Microscope Design Concept which eliminates the need for staining cell tissues.
rlm at ricochet.net
Wed Mar 3 17:17:40 EST 1999
Dr. Royal Rife developed a microscope in the 30's that was said to use
a pair of contra-rotating quartz prisms that could produce a
monochromatic beam for illumination of the specimen. He found that
microorganisms would emit or fluoresce specific colors that would
allow their identification. He is said to have developed an optical
microscope using this idea that could view living specimens at powers
far exceeding the considered theoretical limits possible for optical
microscopes. The advent of electron microscopy satisfied the need for
very high magnifications, but the process of preparing and bombarding
the specimens precludes the study of living specimens.
Two of his five highly complex "virus" microscopes remain in existence
today, but unfortunately are missing critical parts. It's a sad
testimony to how a significant discovery can become buried in time.
On Sun, 14 Feb 1999 03:26:28 -0500, "The Flavored Coffee Guy"
<elgersmad at email.msn.com> wrote:
> Looking at the radio spectrum in order to define which compounds, and
>elements are present have frequently been used in astronomy. But, in the
>field of microscopy this form of information gathering isn't utilized. In
>this post are links that consist of the parts of highest significance
>required to build a microscope that doesn't require stains, or staining
>procedures to view cell tissues. A tunable laser is used as a light source
>in order to align the spectral lines generated in spectroscopy associated to
>a sample being viewed. Minimum amounts of light enable the reflectivity, or
>absorption lines found to either be reflected or absorbed within in a
>minimum number of atoms, or molecules. Therefore, the image multiplier tube
>is used to amplify what little light is used to unveil the internal, or
>external structures of the cell being examined. Basing the lasers output
>frequency to be an issue resolved by computer controls, stepping the laser
>through it's output frequency range. Retrieving a series of images
>produced on a one image, per step in frequency would enable software to
>retrieve, and compile an image based on the absorbed, or reflected
>wavelengths of light. Accumulating this information using software to
>generate a multiple of grayscale images which would be placed in the visible
>range of colors generated by a computer by spacing the gray images in a
>false color spectrum map, then letting the computer compress the scale into
>the visible range for viewing.
> Based on the objective of viewing the translucent cells, such as neural
>tissues, and doing so without damaging them. The light exiting the source
>is polarized in order to determine the polarize state of molecules which are
>being viewed. If this is included in the frequency/image stepping sequence,
>several images will need to be take based on the degree of rotation of the
>interference lenses rotation. This lens is a secondary rotatable polarized
>lens that is used for interference to detect the degree at which polarized
>light rotates passing through any given molecule.
> Further stepping modifications include detailing focal lengths, and
>calibrating a robotic drive assembly to generate a 3 dimensional model of a
>cell in a computer based on objective, and focal length. This would amount
>to either an auto focus system, or focusing on the highest point of a cell,
>and then the slide. From there the computer would asses the cell in steps
>in the first order.
> If the microscopes software follows through this full featured design
>sequence properly the order of events are as follows.
>1. Objective start step, and finish step pinion settings.
>2. Step 1 of the tunable laser frequency, either the highest, or lowest.
>3. Polarized Rotation stepping and images are accumulated.
>4. Next Objective step.
>5. Goto step 3 until Objective step = last step.
>6. Next laser output frequency.
>7. Goto 3 until laser output frequency = last frequency.
>A binary search would be used to find the image files which contained the
>highest contrast, and mark, or rename each file. Then use the compressed
>light range to generate a complete image out of overlaying the images
>produced in the grayscale format. I have leave you with the three
>dimensional stuff, because that's a trigonometric function of boxes in a
>Selected tunable laser Diode sites
>Robotics positioner assemblies.
>Instrument grade low light Imaging tube spec sheet.
>The Flavored Coffee Guy.
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