Sourceforge.net, right.
[22:04.510 --> 22:06.530]  Let's back up.
[22:07.870 --> 22:15.710]  So a lot of the math is FFT, Fast Fourier Transform, Discrete Cosine Transform.
[22:15.710 --> 22:21.030]  When we sell the box, those graphs will come up in real time on the box.
[22:21.030 --> 22:23.230]  It will have a web-based interface.
[22:23.230 --> 22:25.870]  I'm working on a touchscreen one too.
[22:25.870 --> 22:29.510]  But you can see the data stream out from the scans.
[22:29.510 --> 22:32.230]  So it can differentiate bacteria.
[22:32.790 --> 22:36.290]  And then also the crypto is the other function.
[22:36.290 --> 22:39.710]  If you want to learn more about the crypto, you can go to this.
[22:39.830 --> 22:42.650]  Just do a search for the Molecular Media Project.
[22:43.350 --> 22:46.310]  And that's where all these links are for crypto.
[22:48.290 --> 22:52.870]  And if you want to try it, there's information there on duplicating the experiment.
[22:53.170 --> 22:56.730]  And like I said, we're going to be selling the discs next year.
[22:56.730 --> 22:59.910]  The discs are specially treated biodiscs.
[22:59.910 --> 23:03.610]  But you can use them in a normal PC if you follow the process.
[23:03.610 --> 23:07.490]  And we have a couple more things to sterilize the discs.
[23:07.850 --> 23:09.750]  A couple more mods we're selling.
[23:10.730 --> 23:13.890]  So it's going to be a white box that does the scanning.
[23:13.890 --> 23:19.090]  And it's going to have hacker applications, really, to create your own switching.
[23:19.090 --> 23:23.470]  To create your own biochip to beat the silicon guys.
[23:23.470 --> 23:24.750]  To beat silicon.
[23:25.290 --> 23:28.650]  I guess that's one term. I've never given this talk before.
[23:28.650 --> 23:32.810]  I was called up. I had my Frank the Tank incident last night.
[23:33.030 --> 23:36.650]  I went to sleep, barely. And I live here, luckily.
[23:36.650 --> 23:38.510]  But I mean, I go to these things all the time.
[23:38.510 --> 23:41.410]  I went to CCC two years ago.
[23:41.630 --> 23:43.570]  And it was a great time.
[23:43.570 --> 23:46.070]  And there was What the Hack this weekend in Holland.
[23:46.070 --> 23:48.630]  I was like, oh, I wish I was there. And then I saw this.
[23:48.750 --> 23:52.670]  The stuff here is much better than what I saw on the website.
[23:52.670 --> 23:55.010]  So I worked down the road. It's the easiest thing to get to.
[23:55.010 --> 23:58.190]  So I got a call around 9. I was still trying to sleep.
[23:58.190 --> 23:59.610]  Though I couldn't sleep.
[23:59.810 --> 24:02.490]  At 9.30 in my apartment over in Henderson.
[24:02.650 --> 24:04.170]  And they said, oh, can you come to talk?
[24:04.170 --> 24:06.710]  And 9.30 is about 40 minutes ago.
[24:07.050 --> 24:08.810]  I'd never given this speech.
[24:08.810 --> 24:11.790]  I sent Dr. Jones an email.
[24:11.790 --> 24:13.870]  I had my Frank the Tank incident.
[24:13.910 --> 24:18.470]  And I got a spot. And I didn't have any time to prepare it.
[24:18.470 --> 24:19.970]  And then the internet went down.
[24:19.970 --> 24:24.310]  So I have plenty of excuses for boring everyone to death.
[24:24.550 --> 24:31.230]  But I'd like to give a talk that goes into more detail about the MD5 and the crypto.
[24:31.230 --> 24:35.170]  But I can't even read the PDF to see where we're at.
[24:35.270 --> 24:37.510]  But it is pretty cool. And it does work.
[24:37.510 --> 24:38.870]  And you can email it.
[24:39.230 --> 24:40.930]  These are the main links to look up.
[24:40.930 --> 24:44.510]  The Magic Garden for free, or for real, is freeware.
[24:44.510 --> 24:48.070]  It's just basically a bunch of source code, like mutation C code.
[24:48.070 --> 24:50.950]  Real basic C functions that mutate code.
[24:50.950 --> 24:53.830]  What I'd like to do is run it all into Parrot.
[24:53.990 --> 24:57.570]  Which, believe it or not, they've built parts of Perl with Parrot.
[24:57.570 --> 25:02.550]  And Parrot is a very, very low-level language that can do really, really...
[25:02.550 --> 25:04.550]  It looks like assembly when you read it.
[25:04.550 --> 25:07.210]  So it can function as a meta-assembly language.
[25:07.650 --> 25:11.450]  So I'd like to code some of these biochips with Parrot.
[25:11.450 --> 25:14.490]  So when you do the tunneling, you don't have to change the software.
[25:14.490 --> 25:20.690]  If you have the same assembly context, it can sort of fit to the hardware.
[25:21.010 --> 25:25.310]  And build itself all natively with genetic algorithms.
[25:25.310 --> 25:28.270]  And with chaos computing and chaos switching.
[25:28.270 --> 25:33.410]  This is all stuff that I want to do from the ground up with these chips.
[25:33.410 --> 25:39.970]  My main personal interest for the Molecular Media Project in my thesis and dissertation...
[25:40.910 --> 25:45.970]  ...are atomic structures or molecular structures for sensing subtle energy patterns...
[25:46.810 --> 25:51.110]  ...to get around the chicken-and-the-egg paradox of supplying more and more power...
[25:51.110 --> 25:57.450]  ...whether it's energy or computing power to capturing subatomic decays.
[25:57.530 --> 26:03.970]  So I'd like to run those into a P2P distributed global computing website...
[26:03.970 --> 26:10.970]  ...for the Holy Grail, which is capturing gravity, developing antigravity...
[26:12.890 --> 26:18.350]  ...sensing antigravity particles using distributed global computing.
[26:18.450 --> 26:23.390]  I mean, the website is still called The Sleeping Giant is Awakening...
[26:23.390 --> 26:26.470]  ...so I guess The Sleeping Giant is taking a while to awaken.
[26:27.410 --> 26:29.230]  I think I'm almost out of time.
[26:29.230 --> 26:34.250]  Like I said, I know people here really wanted to hear more about the crypto.
[26:34.650 --> 26:37.670]  Are there any more questions about it, or in general?
[26:43.490 --> 26:45.510]  Right, right.
[26:50.120 --> 26:52.860]  Well, there are a couple of different ways.
[26:52.860 --> 26:54.600]  Their patents are pending.
[26:54.740 --> 26:59.640]  If you look on the website, you can sort of infer the process.
[26:59.640 --> 27:03.700]  It basically is like a baking process that it goes through.
[27:05.300 --> 27:12.240]  And there's also a sterilization process, and that requires a lot of UV.
[27:12.240 --> 27:18.040]  The mod that we're selling is a sterilization mod, and the patent's pending on it.
[27:18.040 --> 27:25.520]  It involves UV light, some infrared light, and even some air ozonators in the contraption.
[27:25.520 --> 27:31.200]  So the main thing is, if you're scanning bacteria, if you're doing crypto, you can use harmless bacteria.
[27:31.970 --> 27:41.940]  But the example that we kind of laugh at is you don't want somebody's gonorrhea that you're scanning flying all over your CD disk.
[27:42.620 --> 27:48.780]  Because that's not really the most, I guess, sterile environment, to say the least.
[27:48.780 --> 27:51.860]  So you want to contain that stuff as much as possible.
[27:51.860 --> 27:57.300]  And that's the real trick of the hardware mod we're selling, is to contain all this bacteria.
[27:57.300 --> 28:01.460]  Even if there is a leak, still contain it within the source.
[28:01.460 --> 28:09.320]  And as you might imagine, they want to scan stuff that I probably shouldn't talk about here with the technology.
[28:09.320 --> 28:14.760]  But yeah, we're very into scanning for safety and security.
[28:14.760 --> 28:18.480]  So that's the other big application.
[28:20.280 --> 28:27.620]  So ideally, if you follow the instructions on the website, they will show you how to grow bacteria in a Petri disk and apply the swab to the disk.
[28:27.620 --> 28:31.620]  It's on the Molecular Media site, and actually it's on that PDF that I pulled up.
[28:31.620 --> 28:37.660]  You saw the Petri dish with the treatment that took place, and you can drop it right on the disk.
[28:38.300 --> 28:40.800]  Put a little droplet. It's a stain on the disk.
[28:40.800 --> 28:44.040]  The disks that we're selling are teeny-sized.
[28:44.380 --> 28:48.400]  They're like the 80 meg mini-CDs, this big.
[28:49.820 --> 28:53.040]  It's still a 450-700 nanometer range.
[28:53.040 --> 28:57.060]  The blue light laser CDs have a plus-minus 5 nanometer.
[28:57.060 --> 29:03.600]  So I'm going to see if I can pull something off that in the 5 nanometer scale.
[29:03.640 --> 29:08.700]  What happens is the head reads the goo, and it starts to gyrate around like crazy.
[29:08.700 --> 29:18.980]  And then it gives an anomalous error reading off the byte string that it's reading in the checksum range, checksum area.
[29:19.240 --> 29:24.620]  I think it's 2352 bytes per frame, or bytes per sector.
[29:27.240 --> 29:35.600]  No. If you don't, it will work better, in fact.
[29:36.180 --> 29:41.860]  That's the other piece of the software, is to get it to scan when it hits the wrong way.
[29:54.700 --> 29:58.140]  There's a plastic layer. There are a bunch of different... I have all these links there.
[29:58.140 --> 30:01.700]  All the layers of all the groups here. I wish I could pull up.
[30:01.700 --> 30:07.740]  But there's a plastic layer that is on top. It's like an enamel on your tooth that's on top of everything.
[30:07.740 --> 30:09.720]  And that really won't affect anything.
[30:09.720 --> 30:17.320]  But when you grow beyond that, and you have more organic stuff on top of it, that's when you can really get a real reading at that scale.
[30:19.200 --> 30:26.880]  But you can't read it in a microscope. Even a really good microscope. You need a scanning tunneling electron microscope.
[30:27.960 --> 30:32.180]  And what it does is it allows your CD to perform that process.
[30:32.180 --> 30:35.320]  But beyond that, since it's on a computer, you can do switching with it.
[30:45.950 --> 30:52.350]  Well, that's interesting. It's 1.6, typically. 1.6 microns.
[30:53.390 --> 31:03.130]  You'll say, oh, you're still not at .13 or .09 microns, or whatever, or 90 nanometers, or whatever the latest Intel die is.
[31:03.130 --> 31:06.970]  But you still have to remember, this is not an EM silicon base.
[31:06.970 --> 31:10.150]  This is an EM wave, strictly.
[31:10.650 --> 31:13.170]  And it's a molecular surface.
[31:13.170 --> 31:18.930]  So you're still going way, way faster than anything that's silicon based.
[31:18.930 --> 31:21.030]  The process is completely different.
[31:21.030 --> 31:24.870]  You're on the order of speed of an optical chip, this way.
[31:24.870 --> 31:27.890]  Quantum tunneling will allow you to go faster.
[31:27.890 --> 31:30.650]  1.6 is the typical track pitch.
[31:30.910 --> 31:38.850]  The depth of the bit is usually, maybe, it can go up to 3 microns, or it can be as small as .8 microns.
[31:38.850 --> 31:42.010]  I'm averaging it out around 1.5 microns.
[31:42.010 --> 31:44.330]  The pit is actually a groove in the surface.
[31:44.330 --> 31:52.010]  It looks like a dish, or an impression of a ball that you've sort of put into a flat disk surface.
[31:52.290 --> 31:56.230]  And like I said in the beginning, if you burn it on your own burner, it'll have jagged edges.
[31:56.230 --> 32:00.110]  If you buy one with a commercial burner, it'll have smooth, clean edges on it.
[32:00.810 --> 32:06.930]  And then the JavaScript, Google Maps interface, you're going to be able to move around that whole disk.
[32:06.930 --> 32:12.730]  And it's going to simulate where the biomass is on the disk, either with a sludge pattern.
[32:12.730 --> 32:17.510]  Ideally, we'd take some photos and have those up there, too, on it, in real time.
[32:17.710 --> 32:26.310]  So we're going to have many, many scans of this running in real time, live, next year, as it goes on there.
[32:26.710 --> 32:28.450]  Anything else? I think I...
[32:28.450 --> 32:32.790]  Is there any other one final question? I don't have any other conclusions.
[32:34.390 --> 32:38.870]  Like I said, I wish I went into more detail about the encryption and the handshake,
[32:38.870 --> 32:42.510]  and how fractalic patterns emulate MD5 encryption.
[32:42.870 --> 32:45.150]  That's basically the gist of it.
[32:45.250 --> 32:48.710]  And it can go really in any direction on any of the keys.
[32:49.130 --> 32:51.790]  But if you read the PDF, you can see...
[32:52.630 --> 32:54.250]  So I guess that is that it?
[32:54.250 --> 32:56.870]  No other last thoughts? Okay.
[32:57.430 --> 33:00.930]  Well, let me see if I can pull this thing up finally.
[33:02.790 --> 33:04.830]  Oh. Oh, well.
[33:05.230 --> 33:07.070]  Okay. Thanks.