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defined by characteristics including ethnicity, culture, and body habitus, to name a


few. Further development of wearable hotflash monitoring devices is also war-


ranted, with refinement of hotflash algorithms to optimally characterize hotflashes.


Recent developments in pattern recognition algorithms for detecting hotflashes in


skin conductance data show promise for improving the utility of these instruments;


however, further validation and dissemination of related software are required.


Researchers are urged to consider mixed-method designs in future research, par-


ticularly in large epidemiologic investigations which could benefit from a subcohort


of participants undergoing more rigorous measures of hotflashes.


We avoid naming one measure of hotflashes as the“gold standard” and


maintain that each measure of hotflashes provides information on a slightly dif-


ferent aspect of hotflashes. Both the subjective experience and the physiologic


measurement of hotflashes have important places in our research on hotflashes.


We recommend that investigators consider combining multiple methodologies to


obtain a more complete picture of hotflashes than any one measure can provide.


Rather than a source of concern, we view the discordance between measures as


informative. Examination of factors related to the degree of concordance or dis-


cordance between measures can be approached in substantive fashion to illuminate


factors that may influence the recall, reporting, and physiologic occurrence of hot


flashes. Great strides in the scientific measurement of hotflashes have been taken in
a relatively short period of time, yet further development is warranted. The valid


measurement of hotflashes is vitally important, as hotflashes are a significant


health issue impacting quality of life. Greater understanding of this common and


troubling phenomenon will pave the way for improving the quality of life for


millions of individuals around the world.


Acknowledgments This work was supported NIH grants R01HL105647 and K24123565
(Thurston) and T32HL083825 (Fisher/Orchard).


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11 Hot Flashes: Phenomenology and Measurement 247

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