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    반응시간에 기반한 수행 오류 예측 = Performance Error Prediction Based on Reaction Times

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    https://www.riss.kr/link?id=A104161276

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    Error prediction is important in regard to prevention of danger caused by the human errors. Previous studies have considered only the neurobiological traits or a single factor to predict errors. The present study considered not only the various factors related to errors but also reaction times preceding errors as behavioral traits. In Study 1, the error-preceding trends were extracted from the reaction times preceding errors and these were assigned to clusters. Also, on the basis of the extracted clusters, the error-prediction function was extracted and validated. In Study 2, the error-prediction function was applied in an online manner in order to test whether errors can be predicted in real-time. The results showed that a variety of clusters were extracted from the error-preceding trends, which reflects the diverse factors related to performance errors. Moreover, the error-prediction function predicted the errors and corrects higher than 70% in Study 1, and 68% and 58%, respectively, in Study 2. These findings suggest that human errors are caused by diverse factors and these can be predicted on the basis of behavior traits.
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    Error prediction is important in regard to prevention of danger caused by the human errors. Previous studies have considered only the neurobiological traits or a single factor to predict errors. The present study considered not only the various factor...

    Error prediction is important in regard to prevention of danger caused by the human errors. Previous studies have considered only the neurobiological traits or a single factor to predict errors. The present study considered not only the various factors related to errors but also reaction times preceding errors as behavioral traits. In Study 1, the error-preceding trends were extracted from the reaction times preceding errors and these were assigned to clusters. Also, on the basis of the extracted clusters, the error-prediction function was extracted and validated. In Study 2, the error-prediction function was applied in an online manner in order to test whether errors can be predicted in real-time. The results showed that a variety of clusters were extracted from the error-preceding trends, which reflects the diverse factors related to performance errors. Moreover, the error-prediction function predicted the errors and corrects higher than 70% in Study 1, and 68% and 58%, respectively, in Study 2. These findings suggest that human errors are caused by diverse factors and these can be predicted on the basis of behavior traits.

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    참고문헌 (Reference)

    1 박창호, "인간 오류와 안전에 대한 심리학적 조망" 사회과학연구소 37 (37): 159-191, 2013

    2 김정오, "오류의 심리과정" 한국인지및생물심리학회 17 (17): 245-263, 2005

    3 Ivanoff, J., "fMRI Evidence for a Dual Process Account of the Speed-Accuracy Tradeoff in Decision-Making" 3 (3): 2008

    4 O'Connell, R. G., "Uncovering the Neural Signature of Lapsing Attention : Electrophysiological Signals Predict Errors up to 20 s before They Occur" 29 (29): 8604-8611, 2009

    5 Debener, S., "Trial-by-trial coupling of concurrent electroencephalogram and functional magnetic resonance imaging identifies the dynamics of performance monitoring" 25 (25): 11730-11737, 2005

    6 Yeung, N., "The neural basis of error detection : Conflict monitoring and the error-related negativity" 111 (111): 931-959, 2004

    7 Weissman, D. H., "The neural bases of momentary lapses in attention" 9 (9): 971-978, 2006

    8 Allain, S., "The modulation of the Ne-like wave on correct responses foreshadows errors" 372 (372): 161-166, 2004

    9 van Veen, V., "The Neural and Computational Basis of Controlled Speed-Accuracy Tradeoff during Task Performance" 20 (20): 1952-1965, 2008

    10 Dudschig, C., "Speeding before and slowing after errors: Is it all just strategy?" 1296 : 56-62, 2009

    1 박창호, "인간 오류와 안전에 대한 심리학적 조망" 사회과학연구소 37 (37): 159-191, 2013

    2 김정오, "오류의 심리과정" 한국인지및생물심리학회 17 (17): 245-263, 2005

    3 Ivanoff, J., "fMRI Evidence for a Dual Process Account of the Speed-Accuracy Tradeoff in Decision-Making" 3 (3): 2008

    4 O'Connell, R. G., "Uncovering the Neural Signature of Lapsing Attention : Electrophysiological Signals Predict Errors up to 20 s before They Occur" 29 (29): 8604-8611, 2009

    5 Debener, S., "Trial-by-trial coupling of concurrent electroencephalogram and functional magnetic resonance imaging identifies the dynamics of performance monitoring" 25 (25): 11730-11737, 2005

    6 Yeung, N., "The neural basis of error detection : Conflict monitoring and the error-related negativity" 111 (111): 931-959, 2004

    7 Weissman, D. H., "The neural bases of momentary lapses in attention" 9 (9): 971-978, 2006

    8 Allain, S., "The modulation of the Ne-like wave on correct responses foreshadows errors" 372 (372): 161-166, 2004

    9 van Veen, V., "The Neural and Computational Basis of Controlled Speed-Accuracy Tradeoff during Task Performance" 20 (20): 1952-1965, 2008

    10 Dudschig, C., "Speeding before and slowing after errors: Is it all just strategy?" 1296 : 56-62, 2009

    11 Smith, G. A., "Slowness and Age-Speed Accuracy Mechanisms" 10 (10): 238-247, 1995

    12 Allain, S., "Sequential adjustments before and after partial errors" 16 (16): 356-362, 2009

    13 Wessel, J. R., "Selection of independent components representing event-related brain potentials : A data-driven approach for greater objectivity" 54 (54): 2105-2115, 2011

    14 Parra, L. C., "Response error correction-A demonstration of improved human-machine performance using real-time EEG monitoring" 11 (11): 173-177, 2003

    15 Rabbitt, P., "Processing a display even after you make a response to it. How perceptual errors can be corrected" 33 (33): 223-239, 1981

    16 Eichele, T., "Prediction of human errors by maladaptive changes in event-related brain networks" 105 (105): 6173-6178, 2008

    17 Notebaert, W., "Post-error slowing : An orienting account" 111 (111): 275-279, 2009

    18 Gratton, G., "Optimizing the Use of Information-Strategic Control of Activation of Responses" 121 (121): 480-506, 1992

    19 Fedota, J. R., "Neuroergonomics and human error" 11 (11): 402-421, 2009

    20 Eichele, H., "Mal-adaptation of event-related EEG responses preceding performance errors" 4 : 2010

    21 Brewer, N., "How normal and retarded individuals monitor and regulate speed and accuracy of responding in serial choice tasks" 113 (113): 71-, 1984

    22 Li, C. S. R., "Greater activation of the"default"brain regions predicts stop signal errors" 38 (38): 640-648, 2007

    23 Ridderinkhof, K. R., "Errors are foreshadowed in brain potentials associated with action monitoring in cingulate cortex in humans" 348 (348): 1-4, 2003

    24 Rabbitt, P. M., "Errors and error correction in choice-response tasks" 71 (71): 264-272, 1966

    25 Scheffers, M. K., "Error-related processing during a period of extended wakefulness" 36 (36): 149-157, 1999

    26 Steinhauser, M., "Error-preceding brain activity reflects (mal-)adaptive adjustments of cognitive control:a modeling study" 6 : 2012

    27 Hajcak, G., "Error-preceding brain activity : Robustness, temporal dynamics, and boundary conditions" 70 (70): 67-78, 2005

    28 Rabbitt, P. M., "Error-detection and correction latencies as a function of S-R compatibility" 19 (19): 37-42, 1967

    29 Steinborn, M. B., "Error reactivity in self-paced performance : Highly-accurate individuals exhibit largest post-error slowing" 65 (65): 624-631, 2012

    30 Wang, S., "Early detection of numerical typing errors using data mining techniques. Systems, Man and Cybernetics, Part A : Systems and Humans" 41 (41): 1199-1212, 2011

    31 MacDonald, A. W., "Dissociating the role of the dorsolateral prefrontal and anterior cingulate cortex in cognitive control" 288 (288): 1835-1838, 2000

    32 Van der Borght, L., "Disentangling posterror and postconflict reduction of interference" 21 (21): 1530-1536, 2014

    33 West, R., "Differential effects of aging on processes underlying task switching" 68 (68): 67-80, 2008

    34 Jentzsch, I., "Control over speeded actions: A common processing locus for micro- and macro-trade-offs?" 59 (59): 1329-1337, 2006

    35 Botvinick, M., "Conflict monitoring versus selection-for-action in anterior cingulate cortex" 402 (402): 179-181, 1999

    36 Botvinick, M. M., "Conflict monitoring and cognitive control" 108 (108): 624-652, 2001

    37 Kim, C., "Conflict adaptation in prefrontal cortex : Now you see it, now you don't" 50 : 76-85, 2014

    38 Mayr, U., "Conflict adaptation effects in the absence of executive control" 6 (6): 450-452, 2003

    39 van Merrienboer, J. J. G., "Cognitive load theory and complex learning : Recent developments and future directions" 17 (17): 147-177, 2005

    40 Laming, D., "Choice reaction performance following an error" 43 (43): 199-224, 1979

    41 Kerns, J. G., "Anterior Cingulate conflict monitoring and adjustments in control" 303 (303): 1023-1026, 2004

    42 Carp, J., "Alpha power is influenced by performance errors" 46 (46): 336-343, 2009

    43 Fair, D. A., "A method for using blocked and event-related fMRI data to study"resting state"functional connectivity" 35 (35): 396-405, 2007

    44 Jones, A. D., "A computational model of anterior cingulate function in speeded response tasks : Effects of frequency, sequence, and conflict" 2 (2): 300-317, 2002

    45 Gehring, W. J., "A Neural System for Error-Detection and Compensation" 4 (4): 385-390, 1993

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    2011-01-01 등재 등재학술지 선정 (등재후보2차) KCI등재
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    기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
    2016 1.18 1.18 1.2
    KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
    1.23 1.17 1.625 0.41
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