Research and Development
Thermo Guard’s infrared cameras can detect temperature
differences as small as 0.1ºF. This level of sensitivity
is ideal for a variety of scientific applications. Our trained
engineers are available to provide thermal infrared analysis
support for each project. Thermo Guard can also acquire infrared
data for use in engineering and product development analyses.
Other applications include scientific studies, modeling,
process manufacturing, product development, fundamental scientific
research, and laboratory work, such as biomedical analysis
and bioengineering experiments.
Applications
• Process manufacturing experiments
• Product development
• Fundamental scientific research
• Biomedical engineering research and development
• Field studies
• Chemical and coatings experiments
• Welding and soldering studies
• Corrosion studies
• Forensic analysis
• Preservation studies
• Agriculture studies
Benefits of Testing
• Achieve experimental goals by developing
new methodologies with infrared imaging. New techniques
or approaches using infrared
can yield results not visible to the naked eye
• Acquires infrared data for engineering and product
development
analyses. Scientific studies or modeling often use infrared
imaging
to increase product efficiency and reliability
• Provides real-time feedback for biomedical studies,
where accuracy
and speed are critical
• Offers many other uses. Infrared imaging has a wide
range of
applications, from visualizing the thermal pattern of
a heating
device to mapping the thermal expansion of a knee injury
Biomedical Analysis
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Shoulder
Injury: Inflammation of the tissue is visible
at the site of a recent injury with thermal imaging.
The camera used is sensitive to 0.1 degrees F so even
the slightest temperature variation can be seen.
Advantages of this technology is to detect and document
the extent and progression of a particular thermal
pattern associated with a particular injury. |

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Knee: An injured knee joint
can swell and inflammation of the joint and surrounding
tissue can be seen with the thermal imaging camera.
The extent of damage can be visualized thereby providing
a pinpoint diagnosis.
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Engineering
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Vent: The above image shows a warm home
ceiling vent during the winter. A
profile line has been placed
across the diameter of the vent analyze the temperature
variation along its profile. The profile plot (red line)
can be seen below
the image where you can see the symmetry of the heat
signature. The analysis software can map the heat profile
and provide the min, max, and average temperature along
the profile line. |
Process Management
Infrared imaging is well known and used in the electrical,
roofing, and predictive maintenance fields, however, infrared
analysis has recently gained acceptance in many diverse industries
and processes to observe anomalies normally invisible to
the naked eye. Research and development of new products and
methods to increase productivity are paramount for corporations
to grow and remain competitive in the global market. The
rubber industry is currently utilizing infrared image acquisition
and analysis to optimize mixing processes and observe temperature
variations due to non-homogenous mixing or changes in viscosity.
The principal concern of mixing temperature variations is
the lack of dispersion of applied bonding chemicals that
are temperature dependant
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Rubber
Mixing: Mixing rubber to obtain a uniform
dispersion of chemicals is of interest to researchers
to better understand limitations of viscosity and
how temperature influences the mixing process. Here
is an image of rubber mixing and we can see the various
temperature profiles across the surface. We can see
a cool spot in the upper portion.
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Tire Analysis
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Tire Rotation: Friction
generates heat and when tires are rolling along the highway
they can generate too. Tire manufactures and chemical
engineers are very interested in how a tire heats up
and how it cools down. Areas that have a tendency to
retain heat could affect the bonding of the various plies.
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Here we have a tire placed
on a rotating device running at a nominal speed. The
top image was taken just as it started to rotate. The
bottom image was taken just at the point when the tire
was stopped. You can clearly see the difference in the
temperature profile of both images, where the bottom
image has a higher average temperature. Although the
tire sidewall heated uniformly the are closest to the
rim had the highest temperature. |
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Analysis of mold and platen temperature anomalies

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Here is
a prime example of a mold that has a non uniform temperature
distribution. Variation of this magnitude could severely
impact the quality of the final processed product. |
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Just by observing the
visible image you can not tell how well the mold is
performing. Problem arise when the final product fails
to cure correctly. |
Thermal map of uniformly heated platen
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This electrically heated
platen is very uniform across the entire surface. The
cross hatch marks are etched for demo purposes to show
the different areas that are actively monitored with
internal thermal couples. The hot spots you see in each
quadrant are surface thermal couples for demo purposes
and would not normally be present . |
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Analysis of average area, spot and
profile temperatures proves the efficiency of the platen's
ability to consistently hold its set temperature. |
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Semi Uniform Platen
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This platen shows a slight variation across
the surface, but in most cases this would be a minor
issue. |

This is an example of
some of the types of data analysis Thermo Guard can perform
for various customers. Thermal maps of this type are
an extremely important visual tool to make quick thermal
comparisons from one area to another. |
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