Literature DB >> 19295956

Validity and reliability of devices that assess body temperature during indoor exercise in the heat.

Matthew S Ganio1, Christopher M Brown, Douglas J Casa, Shannon M Becker, Susan W Yeargin, Brendon P McDermott, Lindsay M Boots, Paul W Boyd, Lawrence E Armstrong, Carl M Maresh.   

Abstract

CONTEXT: When assessing exercise hyperthermia outdoors, the validity of certain commonly used body temperature measuring devices has been questioned. A controlled laboratory environment is generally less influenced by environmental factors (eg, ambient temperature, solar radiation, wind) than an outdoor setting. The validity of these temperature measuring devices in a controlled environment may be more acceptable.
OBJECTIVE: To assess the validity and reliability of commonly used temperature devices compared with rectal temperature in individuals exercising in a controlled, high environmental temperature indoor setting and then resting in a cool environment.
DESIGN: Time series study.
SETTING: Laboratory environmental chamber (temperature = 36.4 +/- 1.2 degrees C [97.5 +/- 2.16 degrees F], relative humidity = 52%) and cool laboratory (temperature = approximately 23.3 degrees C [74.0 degrees F], relative humidity = 40%). PATIENTS OR OTHER PARTICIPANTS: Fifteen males and 10 females. INTERVENTION(S): Rectal, gastrointestinal, forehead, oral, aural, temporal, and axillary temperatures were measured with commonly used temperature devices. Temperature was measured before and 20 minutes after entering the environmental chamber, every 30 minutes during a 90-minute treadmill walk in the heat, and every 20 minutes during a 60-minute rest in mild conditions. Device validity and reliability were assessed with various statistical measures to compare the measurements using each device with rectal temperature. A device was considered invalid if the mean bias (average difference between rectal and device temperatures) was more than +/-0.27 degrees C (+/-0.50 degrees F). MAIN OUTCOME MEASURE(S): Measured temperature from each device (mean and across time).
RESULTS: The following devices provided invalid estimates of rectal temperature: forehead sticker (0.29 degrees C [0.52 degrees F]), oral temperature using an inexpensive device (-1.13 degrees C [-2.03 degrees F]), temporal temperature measured according to the instruction manual (-0.87 degrees C [-1.56 degrees F]), temporal temperature using a modified technique (-0.63 degrees C [-1.13 degrees F]), oral temperature using an expensive device (-0.86 degrees C, [-1.55 degrees F]), aural temperature (-0.67 degrees C, [-1.20 degrees F]), axillary temperature using an inexpensive device (-1.25 degrees C, [-2.24 degrees F]), and axillary temperature using an expensive device (-0.94 degrees F [-1.70 degrees F]). Measurement of intestinal temperature (mean bias of -0.02 degrees C [-0.03 degrees F]) was the only device considered valid. Devices measured in succession (intestinal, forehead, temporal, and aural) showed acceptable reliability (all had a mean bias = 0.09 degrees C [0.16 degrees F] and r >or= 0.94]).
CONCLUSIONS: Even during laboratory exercise in a controlled environment, devices used to measure forehead, temporal, oral, aural, and axillary body sites did not provide valid estimates of rectal temperature. Only intestinal temperature measurement met the criterion. Therefore, we recommend that rectal or intestinal temperature be used to assess hyperthermia in individuals exercising indoors in the heat.

Entities:  

Keywords:  core body temperature; hyperthermia; tympanic membrane

Mesh:

Year:  2009        PMID: 19295956      PMCID: PMC2657027          DOI: 10.4085/1062-6050-44.2.124

Source DB:  PubMed          Journal:  J Athl Train        ISSN: 1062-6050            Impact factor:   2.860


  34 in total

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4.  The impact of moderate ambient temperature variance on the relationship between oral, rectal, and tympanic membrane temperatures.

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Review 5.  Statistical methods for assessing measurement error (reliability) in variables relevant to sports medicine.

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6.  Accuracy of a noninvasive temporal artery thermometer for use in infants.

Authors:  D S Greenes; G R Fleisher
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7.  Statistical methods for assessing agreement between two methods of clinical measurement.

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8.  Calculating correlation coefficients with repeated observations: Part 1--Correlation within subjects.

Authors:  J M Bland; D G Altman
Journal:  BMJ       Date:  1995-02-18

9.  A comparative study on accuracy of liquid crystal forehead, digital electronic axillary, infrared tympanic with glass-mercury rectal thermometer in infants and young children.

Authors:  A Kongpanichkul; S Bunjongpak
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10.  Core temperature measurement in man.

Authors:  R J Edwards; A J Belyavin; M H Harrison
Journal:  Aviat Space Environ Med       Date:  1978-11
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  38 in total

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4.  Comparison of rectal and aural core body temperature thermometry in hyperthermic, exercising individuals: a meta-analysis.

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Journal:  J Athl Train       Date:  2012 May-Jun       Impact factor: 2.860

5.  Activity modification in heat: critical assessment of guidelines across athletic, occupational, and military settings in the USA.

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6.  The Effect of Intermittent Head Cooling on Aerobic Performance in the Heat.

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7.  Comparison of active cooling devices with passive cooling for rehabilitation of firefighters performing exercise in thermal protective clothing: a report from the Fireground Rehab Evaluation (FIRE) trial.

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8.  Perceptions of Secondary School Athletic Trainers in the Diagnosis of Exertional Heat Stroke.

Authors:  Danyale R McLean; Samantha E Scarneo-Miller; Rebecca M Lopez
Journal:  J Athl Train       Date:  2020-10-01       Impact factor: 2.860

9.  Cold-water immersion and the treatment of hyperthermia: using 38.6°C as a safe rectal temperature cooling limit.

Authors:  Daniel Gagnon; Bruno B Lemire; Douglas J Casa; Glen P Kenny
Journal:  J Athl Train       Date:  2010 Sep-Oct       Impact factor: 2.860

10.  Comparison of Gastrointestinal and Rectal Temperatures During Recovery After a Warm-Weather Road Race.

Authors:  Yuri Hosokawa; William M Adams; Rebecca L Stearns; Douglas J Casa
Journal:  J Athl Train       Date:  2016-05-17       Impact factor: 2.860

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