| A
digital image can be treated as a data set to extract information. This
is the information that we extracted from a digital photograph taken during
a investigation at Alfredo's Cafe. The photograph was shown to the cafe's
owner just after the picture was taken before the investigation was concluded.

Clicking
on this image will open the photo in a new window. EXIF data is
intact. |
EXIF
Data
| Photo |
DSC01773 |
| Date
and Time |
2/26/2006 |
| Exp.
Time |
6:03:56
PM |
| F/Stop |
1/40 |
| Exp.
Program |
4.0 |
| Exp.
Bias |
Normal |
| Metering
Mode |
0 |
| Light
Source |
Pattern;Unknown |
| Flash |
Flash
fired |
| Focal
Length |
auto
mode |
| Focal
Length (35 mm) |
return
light detected |
| ISO
Speed |
7.1,
160 |
| Orientation |
Normal |
| Dimensions |
2048
x 1536 |
| Exposure
Time |
10
/ 400 |
| File
Size |
1127
KB |
|
 |
Infrared
Analysis
When
an IR pass filter is applied to the photograph, several darker
sections appear that are not easily seen in the original photograph.
The
darker regions would represent cooler sections within the photograph.
The amount of thermal emission from the darker areas are dependant
on their size, their emission and their temperature.
Gauging
from the temperatures of the surrounding structures, it is estimated
that the darker areas of the "cloud" are 10 to 15 degrees
cooler than the surrounding ambient air temperature.
It
should be noted that the estimate of temperature variance is based
solely upon the analysis of the photograph.
|
A
digital image can be treated as a data set to extract information. Each
pixel's intensity value is a measure of how much energy was used to generate
it within the band of spectrum used to produce the image. The sum of the
pixel intensities is a measure of the total energy used to create the
whole image.The highest output of energy from the object in the photograph
is the lighter "glow" surrounding the darker section in the
middle(Figure 2). The Sesmimetric value of the "glow" is estimated
at 86.
The
simulated spectrum analysis (Figure 3) also confirms the estimate of the
radiant energy. The walls also reflect the same amount of energy due to
their white color refracting the camera's flash back to the CCD.

Figure
2. Measurement of pixel density (Thumbnailed) |

Figure
3. Simulated Spectrum Analysis |
When
a simulated mid IR bandpass filter (Figure 4) is applied to the photograph,
the "glow" almost disappears, indicating that it may be within
or near that range. The particle emissions filter (Figure 5) shows particle
sources coming from the pail of cleaning rags, a few items on the shelf
and the unknown object itself.

Figure
4. Simulated IR bandpass filter applied
|

Figure
5. Particle emissions filter applied
|
Additional
Information

Figure
6. Surface Plot of photograph
 |
The
surface plot of the photograph (figure 6) clearly shows that the
strange object in the photograph is 3 dimensional. It is also possible
that the object is actually two separate objects that are very close
together. The simulated density indicates that the "glow"
is similar in composition to a light gas substance.
Hypothesis
The
analysis of the photograph indicates that that the unusual object
in the photograph is 3 dimensional and is radiating some sort of
energy.
Due
to the objects shape and density, there are several hypotheses that
one can speculate.
The
first is that the unusual object is an artifact of a electromagnetic
cascade shower that is about to collapse. The photons of the cascade
are in the near IR
|
to
mid-IR range. the cascade was initiated near the bottom center of the photo
and pushed upwards.
The
second hypothesis is that a strong electromagnetic field caused the photons
from the camera's flash to bend around the field itself.
|