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      KCI등재 SCIE SCOPUS

      MODELLING AND CONTROLLING OF CAR-FOLLOWING BEHAVIOR IN REAL TRAFFIC FLOW USING ARMAX IDENTIFICATION AND MODEL PREDICTIVE CONTROL

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      https://www.riss.kr/link?id=A104636622

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      다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

      Nowadays, car following models, as the most popular microscopic traffic flow modeling, are increasingly being used by transportation experts to evaluate new Intelligent Transportation System (ITS) and Advanced Driver Assistance Systems (ADAS) applications. The control of car following is essential due to its safety and its operational efficiency. For this purpose, this paper builds a model of car following behavior based on ARMAX structure from a real traffic data set and presents a Model Predictive Control (MPC) controller. An important advantage of this type of control is its ability to cope with constraints on controls. Since safety and operational efficiency are constraints for car following, therefore we have recruited this type of controller in this study to deal with these constraints. Based on the relative distance and relative acceleration of each instant, the MPC predicts the future behavior of the leader vehicle (LV) and according to this behavior, the acceleration of the follower vehicle (FV) is controlled. The MPC tries to control this acceleration in a way to keep the relative distance at a safe region. To investigate the performance of the designed controller, the result of the system is compared with the behavior of human drivers with similar initial conditions. Also, some other test performances were accomplished to investigate other features such as robustness and the stability of the designed MPC. The simulation results show that the MPC controller has a behavior much safer than that of real drivers and it can provide a pleasant trip for passengers.
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      Nowadays, car following models, as the most popular microscopic traffic flow modeling, are increasingly being used by transportation experts to evaluate new Intelligent Transportation System (ITS) and Advanced Driver Assistance Systems (ADAS) applicat...

      Nowadays, car following models, as the most popular microscopic traffic flow modeling, are increasingly being used by transportation experts to evaluate new Intelligent Transportation System (ITS) and Advanced Driver Assistance Systems (ADAS) applications. The control of car following is essential due to its safety and its operational efficiency. For this purpose, this paper builds a model of car following behavior based on ARMAX structure from a real traffic data set and presents a Model Predictive Control (MPC) controller. An important advantage of this type of control is its ability to cope with constraints on controls. Since safety and operational efficiency are constraints for car following, therefore we have recruited this type of controller in this study to deal with these constraints. Based on the relative distance and relative acceleration of each instant, the MPC predicts the future behavior of the leader vehicle (LV) and according to this behavior, the acceleration of the follower vehicle (FV) is controlled. The MPC tries to control this acceleration in a way to keep the relative distance at a safe region. To investigate the performance of the designed controller, the result of the system is compared with the behavior of human drivers with similar initial conditions. Also, some other test performances were accomplished to investigate other features such as robustness and the stability of the designed MPC. The simulation results show that the MPC controller has a behavior much safer than that of real drivers and it can provide a pleasant trip for passengers.

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      참고문헌 (Reference)

      1 "US 101 Highway (Hollywood Freeway)"

      2 Bemporad, A., "The explicit linear quadratic regulator for constrained systems" 38 (38): 3-20, 2002

      3 Ljung, L., "System Identification ToolboxTM 8 User’s Guide"

      4 Soderstrom, T., "System Identification" Prentice-Hall 1989

      5 Katayama, T., "Subspace Methods for System Identification" Springer-Verlag 2005

      6 Zegeye, S. K., "Reduction of travel times and traffic emissions using model predictive control" 5392-5397, 2009

      7 Terwen, S., "Predictive powertrain control for heavy duty truck" 451-457, 2004

      8 Maciejowski, J. M., "Predictive Control with Constraints" Prentice Hall 2002

      9 Pan, D., "Optimal control and discrete time-delay model of car following" 5657-5661, 2008

      10 Pipes, L. A., "Operational analysis of traffic dynamics" 24 (24): 274-281, 1953

      1 "US 101 Highway (Hollywood Freeway)"

      2 Bemporad, A., "The explicit linear quadratic regulator for constrained systems" 38 (38): 3-20, 2002

      3 Ljung, L., "System Identification ToolboxTM 8 User’s Guide"

      4 Soderstrom, T., "System Identification" Prentice-Hall 1989

      5 Katayama, T., "Subspace Methods for System Identification" Springer-Verlag 2005

      6 Zegeye, S. K., "Reduction of travel times and traffic emissions using model predictive control" 5392-5397, 2009

      7 Terwen, S., "Predictive powertrain control for heavy duty truck" 451-457, 2004

      8 Maciejowski, J. M., "Predictive Control with Constraints" Prentice Hall 2002

      9 Pan, D., "Optimal control and discrete time-delay model of car following" 5657-5661, 2008

      10 Pipes, L. A., "Operational analysis of traffic dynamics" 24 (24): 274-281, 1953

      11 Kamal, M. A. S., "On board eco-driving system for varying roadtraffic environments using model predictive control" 1636-1641, 2010

      12 Panwai, S., "Neural agent car following models" 8 (8): 60-70, 2007

      13 US Department of Transportation, "NGSIM–Next Generation Simulation"

      14 Zhu, Y., "Multivariable System Identification for Process Control" Pergamon 2001

      15 Ogata, K., "Modern Control Engineering" Prentice Hall 2010

      16 Baskar, L. D., "Model-based predictive traffic control for intelligent vehicles: Dynamic velocity limits and dynamic lane allocation" 174-179, 2008

      17 Li, S., "Model predictive multi-objective vehicular adaptive cruise control" 19 (19): 556-566, 2011

      18 Garcia, C. E., "Model predictive control: Theory and practice, a survey" 25 (25): 335-348, 1989

      19 Tettamanti, T., "Model predictive control in urban traffic network management" 25-27, 2008

      20 Luo, L. H., "Model predictive control for adaptive cruise control with multiobjectives: Comfort, fuel-economy, safety and carfollowing" 11 (11): 191-201, 2010

      21 Wang, L., "Model Predictive Control System Design and Implementation Using MATLAB" Springer-Verlag London 2009

      22 Limon, D., "MPC for tracking piecewise constant references for constrained linear systems" 44 (44): 2382-2387, 2008

      23 T. Y. SHIN, "MODIFIED LATERAL CONTROL OF AN AUTONOMOUS VEHICLE BY LOOK-AHEAD AND LOOK-DOWN SENSING" 한국자동차공학회 12 (12): 103-110, 2011

      24 V. T. MINH, "MODELING AND MODEL PREDICTIVE CONTROL FOR HYBRID ELECTRIC VEHICLES" 한국자동차공학회 13 (13): 477-485, 2012

      25 M. H. LEE, "LATERAL CONTROLLER DESIGN FOR AN UNMANNED VEHICLE VIA KALMAN FILTERING" 한국자동차공학회 13 (13): 801-807, 2012

      26 Baskar, L. D., "Intelligent speed adaptation in intelligent vehicle highway systems − A model predictive control approach" 57-62, 2008

      27 Rasmussen, J., "Information Processing and Humanmachine Interaction: An Approach to Cognitive Engineering" Elsevier 1986

      28 Thiemann, C., "Estimating acceleration and lane-changing dynamics based on NGSIM trajectory data" 2088 : 90-101, 2008

      29 Zakian, V., "Control Systems Design: A New Framework" Springer-Verlag London 2005

      30 Re, L., "Chances and Challenges in Automotive Predictive Control" 402 : 1-22, 2010

      31 Rothery, R. W., "Car Following Models" Transportation Research Board 1992

      32 Ma, X., "Behavior measurement, analysis, and regime classification in car following" 8 (8): 144-156, 2007

      33 Taylor, J. R., "An Introduction to Error Analysis: The Study of Uncertainties in Physical Measurements" University Science Books 1982

      34 T.-H. CHANG, "ADVANCE-F AUTOMATIC CAR-FOLLOWING MODEL AND ITS TRAFFIC CHARACTERISTICS" 한국자동차공학회 12 (12): 933-942, 2011

      35 De Winter, J. C. F., "A twodimensional weighting function for a driver assistance system" 38 (38): 189-195, 2008

      36 Naus, G. J. L., "A model predictive control approach to design a parameterized adaptive cruise control" 402 : 273-284, 2010

      37 Falcone, P., "A model predictive control approach for combined braking and steering in autonomous vehicles" 1-6, 2007

      38 Caird, J. K., "A meta-analysis of the effects of cell phones on driver performance" 40 (40): 1282-1293, 2008

      39 Khodayari, A., "A historical review on lateral and longitudinal control of autonomous vehicle motions" 421-429, 2010

      40 Zhang, H. M., "A car-following theory for multiphase vehicular traffic flow" 39 (39): 385-399, 2005

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      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
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      2005-06-10 학술지명변경 한글명 : 한국자동차공학회 영문논문집 -> International Journal of Automotive Technology
      외국어명 : International Journal of Automotive Tech -> International Journal of Automotive Technology
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      2005-01-01 평가 등재후보 1차 PASS (등재후보1차) KCI등재후보
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      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 1.14 0.53 0.85
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.71 0.62 0.534 0.03
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