Skip to main content
. Author manuscript; available in PMC: 2019 Aug 1.
Published in final edited form as: Addict Behav. 2017 Nov 16;83:5–17. doi: 10.1016/j.addbeh.2017.11.027

Table 3.

Field studies of substance use combining EMA with objective measurement of participants’ physiology

Reference Substance(s) Measure added to EMA Participants Monitoring duration EMA device; other device(s) Compliance/Feasibility Notes
Bodin et al. 2017 tobacco ECG 35 smokers and 114 non-smokers with high hostility 24 hours Palm Pilot PDA; Marquette 8500 Holter ECG recorder EMA and ECG data available for 5067 30-min periods in total, with 259 smoking episodes reported
Chatterjee et al. 2016 tobacco ECG, respiration, wrist movement and orientation 61 adult smokers making a quit attempt 24 hours pre-quit, 72 hours post-quit smartphone (model N/A); AutoSense physiologic al monitoring suite + smartwatches (model N/A) EMA details N/A; 45/61 participants contributed data to model development (2,766 total participant-hours of AutoSense wear) development of a model to detect cigarette craving based on relationships among craving, stress, and time of day
Hossain et al. 2014 cocaine ECG, body movement (chest accelerometry) 38 poly-drug users in methadone maintenance treatment + 9 cocaine users in lab-based studies 4 weeks smartphone (EMA, model N/A); AutoSense physiologic al monitoring suite + Sony Ericsson Xperia X8 smartphone EMA details N/A; 922 participant-days of field data included 27 instances of cocaine use with acceptable sensor data from 13 participants (out of 142 reports from 20 people in total) development of a model to detect cocaine use based on heart rate recovery after cocaine use vs. physical activity
Hovsepian et al. 2015 alcohol, tobacco ECG and respiration (controlling for physical activity) 23 field study participants + 50 participants in lab-based studies 7 days smartphone (EMA, model N/A); AutoSense physiologic al monitoring suite + Android smartphone (model N/A) 3/23 field participants excluded for poor quality/missing data; good quality physiologic al data available for 1,060 EMA reports in total development of a model to detect stress; EMA self-reports of smoking and alcohol use mentioned in field study, but use details N/A
Kennedy et al. 2015 opioids, cocaine heart rate (ECG RR interval) 40 opioid-dependent adults Up to 4 weeks smartphone (EMA model N/A); AutoSense physiologic al monitoring suite + Sony Ericsson Xperia X8 smartphone overall EMA details N/A (heart rate available for 168 EMA drug use reports and 2,329 random prompt responses); 85.7% overall AutoSense data yield (hours acceptable data/hours sensor wear) some data also used in model development by Hossain et al. 2014, Rahman et al. 2014, and Sarker et al. 2016
Natarajan et al. 2016 cocaine ECG morphology (6 waveform features/proper ties) 5 cocaine-dependent persons (non-treatment-seekers) + 10 lab-based participants 37 total participant-days Samsung Galaxy smartphone ; Zephyr BioHarness chest band Only participant-initiated EMA (no answer %, but incomplete reports made on 8 days); ECG data lost on “some weekend days” due to device power issues addresses several issues that can affect researchers generalizing lab-based measures to field studies
Rahman et al. 2014 tobacco, illicit drugs (Study 1); alcohol, tobacco (Study 2) ECG, respiration, accelerometry, temperature (ambient and skin), galvanic skin response 40 “illicit drug users” (Study 1); 30 daily smokers and “social drinkers” (Study 2) 4 weeks (Study 1); 7 days (Study 2) smartphone (EMA, model N/A); AutoSense physiologic al monitoring suite + Android smartphone (model N/A) EMA details N/A; 75.3%–85.7% AutoSense data yields (acceptable data hours/sensor wear hours), with up to 65% data availability after excluding physical activity development of a model to detect stress from multiple physiological parameters
Saleheen et al. 2015 tobacco respiration, wrist movement and orientation 61 adult smokers making a quit attempt + 6 smokers for field-based training data 1 day with ad lib smoking, 3 days during quit attempt smartphone (model N/A); AutoSense physiologic al monitoring suite + smartwatches (model N/A) overall EMA details N/A (9/33 lapsers did not self-report lapse); 33 lapsers/61 participants included in algorithm development (2,766 total participant-hours of Autosense wear) development of a model to detect smoking puffs from respiration and wrist movement/orientation; some data also used for craving detection by Chatterjee et al. 2016
Sarker et al. 2016 opioids, poly-drug use ECG and respiration (controlling for physical activity), GPS 38 opioid-dependent poly-drug users receiving opioid agonist maintenance 4 weeks smartphone (EMA, model N/A); wireless physiologic al sensor suite (ECG, respiration, accelerometry) + Android-based smartphone (model N/A) 88.0% EMA answer rate; 10.54 hours acceptable ECG data from 12.52 hours sensors wear per day; ~70% of physiologic al data available after excluding physical activity; GPS details N/A stress inferred from physiological monitoring using the model of Hovsepian et al. 2015; GPS then used to assess environmental features associated with stress inference