Abstract
The authors have developed a unique type of temperature-dependent optical sensor for deployment at the tip of the fiberoptic probe, consisting of a bulk semiconductor crystal whose optical absorption varies with temperature. The small diameter of the probe (about . 250 mm) minimizes tissue damage upon implantation. The authors have also developed a new means of noninvasive temperature mapping within the body, using ultrasound as the sensing beam. The technique is based up on the temperature-dependent velocity of sound exhibited by most biological tissues, and therefore a tomographic map of ultrasound velocity reconstructed by computerized reconstruction techniques may be related to internal organ temperatures. Precise calibration of the procedure may require the use of the invasive probes described in this paper.
| Original language | English (US) |
|---|---|
| Pages | 451-453 |
| Number of pages | 3 |
| State | Published - Jan 1 2017 |
| Event | Unknown conference - San Diego, CA, USA Duration: Feb 1 1978 → Feb 3 1978 |
Other
| Other | Unknown conference |
|---|---|
| City | San Diego, CA, USA |
| Period | 2/1/78 → 2/3/78 |
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ASJC Scopus subject areas
- Engineering(all)
Cite this
POINT PROBE AND ULTRASOUND TOMOGRAPHIC TECHNIQUES FOR TEMPERATURE MEASUREMENTS DURING MICROWAVE-INDUCED HYPERTHERMIA. / Christensen, Douglas A.; Johnson, Steven A.; Balasabramanian, R.; Greenleaf, James F.
2017. 451-453 Paper presented at Unknown conference, San Diego, CA, USA, .Research output: Contribution to conference › Paper
}
TY - CONF
T1 - POINT PROBE AND ULTRASOUND TOMOGRAPHIC TECHNIQUES FOR TEMPERATURE MEASUREMENTS DURING MICROWAVE-INDUCED HYPERTHERMIA.
AU - Christensen, Douglas A.
AU - Johnson, Steven A.
AU - Balasabramanian, R.
AU - Greenleaf, James F
PY - 2017/1/1
Y1 - 2017/1/1
N2 - The authors have developed a unique type of temperature-dependent optical sensor for deployment at the tip of the fiberoptic probe, consisting of a bulk semiconductor crystal whose optical absorption varies with temperature. The small diameter of the probe (about . 250 mm) minimizes tissue damage upon implantation. The authors have also developed a new means of noninvasive temperature mapping within the body, using ultrasound as the sensing beam. The technique is based up on the temperature-dependent velocity of sound exhibited by most biological tissues, and therefore a tomographic map of ultrasound velocity reconstructed by computerized reconstruction techniques may be related to internal organ temperatures. Precise calibration of the procedure may require the use of the invasive probes described in this paper.
AB - The authors have developed a unique type of temperature-dependent optical sensor for deployment at the tip of the fiberoptic probe, consisting of a bulk semiconductor crystal whose optical absorption varies with temperature. The small diameter of the probe (about . 250 mm) minimizes tissue damage upon implantation. The authors have also developed a new means of noninvasive temperature mapping within the body, using ultrasound as the sensing beam. The technique is based up on the temperature-dependent velocity of sound exhibited by most biological tissues, and therefore a tomographic map of ultrasound velocity reconstructed by computerized reconstruction techniques may be related to internal organ temperatures. Precise calibration of the procedure may require the use of the invasive probes described in this paper.
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UR - http://www.scopus.com/inward/citedby.url?scp=0017790093&partnerID=8YFLogxK
M3 - Paper
AN - SCOPUS:0017790093
SP - 451
EP - 453
ER -