Sideslip Angle Based Variable Slip Ratio Limiter for Direct Yaw Moment Control of Two-Input-Two-Output Motor Vehicles

This paper presents a new direct yaw moment control system for electric vehicles with two-input-two-output motor drives. The proposed system consists of two layers: yaw-rate control in the outer and driving force control in the inner. To optimize the driving force generation capability of the left a...

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Published in2024 IEEE International Conference on Advanced Intelligent Mechatronics (AIM) pp. 1476 - 1481
Main Authors Sato, Tona, Ueno, Takumi, Nguyen, Binh Minh, Fujimoto, Hiroshi, Toyota, Hiromitsu, Sawase, Kaoru
Format Conference Proceeding
LanguageEnglish
Published IEEE 15.07.2024
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Abstract This paper presents a new direct yaw moment control system for electric vehicles with two-input-two-output motor drives. The proposed system consists of two layers: yaw-rate control in the outer and driving force control in the inner. To optimize the driving force generation capability of the left and right tires during turning, a novel variable slip ratio limiter (VSRL) is developed for the driving force control (DFC). The VSRL algorithm is derived by analyzing the brush model of tire force characteristics concerning the sideslip angle of the vehicle body. The proposed system was evaluated using an actual electric vehicle prototype developed by Mitsubishi Motors. The experiments were conducted under extremely harsh conditions, such as sudden acceleration while cornering on the ice surface. Compared with the existing methods with conventional VSRL, the proposed system successfully enhances the yaw-rate tracking performance.
AbstractList This paper presents a new direct yaw moment control system for electric vehicles with two-input-two-output motor drives. The proposed system consists of two layers: yaw-rate control in the outer and driving force control in the inner. To optimize the driving force generation capability of the left and right tires during turning, a novel variable slip ratio limiter (VSRL) is developed for the driving force control (DFC). The VSRL algorithm is derived by analyzing the brush model of tire force characteristics concerning the sideslip angle of the vehicle body. The proposed system was evaluated using an actual electric vehicle prototype developed by Mitsubishi Motors. The experiments were conducted under extremely harsh conditions, such as sudden acceleration while cornering on the ice surface. Compared with the existing methods with conventional VSRL, the proposed system successfully enhances the yaw-rate tracking performance.
Author Sawase, Kaoru
Sato, Tona
Ueno, Takumi
Nguyen, Binh Minh
Toyota, Hiromitsu
Fujimoto, Hiroshi
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  givenname: Tona
  surname: Sato
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  organization: The University of Tokyo, 5-1-5 Kashiwanoha,Graduate School of Frontier Science,Kashiwa,Chiba,Japan,277-8561
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  givenname: Takumi
  surname: Ueno
  fullname: Ueno, Takumi
  organization: The University of Tokyo, 5-1-5 Kashiwanoha,Graduate School of Frontier Science,Kashiwa,Chiba,Japan,277-8561
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  givenname: Binh Minh
  surname: Nguyen
  fullname: Nguyen, Binh Minh
  organization: The University of Tokyo, 5-1-5 Kashiwanoha,Graduate School of Frontier Science,Kashiwa,Chiba,Japan,277-8561
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  givenname: Hiroshi
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  fullname: Fujimoto, Hiroshi
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  organization: The University of Tokyo, 5-1-5 Kashiwanoha,Graduate School of Frontier Science,Kashiwa,Chiba,Japan,277-8561
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  givenname: Hiromitsu
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  organization: The University of Tokyo, 5-1-5 Kashiwanoha,Graduate School of Frontier Science,Kashiwa,Chiba,Japan,277-8561
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  givenname: Kaoru
  surname: Sawase
  fullname: Sawase, Kaoru
  organization: MITSUBISHI MOTORS CORPORATION, 1, Nakashinkiri, Hashimecho,Okazaki,Aichi,Japan,444-8501
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Snippet This paper presents a new direct yaw moment control system for electric vehicles with two-input-two-output motor drives. The proposed system consists of two...
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StartPage 1476
SubjectTerms Electric vehicles
Force
Motor drives
Motors
Prototypes
Roads
Turning
Title Sideslip Angle Based Variable Slip Ratio Limiter for Direct Yaw Moment Control of Two-Input-Two-Output Motor Vehicles
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