Oil and gas extraction (OGE) and petrochemical workers are prone to fatigue due to shiftwork, circadian rhythm disruption, and workload. Currently, there is not a standard set of worker fatigue assessment methods developed to address the constraints in this industry. A systematic review was conducted to 1) identify and categorize fatigue assessment methods, 2) compare the effectiveness of identified methods, and 3) provide recommendations for use in this industry and future research. A total of 20 articles were selected for this review. The findings show that studies used subjective questionnaires (100%), task performance (35%), and physiological measurements (5%) as main fatigue assessment methods. Subjective questionnaires (measuring sleepiness and sleep quality), actigraphy, and task performance were effective at capturing fatigue levels. Finally, this review recommends that subjective questionnaires be employed to assess worker fatigue and supplement them with objective measurements, such as actigraphy (sleep quality) and Psychomotor Vigilance Task (task performance).
BarkerL. M.NussbaumM. A. (2011). Fatigue, performance and the work environment: a survey of registered nurses. Journal of advanced nursing, 67(6), 1370–1382.
5.
BazazanA.RasoulzadehY.DianatI.SafaiyanA.MombeiniZ. (2019). Occupational fatigue and mental health complaints among 8-hour shift workers of petrochemical industries in Iran. Work, 62(2), 309–317.
6.
BazazanA.RasoulzadehY.DianatI.SafaiyanA.MombeiniZ.ShiravandE. (2014). Demographic factors and their relation to fatigue and mental disorders in 12-hour petrochemical shift workers. Health Promotion Perspectives, 4(2), 165.
7.
BeaumontA.BurtonA. R.LemonJ.BennettB. K.LloydA.Vollmer-ConnaU. (2012). Reduced cardiac vagal modulation impacts on cognitive performance in chronic fatigue syndrome. PloS one, 7(11), e49518.
8.
ChoobinehA.JavadpourF.AzmoonH.KeshavarziS.DaneshmandiH. (2018). The prevalence of fatigue, sleepiness, and sleep disorders among petrochemical employees in Iran. Fatigue: Biomedicine, Health & Behavior, 6(3), 153–162.
9.
CSB. (2007). US Chemical Safety Board. Investigation report of the BP Texas City March 23rd.
10.
DawsonD.ReidK. (1997). Fatigue, alcohol and performance impairment. Nature, 388(6639), 235–235.
11.
DingesD. F.PackF.WilliamsK.GillenK. A.PowellJ. W.OttG. E.AptowiczC.PackA. I. (1997). Cumulative sleepiness, mood disturbance, and psychomotor vigilance performance decrements during a week of sleep restricted to 4–5 hours per night. Sleep, 20(4), 267–277.
12.
DoranS. M.Van DongenH. P.DingesD. F. (2001). Sustained attention performance during sleep deprivation: evidence of state instability. Archives italiennes de biologie, 139(3), 253–267.
13.
FanJ.SmithA. P. (2017). The impact of workload and fatigue on performance. International symposium on human mental workload: Models and applications,
14.
FischerF. M.de Castro MorenoC. R.da Silva BorgesF. N.LouzadaF. M. (2000). Implementation of 12-hour shifts in a Brazilian petrochemical plant: impact on sleep and alertness. Chronobiology international, 17(4), 521–537.
15.
FletcherA.HooperB.DunicanI.KogiK. (2015). Fatigue management in safety-critical operations: history, terminology, management system frameworks, and industry challenges. Reviews of human factors and ergonomics, 10(1), 6–28.
16.
HaidarimoghadamR.KazemiR.MotamedzadehM.GolmohamadiR.SoltanianA.ZoghipaydarM. R. (2017). The effects of consecutive night shifts and shift length on cognitive performance and sleepiness: a field study. International Journal of Occupational Safety and Ergonomics, 23(2), 251–258.
17.
HarrisA.WaageS.UrsinH.HansenÅ. M.BjorvatnB.EriksenH. R. (2010). Cortisol, reaction time test and health among offshore shift workers. Psychoneuroendocrinology, 35(9), 1339–1347.
18.
HåvoldJ. I. (2015). Stress on the bridge of offshore vessels: examples from the North Sea. Safety Science, 71, 160–166.
19.
KazemiR.HaidarimoghadamR.MotamedzadehM.GolmohamadiR.SoltanianA.ZoghipaydarM. R. (2016). Effects of shift work on cognitive performance, sleep quality, and sleepiness among petrochemical control room operators. Journal of Circadian Rhythms, 14.
20.
KazemiR.MotamedzadeM.GolmohammadiR.MokaramiH.HemmatjoR.HeidarimoghadamR. (2018). Field study of effects of night shifts on cognitive performance, salivary melatonin, and sleep. Safety and health at work, 9(2), 203–209.
21.
LamondN.DAWsOND.RoachG. D. (2005). Fatigue assessment in the field: validation of a hand-held electronic psychomotor vigilance task. Aviation, space, and environmental medicine, 76(5), 486–489.
22.
LamondN.DorrianJ.BurgessH. J.HolmesA. L.RoachG. D.McCullochK.FletcherA.DawsonD. (2004). Adaptation of performance during a week of simulated night work. Ergonomics, 47(2), 154–165.
23.
LermanS. E.EskinE.FlowerD. J.GeorgeE. C.GersonB.HartenbaumN.HurshS. R.Moore-EdeM. (2012). Fatigue risk management in the workplace. Journal of occupational and environmental medicine, 54(2), 231–258.
MehtaR. K.PeresS. C.KannanP.RheeJ.ShortzA. E.MannanM. S. (2017). Comparison of objective and subjective operator fatigue assessment methods in offshore shiftwork. Journal of Loss Prevention in the Process Industries, 48, 376–381.
26.
MehtaR. K.SmithA.WilliamsJ. P.Camille PeresS.SasangoharF. (2019). Investigating Fatigue in Offshore Drilling Workers: A Qualitative Data Analysis of Interviews. IISE Transactions on Occupational Ergonomics and Human Factors, 7(1), 31–42.
OuzzaniM.HammadyH.FedorowiczZ.ElmagarmidA. (2016). Rayyan—a web and mobile app for systematic reviews. Systematic reviews, 5(1), 210.
31.
ParkesK. R. (2012). Shift schedules on North Sea oil/gas installations: A systematic review of their impact on performance, safety and health. Safety Science, 50(7), 1636–1651.
32.
ParkesK. R. (2015). Sleep patterns of offshore day-workers in relation to overtime work and age. Applied Ergonomics, 48, 232–239.
33.
ParkesK. R. (2017). Work environment, overtime and sleep among offshore personnel. Accident Analysis & Prevention, 99, 383–388.
34.
RasoulzadehY.BazazanA.SafaiyanA.DianatI. (2015). Fatigue and psychological distress: a case study among shift workers of an iranian petrochemical plant, during 2013, in bushehr. Iranian Red Crescent medical journal, 17(10).
35.
RiethmeisterV.BültmannU.De BoerM.GordijnM.BrouwerS. (2018). Examining courses of sleep quality and sleepiness in full 2 weeks on/2 weeks off offshore day shift rotations. Chronobiology international, 35(6), 759–772.
36.
RiethmeisterV.BültmannU.GordijnM.BrouwerS.de BoerM. (2018). Investigating daily fatigue scores during two-week offshore day shifts. Applied Ergonomics, 71, 87–94.
37.
RiethmeisterV.MatthewsR. W.DawsonD.de BoerM.BrouwerS.BültmannU. (2019). Time-of-day and days-on-shift predict increased fatigue over two-week offshore day-shifts. Applied Ergonomics, 78, 157–163.
38.
ShortzA. E.MehtaR. K.PeresS. C.BendenM. E.ZhengQ. (2019). Development of the fatigue risk assessment and management in high-risk environments (FRAME) survey: A participatory approach. International journal of environmental research and public health, 16(4), 522.
39.
SoaresC. S.de AlmondesK. M. (2017). Sleep quality and visuospatial performance in rotating shifts workers from a petrochemical company. Biological Rhythm Research, 48(3), 403–415.
40.
TranY.WijesuriyaN.TarvainenM.KarjalainenP.CraigA. (2009). The relationship between spectral changes in heart rate variability and fatigue. Journal of Psychophysiology, 23(3), 143–151.
41.
Van DongenH.MaislinG.MullingtonJ. M.DingesD. F. (2003). The cumulative cost of additional wakefulness: dose-response effects on neurobehavioral functions and sleep physiology from chronic sleep restriction and total sleep deprivation. Sleep, 26(2), 117–126.
42.
WaageS.HarrisA.PallesenS.SaksvikI. B.MoenB. E.BjorvatnB. (2012). Subjective and objective sleepiness among oil rig workers during three different shift schedules. Sleep Medicine, 13(1), 64–72.
43.
WaageS.PallesenS.MoenB. E.BjorvatnB. (2010). Shift work and age in the offshore petroleum industry.
