메뉴 건너뛰기
.. 내서재 .. 알림
소속 기관/학교 인증
인증하면 논문, 학술자료 등을  무료로 열람할 수 있어요.
한국대학교, 누리자동차, 시립도서관 등 나의 기관을 확인해보세요
(국내 대학 90% 이상 구독 중)
로그인 회원가입 고객센터 ENG
주제분류

추천
검색

논문 기본 정보

자료유형
학위논문
저자정보

엄휘수 (국민대학교, 국민대학교 대학원)

지도교수
이상헌
발행연도
2016
저작권
국민대학교 논문은 저작권에 의해 보호받습니다.

이용수1

표지
AI에게 요청하기
추천
검색

이 논문의 연구 히스토리 (2)

초록· 키워드

오류제보하기
A majority of recently developed advanced vehicles have been equipped with various automated driver assistance systems, such as adaptive cruise control (ACC) and lane-keeping (LK) system. In addition, autonomous vehicles which consist of several automated systems increase. These automated systems have several operational modes, and drivers can be unaware of the mode in which they are operating. Because mode confusion is a significant human error factor that contributes to traffic accidents, it is necessary to develop user interfaces for automated systems that can reduce mode confusion.
In this paper, we developed a new interface design methodology for automated systems and verified its effectiveness through user interface design and driver-in-the-loop experiments with ACC systems. In addition, for an autonomous vehicle, we proposed driver interfaces that can accurately describe the states of the autonomous vehicles with a number of ADASs including ACC. In addition, the driver-in-the-loop experiments were conducted to examine the possibility of mode confusion while driving in various automation levels.
In conclusion, to reduce the mode confusion, not only the user mental model should be precise and concise, but also the user interface should be designed with simplicity of driver-vehicle interaction and intuitiveness of operation and in consideration of consistency.

목차

Ⅰ. Introduction 1
Ⅱ. Human-automation interaction design for adaptive cruise control (ACC) systems of ground vehicles 3
1. Introduction 3
2. Literature survey 7
3. Proposed methodology for the design and verification of user interfaces 11
4. Machine and interface models of ACC systems 16
4.1 Traditional machine model of ACC systems 16
4.2 Traditional interface models of ACC systems 18
5. Development of new interface models for ACC systems 21
5.1 Design of machine and interface models 21
5.2 Compatibility test of machine and interface models 23
5.3 Redesign of machine and interface models 25
6. Driver-in-the-loop experiments 28
6.1 Participants 28
6.2 Procedure 28
6.3 Apparatus 30
6.3.1 Driving simulator 30
6.3.2 Graphical user interface for ACC systems 33
6.4 Scenario 34
7. Results 38
7.1 Mode confusion rates 38
7.2 Questionnaire survey 45
7.2.1 Summary of questionnaire results after each experiment 45
7.2.2 Summary of questionnaire results after all experiments 46
8. Discussion 49
9. Conclusions 51
Ⅲ. Design and evaluation of human-machine interface to reduce mode confusion for autonomous vehicles with multiple levels of automation 53
1. Introduction 53
2. Literature survey 58
3. Machine and interface models of autonomous vehicles with multiple levels of automation 62
3.1 Machine model of autonomous vehicle with multiple levels of automation 64
3.1.1 Machine and interface models of stepwise interface 64
3.1.2 Machine and interface models of independent interface 67
3.2 Compatibility test of machine and interface models 71
4. Driver-in-the-loop experiments 72
4.1 Participants 72
4.2 Procedure 72
4.3 Apparatus 73
4.3.1 Driving simulator 73
4.3.2 Graphical user interface for autonomous vehicle with multiple levels of automation 77
4.4 Scenario 79
5. Results 83
5.1 Mode confusion rates 83
5.2 Questionnaire survey 89
5.2.1 Summary of questionnaire results after each experiment 89
5.2.2 Summary of questionnaire results after all experiments 93
6. Discussion 95
7. Conclusions 96
7.1 Summary of study results 96
7.2 Future works 97
References 98

최근 본 자료

전체보기

댓글(0)

0