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MODEL 1000A FLUOROPTIC THERMOMETER: A STATEMENT ABOUT ACCURACY

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Authors not listed · 1980

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Fluoroptic thermometers enabled accurate temperature measurement during EMF studies without electromagnetic interference.

Plain English Summary

Summary written for general audiences

This 1980 technical report from Luxtron examined the accuracy specifications of the Model 1000A fluoroptic thermometer, a fiber-optic temperature measurement device. The study focused on calibration methods and measurement precision for this specialized thermometer that uses fluorescent materials and optical fibers to measure temperature without electrical interference.

Why This Matters

While this technical report predates modern EMF health research by decades, it represents an important milestone in developing measurement tools that don't interfere with electromagnetic fields. Fluoroptic thermometers became crucial for EMF research because traditional electronic thermometers can be disrupted by the very fields scientists need to study. The reality is that accurate temperature measurement during EMF exposure studies is essential for understanding biological effects. When researchers expose cells or tissues to radiofrequency radiation, they need thermometers that won't be affected by the electromagnetic fields themselves. This 1980 documentation of fluoroptic accuracy helped establish the foundation for reliable temperature monitoring in later EMF bioeffects research, ensuring that observed changes weren't simply due to heating effects.

Exposure Information

Specific exposure levels were not quantified in this study.

Cite This Study
Unknown (1980). MODEL 1000A FLUOROPTIC THERMOMETER: A STATEMENT ABOUT ACCURACY.
Show BibTeX
@article{model_1000a_fluoroptic_thermometer_a_statement_about_accuracy_g7161,
  author = {Unknown},
  title = {MODEL 1000A FLUOROPTIC THERMOMETER: A STATEMENT ABOUT ACCURACY},
  year = {1980},
  
  
}

Quick Questions About This Study

Fluoroptic thermometers use optical fibers and fluorescent materials instead of electronic circuits, making them immune to electromagnetic interference that could disrupt readings during EMF exposure studies.
This model established accuracy standards for fiber-optic temperature measurement, providing researchers with a reliable tool that wouldn't be affected by electromagnetic fields during biological studies.
They use fluorescent materials whose light emission changes with temperature. Optical fibers carry this light signal to detectors, eliminating the need for electrical circuits near the measurement point.
Yes, electronic thermometers can give false readings when exposed to strong electromagnetic fields, which is why EMF researchers needed interference-free fluoroptic alternatives for accurate measurements.
Precise temperature monitoring helps researchers distinguish between thermal heating effects and non-thermal biological changes when studying how electromagnetic fields affect living tissues and cells.