Review of Research on Road Traffic Operation Risk Prevention and Control
Abstract
:1. Introduction
2. Materials and Methods
2.1. Review Method
2.2. Literature Retrieval Databases and Keywords
- Keywords at the risk type level: Driving risk, traffic risk, traffic conflict, collision risk, roller risk, sideslip risk, rear-end collision, and road risk.
- Keywords at the risk source level: Driving behavior, alcohol driving, drug driving, distracted driving, fatigue driving, aggressive driving, elderly drivers, novice drivers, dangerous vehicle, dangerous-goods truck, hazardous material transportation, dangerous section, tunnel section, bridge section, long downhill, sharp bends section, road design, horizontal curve, vertical curve, poor traffic environment, adverse traffic weather, rain, foggy weather, and snow.
- Keywords at risk prevention and control research level: Risk evolution, risk identification, risk perception, risk assessment, risk prediction, risk behavior monitoring, risk management, risk correction, risk avoidance, risk response, road emergency, traffic emergency, traffic control, cooperative vehicle infrastructure system, road infrastructure, automatic driving, vehicle guidance, traffic guidance, and speed control.
2.3. Literature Screening Method
2.4. Literature Retrieval and Screening Results
- WoSCC: A total of 22,403 papers were retained from 1996 to 2021 after deduplication.
- CSCD: A total of 7876 papers were retained from 1999 to 2021 after deduplication.
3. Results
3.1. Literature Review of WoSCC
3.1.1. Analysis of “Model”
3.1.2. Analysis of “Risk”
3.1.3. Analysis of “Safety”
3.1.4. Keyword Feature Analysis
- Drivers are the main risk source of road traffic accidents. Relevant research has been carried out in various periods.
- 2.
- Vehicle collision, one of the road traffic risks, has received much attention from researchers because of its highest proportion of road traffic accidents.
- 3.
- The research on ITS has been gradually increasing in the 21st century.
- 4.
- The research related to topics such as autonomous vehicles, intelligent vehicles, V2V technology, V2X technology, and advanced driving assistance system in the field has increased appreciably since 2010.
- 5.
- In the context of the noticeable increase in traffic congestion, low-carbon travel and green transportation have become the mainstream development direction. Moreover, the frequency of residents using nonmotor vehicles, particularly electric bicycles and shared bicycles, has increased appreciably. On the one hand, this change alleviates the problem of motor vehicle congestion. On the other hand, it exacerbates traffic safety problems, such as “pedestrian-vehicle conflict” and “vehicle-bicycle conflict.” These traffic conflicts are more serious at urban road intersections than they are on other types of roads. This concern should be given considerable attention in future research.
3.2. Literature Review of CSCD
3.2.1. Analysis of “Traffic Engineering”
3.2.2. Analysis of “Traffic Safety”
3.2.3. Analysis of “Road Engineering”, “Expressway”, and “Vehicle Engineering”
- Human factor risks: Drivers and their driving behavior characteristics, including driver’s attention mechanism, visual characteristics, driving style, and operating behavior.
- Vehicle factor risks: Vehicle speed control and safety, including safe vehicle operating speed, speed limit under various driving conditions, safety and stability of vehicle control system, control algorithm of the vehicle under various working conditions, prevention and control of vehicle rollover, collision, and lane-changing risks, and the safety of automated driving technology.
- Road factor risks: Driving risks of high-risk road sections, including tunnels, curved slope sections, bridges, and intersections; the safe design of road alignment, such as the index design of longitudinal slope sections.
- Environmental factor risks: Driving risks under adverse weather conditions, of which the driving risk on foggy days is the most concerned, followed by the driving risks on rainy and snowy days.
- Others: Characteristics and influencing factors of road traffic accidents.
3.2.4. Keyword Feature Analysis
- All the high-frequency keywords set for each period involve the research topic of driver characteristics and driving behaviors. This finding indicates that driver factors are usually the leading causes of accidents. Accident statistics also highlight the importance of human factors to road system design.
- 2.
- In the past decade (from 2010 to 2021), the research on vehicle engineering has increased appreciably. It has become the research focus of road traffic operation risk prevention and control in China. The rapid development of science and technology has led to the transformation of vehicle engineering. New vehicle traffic technologies, mainly represented by vehicle-to-infrastructure cooperation systems, vehicle networking, automatic driving, and V2V, belong to the research hotspots in the road traffic safety field.
- 3.
- From the perspective of vehicle operation monitoring and management, the problems needing further research in the future are as follows: screening and monitoring potential accident vehicles and dangerous operating vehicles from the huge and dense real-time vehicle data of road traffic flow; issuing an early warning and taking timely control measures against the target vehicles; adequate supervision of the whole process of transportation vehicles for hazardous materials and special materials.
- 4.
- In road design work in China, the tolerant design concept is underappreciated to some extent.
- 5.
- The research on traffic safety in tunnel sections is a critical issue throughout the history of road traffic operation risk prevention and control research.
- 6.
- The risk prevention and control of hazardous material transportation vehicles is an important task for traffic management departments and transportation enterprises. However, the relevant studies on this topic are few.
- 7.
- Similar to hazardous material transportation vehicles, overlimit transportation vehicles and their safety management have not gained enough attention.
- 8.
- Research on emergency rescue for road traffic emergencies needs to be further improved.
4. Discussion
- The databases selected in the study are relatively limit. Only WoSCC and CSCD were selected as the literature retrieval databases. The literature that is not written in English and Chinese was excluded.
- Only the first few keywords with high co-occurrence frequency were analyzed.
- The studies on the road traffic operation risk prevention and control field from different countries were not analyzed comparatively in this study.
5. Conclusions
- In terms of research methods, studying the prevention and control of road traffic operational risk by establishing models is the mainstream research mode. “Model”, “risk”, and “safety” are the three most occurred keywords from the English literature; “traffic engineering”, “traffic safety”, “road engineering”, “expressway”, and “vehicle engineering” are the five most occurred keywords from the Chinese literature. Relevant research accounts for a large proportion of the literature on road traffic operation risk prevention and control.
- Research on road traffic operation risk prevention and control was mainly conducted from the perspective of drivers, vehicles, roads, and the environment.
- 3.
- Researchers have not paid enough attention to the emergency response to road traffic emergencies. The issues that need further research include the following: the road network traffic control scheme under emergencies; the planning and lay-out of road emergency rescue facilities; the traffic diversion and rescue during emergencies in tunnels; the full chain response mechanism of an accurate early warning system, efficient rescue in events, and rapid recovery after the event of tunnel traffic; the effective setting technology of tunnel traffic safety facilities.
- 4.
- The detection and early warning of driver’s high-risk driving status, the improvement of driver training mechanism and management system, the monitoring of vehicle operation, the safety management of hazardous material transportation, and the safety control of overlimit transportation vehicles must be further studied. Targeted technical measures must be proposed to ensure the safety of road traffic operations.
- 5.
- Research on the impact of driving environment factors on the physiological and psychological characteristics of drivers and the related risky driving behaviors, such as the relationship between weather factors, traffic ancillary facilities, road alignment, and driving behaviors, must be further promoted.
- 6.
- The research results of automated driving technology mainly focused on environmental perception and identification, vehicle positioning and path planning, lane selection, and speed control. The integration of automated driving technology with conventional road design theory and driving dynamics theory and the safety of “hybrid traffic” formed by automatic driving vehicles and conventional motor vehicles must be researched further.
- 7.
- Researchers in China have ignored the “tolerant design concept” in road traffic planning and design to a certain extent. Thus, the corresponding research must be strengthened in the future.
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Future Research Directions | Specific Examples | |
---|---|---|
1 | The impact of driving environment factors on the physiological and psychological characteristics of drivers and adverse driving behaviors | The influence of adverse weather environment on physiological and psychological conditions of drivers; driving risks on long downhill sections |
2 | Traffic emergency response after accidents | Planning of traffic accident rescue service station; humanistic care concept in road design; optimization of layout of road traffic facilities |
3 | The connection between ITS technologies and the core issues of road traffic safety | Expressway traffic flow characteristics under different weather conditions; variation of expressway traffic flow characteristics under the condition of passenger and freight transportation separation |
4 | Changes in road traffic flow characteristics due to service object upgrading | Changes in road traffic flow characteristics in the context of vehicle networking and vehicle-road cooperation technologies |
5 | Various traffic conflicts on urban roads | Traffic conflicts between non-motor vehicles and motor vehicles; traffic conflicts between pedestrians and motor vehicles; traffic conflicts between pedestrians and non-motor vehicles |
Future Research Directions | Specific Examples | |
---|---|---|
1 | Effective technologies for driving risk monitoring | Technologies for monitoring and warning drivers of high-risk driving conditions, capturing dangerous driving behaviors, and correcting dangerous behaviors |
2 | Optimization of driver training system | Investigating the psychological status of driving test personnel and developing the corresponding training strategies |
3 | Screening and monitoring of potential accident vehicles and dangerous operating vehicles | Screening and monitoring potential accident vehicles and dangerous operating vehicles from the huge and dense real-time vehicle data of road traffic flow |
4 | Tolerant design concept in road design work | Road alignment guidance design; subgrade slope control design; roadside buffer and energy dissipation facilities design; traffic guidance sign design |
5 | Risk prevention and control of tunnel sections | Response mechanism of an accurate early warning system, efficient rescue in the accident, and rapid recovery after the accident |
6 | Risk prevention and control of hazardous material transportation vehicles | Supervising the whole process of hazardous material transportation vehicles; risk prevention and control technology of hazardous material transportation vehicles operating on roads at night; safety guarantee technology for hazardous material transportation vehicles in long downhill sections, bridges, tunnels, and other sections; monitoring and management technology of hazardous material transportation vehicles under bad weather conditions |
7 | Safety management of overlimit transportation vehicles | Risk assessment, transport mileage limitation, transportation route planning, transportation process monitoring, and traffic organization and guidance of overlimit transportation vehicles |
8 | Emergency rescue for road traffic emergencies | Road network control plan in an emergency; rapid planning plan for rescue vehicle routes; traffic guidance plan for secondary accident prevention; medical rescue service plan for injured people; layout and resource allocation of emergency rescue stations, road information management, and rescue of special sections (tunnels, bridges, and separated subgrade sections) in the road design and construction stages |
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Ma, Y.; Xu, J.; Gao, C.; Mu, M.; E, G.; Gu, C. Review of Research on Road Traffic Operation Risk Prevention and Control. Int. J. Environ. Res. Public Health 2022, 19, 12115. https://0-doi-org.brum.beds.ac.uk/10.3390/ijerph191912115
Ma Y, Xu J, Gao C, Mu M, E G, Gu C. Review of Research on Road Traffic Operation Risk Prevention and Control. International Journal of Environmental Research and Public Health. 2022; 19(19):12115. https://0-doi-org.brum.beds.ac.uk/10.3390/ijerph191912115
Chicago/Turabian StyleMa, Yongji, Jinliang Xu, Chao Gao, Minghao Mu, Guangxun E, and Chenwei Gu. 2022. "Review of Research on Road Traffic Operation Risk Prevention and Control" International Journal of Environmental Research and Public Health 19, no. 19: 12115. https://0-doi-org.brum.beds.ac.uk/10.3390/ijerph191912115