Stan Meyers Light/lazer

[buzneg]

In his video he talks about using a lazer, but I think a light may work too, they both shoot photons in wave form, don't they? So if you can't get a lazer try it with a bunch of different lights, and at different angels.

See this video @ 10:50 "photons knock the molecules" more effective in vapourization then heat, mabye light is more effective in electrolisis then heat? Ofcourse the right kind of light matters.
http://video.google.com/videoplay?docid=-2058273530743771382&q=global+dimming&hl=en

In this video it looks like he has a light in the top.
http://youtube.com/watch?v=miwbvsya3Ek&mode=user&search=

So what is known about different kinds of light? I'm thinking a light that peirces the water best would be the most sucessful, because it would hit the molecules in a more uniform direction. If the water absorbs the light I would think it would bounce around more in many defferent directions, and that would cause heat, instead of a uniform streching of the molecules.

What's the difference from lazer light waves, and normal light waves? (I'm guessing they're longer)

[buzneg]

There's lasers on ebay, one on my mouse too

[HeairBear]

This is copied and pasted from the tech brief....

The absorbed Laser energy (Va. Vb and V c) weakens the "Electrical Bond" between the orbital
electrons and the nucleus of the atoms; while, at the same time, electrical attraction-force (qq'),
being stronger than "Normal" due to the lack of covalent electrons. "Locks Onto" and "Keeps" the
hydrogen electrons. These ââ,¬Å"abnormalââ,¬Â or ââ,¬Å"unstableââ,¬Â conditions cause the combustible gas ions to
over compensate and breakdown into thermal explosive energy (gmt).

Laser Accelerator Assembly (20)
Laser Accelerator Circuit (10) of Figure (4) which is a component part of Laser Accelerator
Assembly (20) of Figure (3-10) uses a GaAs infrared emitting diode (1) of figure (3-9) to trigger a
SDP8611 Optoschmitt light receiver (2) of Figure (3-9) from quiescent state ( output logic high ... B+)
(13) to on-state ( the minimum irradiance that will switch the output low) which switches or triggers
the Optoschmitt (2) output to ground state (zero volts) (12). The peak wavelength (3) of Figure (3-9)
being transmitted from the infrared emitting diode (led) (1) to the Optoschmitt receiver (2) is typically
(935 nm) and allows the Optoschmitt (2) clock frequency (the speed by which the Optoschmitt
changes logic state) to be (100 kHz). Optical lens (4) of Figure (310) redirects and focuses the
transmitted light source (3) of Figure (3-9) (traveling infrared light waves) to the Optoschmitt (2) by
passing the light source through a series of concentric lenses (4a xxx 4n) of Figure (3-10) which
become progressively smaller from the outer peripheral lens surface (4a) to the inner lens surface (4n).
The spatially concentric lenses (4a xxx 4n) of Figure (3-10) causes the beam angle of the light source
to trigger the Optoschmitt (2) beyond the minimum irradiance that is needed to switch the Optoschmitt
from quiescent state (high logic state I B+ ) to on-state (output changing to zero volts).
The Derate linearly of light intensity is approximately 1.25mWj degree C above 25 degree C at
a spatial distance of .500 inches between the two infrared devices (1)(2) of Figure (3-9) as to Figure
(3-10). Transmitted light source (3) is turn-on when a electrical power source of 5 volts is applied to
the led (1) through dropping resister (5) by way of voltage regulator (6) connected to the car electrical
system (7). Together, the matched infrared devices (1)(2) with optical lens (4) forms optical circuit (
of Figure (3-9). Grouping additional optical circuits (8a xxx 8n) in a inline or linear arrangement, now,
forms Led Pickup Circuit (10) of Figure (3-9), as shown in Figure assembly (20) of Figure (3-10).
To perform a switch-logic function, light - gate (9) of Figure (3-9) as to Figure (3-10) is
inserted between the matched infrared devices (1)(2) and moved in a linear displacement from one
optical circuit (8x) to another optical circuit (8xx), as illustrated in Figure (3-9)(3-10) as to Figure (3-
7). Once light-gate (9) blocks and prevents traveling light-beam (3) from reaching the matched
Optoschmitt (8xx), the darken Optoschmitt (11) (non-energized) changes output state since the
irradiance energy level (3) is reduced to, or below the release point...triggering opposite logic state
(12). As light-gate (9) advances to the next optical circuit (8xxx) a new and separate low-state logic function (12) occurs while the previous optical circuit (8xx) revens back to high-state logic
(13). Advancing light-gate (9) still further performs the same opposite (alternate) logic-state
switching in
a sequential manner until the advancing light-gate (9) reaches the last optical circuit (8n). Reversing
the movement of light gate (9) performs the same high to low logic switch-function but in reverse
sequential order. Reversing the direction of the light-gate (9) once again reinstates the original
sequential switching order, as illustrated in Figure (3-7) and Figure (3-9).
Longevity and reliability of component life is typically 100,000 hours since led pickup
circuit (10) of figure (3-9) utilizes no mechanical contacts to perform the sequential logic switch
function. Light-gate (9) integrated with led pickup circuit (10) make up Laser Accelerator assembly
(20), as shown in Figure (3-10). Light-gate (9) of Figure (3-10) is mechanically linked to the car
acceleration pedal by way of cabling hookup (22).
Opposite placement of the matched infrared devices (1)(2) prevents bogus or false
triggering of "low" logic state (12) during light-gate displacement (9a xxx 9n) of Figure (6)(7) and
(. If light emitting diodes (led) (la xxx In) of figure ( are electrically disconnected from D.C.
power supply (6), then Led Pickup Circuit (10) outputs are switch to "low" logic state (l2a xxx 12n)
which disallows "low" logic state signal (12), resulting in a "shut-down" condition to Hydrogen Gas
Control Circuit (200) of Figure (3-1). Disconnection of power supply (6) to Optoschmitt array (2a
xxx 2n) of Figure (3-9) results in a similar "shut down" condition to control circuit (200), as further
shown in Figure (3-1). This "shut-down" or "Switch-off" condition helps provide a fail-safe
operable Fuel Cell (120) of Figure (3-20) by negating acceleration beyond driver's control.

Have a great day!