Related Experiment Videos
Assessment of physiologic and pathologic radiative heat dissipation using dynamic infrared imaging
1Department of Physiology and Biophysics, School of Medicine and Biomedical Sciences, University at Buffalo (SUNY), New York 14214, USA. amara@adelphia.net
Annals of the New York Academy of Sciences
|December 24, 2002
Summary
This study reviews how the body regulates heat through skin and circulation. Dynamic infrared imaging can monitor autonomic nervous system control of skin temperature, aiding in diagnosing conditions like cancer and neuropathies.
Area of Science:
- Physiology
- Medical Imaging
- Thermoregulation
Background:
- Regulated radiative heat dissipation is crucial for maintaining body temperature.
- The circulatory system and skin play key roles in thermoregulation.
- Autonomic nervous system control of skin perfusion influences temperature modulation.
Purpose of the Study:
- To review the mechanisms and assessment of regulated radiative heat dissipation.
- To describe quantitative assessment of skin temperature modulation.
- To explore clinical applications of skin temperature modulation assessment.
Main Methods:
- Quantitative assessment of skin temperature modulation.
- Dynamic infrared imaging for monitoring autonomic nervous control of perfusion.
- Review of existing literature on thermoregulation and its clinical implications.
Main Results:
- Skin temperature modulation can be quantitatively monitored using dynamic infrared imaging.
- Autonomic nervous control of cutaneous and subcutaneous perfusion is the main regulating process.
- Pathologic conditions like cancer and neuropathies significantly affect this control.
Conclusions:
- Dynamic infrared imaging offers objective assessment of local temperature modulation, with potential applications in breast cancer detection.
- Systemic aberrations in skin temperature modulation are clinically relevant in neurology, psychology, and psychiatry.
- Monitoring skin temperature modulation can provide insights into autonomic nervous system function and its response to various conditions.