Impairment of Error Monitoring Following Sleep Deprivation

Tsai, Ling-Ling; Young, Hung-Yu; Hsieh, Shulan; Lee, Christina S.

doi:10.1093/sleep/28.6.707

Cited by 85 publications

(81 citation statements)

References 37 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…Thirty-nine of them fulfilled all the inclusion criteria, which were similar to those used in our previous studies (Hsieh et al, 2007;Tsai et al, 2005). In brief, the participants did not suffer from medical and sleep-related disorders, drug use, irregular sleep patterns, and excessive daytime sleepiness; besides, they showed anxiety and depression levels within the normal range and an intermediate type of preference for a particular time of the day.…”

Section: Methods Participantsmentioning

confidence: 95%

“…This study was performed according to a previously described procedure (Hsieh et al, 2007;Tsai et al, 2005). Briefly, the participants received an arrow version of the Flanker task (Eriksen and Eriksen, 1974), while simultaneously being subjected to multiple-channel EEG recordings in the morning after NS and after one night of TSD, with at least a 1-week interval between the two sleep conditions in a counterbalanced sequence.…”

Section: Methodsmentioning

confidence: 99%

“…All previous studies (Hsieh et al, 2007;Murphy et al, 2006;Scheffers et al, 1999;Tsai et al, 2005) have provided different lines of evidence supporting the idea that extended wakefulness ⁄ sleep deprivation impairs the entire error monitoring function, including error detection (reduction in ERN and Pe amplitudes), posterror remedial action, i.e., error correction, and PEAs in the error rate and the respond speed in next stimulus-response trials. Nonetheless, we were puzzled by the other findings of our last study (Hsieh et al, 2007), which showed that the participants maintained comparable levels of global performance after TSD and normal sleep (NS) conditions: the overall mean response speed, response accuracy, error rate, and omission rate, and even the overall error correction rate were equivalent between the TSD and NS conditions.…”

Section: Introductionmentioning

confidence: 98%

“…Slower, more variable responses and decreases in accuracy concomitant with increases in both the errors of commission and omission comprise the typical performance patterns after extended wakefulness (Doran et al, 2001). Recently, based on the empirical evidence from different research groups (Hsieh et al, 2007;Murphy et al, 2006;Scheffers et al, 1999;Tsai et al, 2005), error monitoring has been added to the list of the deleterious effects of extended wakefulness and sleep deprivation on cognitive function. Error monitoring is an important domain of performance monitoring and includes error detection and posterror remedy (for trial N), and posterror adjustments (PEAs; for trial N + 1).…”

Section: Introductionmentioning

confidence: 99%

“…Scheffers et al (1999) observed that extended wakefulness reduced the amplitude of error-related negativity (ERN), an event-related potential (ERP) component of brain activity that is evoked by the committed errors. Our research team found that one night of total sleep deprivation (TSD) resulted in a reduction in both the amplitude of ERN and error positivity (Pe), another ERP component related to the committed errors, and an impairment in PEAs in reducing repeated errors (Tsai et al, 2005). Murphy et al (2006) showed that another effect of PEAs, i.e., posterror slowing, was also reduced after 20 h of wakefulness.…”

Section: Introductionmentioning

confidence: 99%

See 4 more Smart Citations

Error correction maintains post‐error adjustments after one night of total sleep deprivation

Hsieh

Tsai

2009

Journal of Sleep Research

Self Cite

View full text Add to dashboard Cite

SUMMAR Y Previous behavioral and electrophysiologic evidence indicates that one night of total sleep deprivation (TSD) impairs error monitoring, including error detection, error correction, and posterror adjustments (PEAs). This study examined the hypothesis that error correction, manifesting as an overtly expressed self-generated performance feedback to errors, can effectively prevent TSD-induced impairment in the PEAs. Sixteen healthy right-handed adults (seven women and nine men) aged 19-23 years were instructed to respond to a target arrow flanked by four distracted arrows and to correct their errors immediately after committing errors. Task performance and electroencephalogram (EEG) data were collected after normal sleep (NS) and after one night of TSD in a counterbalanced repeated-measures design. With the demand of error correction, the participants maintained the same level of PEAs in reducing the error rate for trial N + 1 after TSD as after NS. Corrective behavior further affected the PEAs for trial N + 1 in the omission rate and response speed, which decreased and speeded up following corrected errors, particularly after TSD. These results show that error correction effectively maintains posterror reduction in both committed and omitted errors after TSD. A cerebral mechanism might be involved in the effect of error correction as EEG beta (17-24 Hz) activity was increased after erroneous responses compared to after correct responses. The practical application of error correction to increasing work safety, which can be jeopardized by repeated errors, is suggested for workers who are involved in monotonous but attention-demanding monitoring tasks.k e y w o r d s correction instruction, error processing, flanker task, sleep loss, sleepiness

show abstract

Section: Methods Participantsmentioning

confidence: 95%

Section: Methodsmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 98%

Section: Introductionmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

See 3 more Smart Citations

Error correction maintains post‐error adjustments after one night of total sleep deprivation

Hsieh

Tsai

2009

Journal of Sleep Research

Self Cite

View full text Add to dashboard Cite

show abstract

Meditation as a Countermeasure to Reduce Cognitive Decline During Total Sleep Deprivation

Chatterjee

Ray

Panjwani

et al. 2017

Ergonomics in Caring for People

View full text Add to dashboard Cite

Background & objectives:Decline in cognitive functions is a major challenge for professionals during sustained wakefulness. We used middle latency response (MLR), event related potentials P300-ERP and contingent negative variation (CNV) and Raven's Advanced Progressive Matrices (RAPM) - a standard neuropsychological test were used to evaluate cognitive impairment after total sleep deprivation (SD); and to study the impact of meditation as an intervention for this impairment.Methods:Healthy male volunteers (n=10) drawn randomly from the Indian Army participated in a 6-night study design executed before and after two months of meditation practice: night 1–adaptation, night 2–baseline, night 3–24 h SD, night 4-recovery sleep, night 5–24 h SD after 60 days meditation, night 6-recovery sleep after SD. A 36 h SD was obtained by keeping the subject awake for 12 h after 24 h SD.Results:The latency and amplitude of P300 increased after 36 h SD. Amplitudes and latencies of both early and late CNV increased after 24 and 36 h SD, indicating deficient orientation and impairment of attention and perception. Prolonged CNV reaction time after 36 h SD manifested deficient motor response following second (imperative) stimulus. Latency of MLR Na registered significant change following 36 h SD compared to baseline (P<0.01) and recovery (P<0.05). RAPM score showed significant decrease after 36 h of wakefulness indicating impaired analytical ability and difficulty in problem solving. None of these parameters showed any significant alteration after SD, following meditation practice.Interpretation & conclusions:The present results showed that SD impaired cognitive performance to graded extents significantly, but this deterioration could be improved to a significant extent using meditation.

show abstract

Alerting, orienting and executive control: the effects of sleep deprivation on attentional networks

2011

View full text Add to dashboard Cite

Sleep deprivation alters attentional functions like vigilance or tonic alerting (i.e., sustaining an alert state over a period of time). However, the effects of sleep loss on both orienting and executive control are still not clear, and no study has assessed whether sleep deprivation might affect the relationships among these three attentional systems. In order to investigate the efficiency of the three attentional networks--alerting, orienting and executive control--within a single task, we used the Attention Network Test (ANT). Eighteen right-handed male participants took part in the experiment, which took place on two consecutive days. On the first day, each participant performed a 20 min training session of the ANT. On the second day, participants remained awake for 24 h during which time the ANT was performed once at 5:00 p.m. and once at 4:00 a.m. Results showed an overall slowing of reaction times in the nocturnal session, indicating a strong decrease in vigilance. Furthermore, sleep deprivation did affect attentional orienting and executive control. Results are consistent with the hypothesis that the tonic component of alerting interacts with both attentional orienting and executive functions.

show abstract

Impairment of Error Monitoring Following Sleep Deprivation

Cited by 85 publications

References 37 publications

Error correction maintains post‐error adjustments after one night of total sleep deprivation

Error correction maintains post‐error adjustments after one night of total sleep deprivation

Meditation as a Countermeasure to Reduce Cognitive Decline During Total Sleep Deprivation

Alerting, orienting and executive control: the effects of sleep deprivation on attentional networks

Contact Info

Product

Resources

About