I'll help you with a literature review on system thinking principles applied to driving automation systems, focusing on the human operator aspect. To better tailor the review to your needs, I'd like to clarify a few points:
Are you interested in a specific level of driving automation (e.g., SAE levels 1-5), or would you like the review to cover all automation levels?
Would you prefer the literature review to focus on any particular aspects of human operation, such as situational awareness, workload, trust in automation, or human-automation interaction?
Do you have a specific timeframe for the literature you'd like covered (e.g., recent developments in the last 5 years, or a broader historical perspective)?
I'll organize a comprehensive literature review covering how system thinking principles have been applied to driving automation systems across all automation levels (SAE Levels 1-5), focusing on human operator aspects over the past 20 years. The review will include:
I'll analyze literature from 2005 to 2025, focusing on peer-reviewed journals, conference proceedings, and significant industry research in this domain.
Problem Breakdown
Action Plan
Initial Broad Search & Keyword Refinement:
Targeted Literature Search in Academic Databases and Repositories:
Grey Literature and Institutional Report Search:
Literature Screening and Selection:
Full-Text Review and Data Extraction:
Thematic Analysis and Synthesis:
Drafting the Literature Review Report:
Review and Refinement:
Let me begin the search for relevant literature.
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system thinking principles driving automation human operator reviewI see that my initial search provided some relevant results, but I need to refine my search to get more specific literature on system thinking principles applied to driving automation with a focus on human operators. Let me search for more targeted academic literature.
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systems thinking human factors driving automation SAE levels reviewInformation Already Gathered
Next Steps Action Plan
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sociotechnical systems theory driving automation human operatorI need to gather more specific information about system thinking principles applied to driving automation with a focus on human operators. Let me search for literature on situation awareness and mental models in automated driving.
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situation awareness mental models driving automation human operator reviewLet me search for more specific information on trust and workload in automated driving systems.
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trust workload driving automation human operator system thinkingLet me search for information on joint cognitive systems and distributed situation awareness in driving automation.
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joint cognitive systems distributed situation awareness driving automationInformation Already Gathered
Next Steps Action Plan
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mode confusion automation surprises driving automation system thinkingLet me search for information on skill degradation and handover/takeover processes in automated driving.
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skill degradation handover takeover driving automation system thinkingLet me try a different search query to find information on skill degradation and takeover in automated driving.
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skill degradation takeover driving automation human factorsLet me search for information on system thinking principles applied to driving automation design.
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system thinking principles applied to driving automation designInformation Already Gathered
Next Steps Action Plan
The previous action plan has been successful in guiding information retrieval. The focus now shifts to deeper analysis, synthesis, and structuring the report.
The webpage appears to be from Elsevier, a major academic publishing company. The content is partially loaded, showing only the Elsevier logo at the top of the page and a "Skip to main content" link. The actual main content of the webpage is not visible in the provided HTML snippet. The logo is displayed as an SVG image encoded in base64 format. There is no other visible text content, navigation elements, or page structure beyond these minimal elements. This suggests the webpage may still be loading or there might be an issue with the content rendering. The page likely serves as a portal to Elsevier's academic publications, journals, or services, but the specific purpose cannot be determined from the limited content available.
No content related to the question. The webpage only shows an Elsevier logo and a "Skip to main content" link. The main content of the page is not visible in the provided HTML snippet, making it impossible to extract any relevant information that might answer the question being explored.
Let me try accessing a different source to find information about systems thinking applied to automated vehicle design.
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Learning lessons for automated vehicle design: Using systems thinking to analyse and compare automation-related accidents across transport domainsLet me access the full paper to understand how systems thinking is applied to automated vehicle design.
The webpage appears to be a screenshot of a text-heavy document or article that discusses information analysis. The image shows dense text formatted in multiple paragraphs with what seems to be numbered sections or points. Due to the image format, the text is not fully legible in many areas, making it difficult to extract specific content details.
The visible portions suggest this might be an instructional document or guide related to information analysis methodologies. There appear to be numbered items or steps, possibly outlining a process or framework for analyzing information. The layout suggests a formal document structure with possible headers, paragraphs of explanatory text, and potentially some bullet points or numbered lists.
The image quality and resolution make it challenging to read specific text content clearly, but the overall impression is of a technical or educational document focused on information or data analysis concepts.
Since the image is not clearly legible and appears to be a screenshot of text content, I cannot extract specific information related to the query. The text in the image is too blurry or small to read accurately in most areas. Without being able to read the actual content, I cannot determine what specific information it contains that might be relevant to the query.
No content related to the question can be reliably extracted from this image due to legibility issues.
There are no visible clickable links in the image. The content appears to be a static screenshot of text rather than an interactive webpage with hyperlinks.
There are no distinct images within the screenshot that can be extracted. The entire content is presented as a single screenshot of text-based information.
Title: Screenshot of text document
Content: A text document or article about information analysis (specific content not clearly legible)
Source: Unknown
Link: The image itself is embedded in the query as a data URL beginning with "data:image/png;base64..."
Note: The image quality and resolution make it difficult to determine the specific content of the document shown in the screenshot.
该网页似乎是一个文本密集型文档或文章的截图,内容与信息分析相关。图像显示了多个段落的密集文本,似乎有编号的部分或要点。由于图像格式的限制,许多区域的文本不完全清晰,难以提取具体内容细节。
可见部分表明这可能是一个与信息分析方法相关的指导文档或指南。似乎有编号的项目或步骤,可能概述了分析信息的过程或框架。布局表明这是一个正式的文档结构,可能包含标题、解释性文本段落,以及可能的项目符号或编号列表。
图像质量和分辨率使得难以清晰阅读具体文本内容,但总体印象是这是一个专注于信息或数据分析概念的技术或教育文档。
由于图像不清晰且似乎是文本内容的截图,我无法提取与查询相关的具体信息。图像中的文本在大多数区域太模糊或太小,无法准确阅读。在无法阅读实际内容的情况下,我无法确定它包含哪些可能与查询相关的具体信息。
由于可读性问题,无法从此图像中可靠地提取与问题相关的内容。
图像中没有可见的可点击链接。内容似乎是文本的静态截图,而不是带有超链接的交互式网页。
截图中没有可以提取的独特图像。整个内容以单一的基于文本信息的截图呈现。
标题:文本文档截图
内容:关于信息分析的文本文档或文章(具体内容不清晰可辨)
来源:未知
链接:图像本身作为以"data:image/png;base64..."开头的数据URL嵌入在查询中
注意:图像质量和分辨率使得难以确定截图中所示文档的具体内容。
Let me search for more specific information about the application of systems thinking to automated driving with a focus on human operators.
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AcciMap systems thinking automated vehicles human factors integrationInformation Already Gathered
Next Steps Action Plan
Based on the search results, I now have more information about how systems thinking is applied to automated vehicle design, particularly using the AcciMap technique. Let me search for more information about joint cognitive systems and distributed situation awareness in driving automation.
The webpage discusses metacognition in human-centered cyber-physical systems (HCPS) and cognitive tools. It presents the joint cognitive system (JCS) approach, which views cognition as emerging from goal-oriented interactions between humans and artifacts in specific work contexts. The content explains how modern workplaces with collaborative robots, virtual/augmented reality, and smart interfaces require operators to process increasing amounts of data into actionable knowledge.
The article describes a model of HCPS focused on cognition, where automation systems control physical components while intelligent assistive systems analyze environmental data to support cognitive functions. This creates a cyclic interaction between human and system cognition, termed metacognition. Supporting cognitive functions include communicating, deciding, planning, and problem-solving, which are enabled by processes like perceiving, analyzing, and information exchange.
The webpage also contrasts two approaches to cognitive tools: the "prosthesis" approach, which focuses on building standalone machine experts with humans serving primarily as data gatherers, versus the "instrument" approach, which positions tools as means for enhancing human capabilities with the human remaining in control. The instrument approach emphasizes adaptability and puts knowledge resources in the hands of human problem-solvers, allowing them to direct computational resources effectively.
Research directions mentioned include developing assistants that integrate with operators for better workplace decision-making and creating "programming without coding" solutions to make technologies like collaborative robots more accessible to small and medium enterprises.
The webpage provides extensive information about human-centered cyber-physical systems (HCPS) and metacognition:
Definition of HCPS: A work system that enhances human operator capabilities through dynamic interactions between humans and machines in cyber and physical worlds via smart interfaces. It involves physical systems, cybernetic elements, and human workers who monitor and influence the cyber-physical elements.
Joint Cognitive System (JCS) Approach: This approach acknowledges that cognition emerges from goal-oriented interactions between people and artifacts in specific work contexts. It focuses on models of co-agency rather than models of cognition, emphasizing functional aspects of the system.
Metacognition in HCPS: The webpage describes metacognition as a cyclic interaction between system cognition and human cognition. This concept extends the automation paradigm by establishing symbolic integration of humans and machines in a closed-loop system where the cognitive state of the operator and operational context must be detected by the system.
Model Components: The HCPS model includes:
Supporting Functions: Cognitive functions (communicating, deciding, planning, problem-solving) are supported by cognitive processes (perceiving, analyzing, exchanging information, manipulating).
Human-Automation Symbiosis: The article proposes a paradigm shift from independent human and automated activities toward human-automation symbiosis, where systems are designed not to replace human abilities but to coexist with humans and enhance their efficiency.
Research Needs: The article identifies needs for:
Research Lines:
Cognitive Tools Approaches:
Adaptability: The article emphasizes adaptability as crucial for intelligent behavior, suggesting that IDS systems should increase human problem-solvers' adaptability to various problems that could arise.
Read full article - Link to the complete scientific article about metacognition in human-centered cyber-physical systems
Context: This link appears at the end of sections discussing metacognition in HCPS
Read full article - Repeated link to the same article
Context: This link appears after the discussion of research lines in metacognition
Title: Model of a human-centred cyber–physical system
Content: Diagram showing a human-robot collaborative workspace focused on cognition according to the JCS approach, illustrating the interaction between automation systems, physical systems, cyber space, and human operators
Source: Unknown (likely the authors of the article)
Link: https://ars.els-cdn.com/content/image/1-s2.0-S2542660522001548-gr1.jpg
Title: Supporting functions of the joint cognitive system
Content: Diagram illustrating the supporting functions that enable metacognition in a human-centered cyber-physical system, showing cognitive functions and processes
Source: Unknown (likely the authors of the article)
Link: https://ars.els-cdn.com/content/image/1-s2.0-S2542660522001548-gr2.jpg
Title: Architecture of the joint human-machine cognitive system
Content: Diagram showing the architecture implicit in the prosthesis approach to cognitive tools, illustrating how the machine controls the process while humans serve as interfaces to the environment
Source: Woods, 1986
Link: https://ars.els-cdn.com/content/image/3-s2.0-B9780444705365500063-f01-02-9780444705365.gif
Based on the information gathered, I'll now search for more specific information about distributed situation awareness in driving automation.
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distributed situation awareness driving automation human operatorInformation Already Gathered
Next Steps Action Plan
The rapid advancement of driving automation technologies has transformed the relationship between human operators and vehicles. As vehicles progress through the Society of Automotive Engineers (SAE) automation levels from 1 to 5, the role of the human operator shifts dramatically, creating new challenges and opportunities for system design. System thinking principles offer a valuable framework for understanding these complex human-automation interactions, moving beyond reductionist approaches to consider the holistic, interconnected nature of automated driving systems.
This literature review examines how system thinking principles have been applied to driving automation systems over the past two decades, with a specific focus on the human operator. The review covers theoretical frameworks that incorporate system thinking, human operator aspects across automation levels, methodological approaches, and emerging trends in the field.
Sociotechnical systems theory provides a foundation for understanding driving automation as a complex interplay between technical components and human operators. This approach recognizes that automated vehicles operate within broader social, organizational, and regulatory contexts that collectively influence system performance and safety sciencedirect.com. The theory emphasizes that humans, their performance, actions, and decisions play a significant role in operations within complex sociotechnical systems, highlighting the need to understand people's actions within their working environment.
The Joint Cognitive System (JCS) approach represents a significant paradigm shift in conceptualizing human-automation interaction. Rather than viewing the human and the automated system as separate entities, JCS considers them as a unified cognitive system where cognition emerges from goal-oriented interactions between humans and artifacts in specific work contexts sciencedirect.com. In automated driving, the vehicle and human are seen as a joint cognitive system, with both elements collaborating to deliver safe and comfortable driving experiences.
This approach focuses on models of co-agency rather than isolated models of cognition, emphasizing the functional aspects of the system. The JCS framework has been particularly valuable in understanding how automation and human operators distribute cognitive work, especially in situations requiring handover or takeover of control .
The Distributed Situation Awareness (DSA) model extends traditional concepts of situation awareness beyond the individual operator to consider how awareness is distributed across human and technological agents in a system. This model is particularly relevant to driving automation, where situation awareness must be maintained across both the human operator and the automated system pmc.ncbi.nlm.nih.gov.
In the context of automated driving, DSA recognizes that situation awareness is not merely the sum of individual awareness but emerges from the interactions between system components. This perspective has been applied to understand how drivers maintain awareness during automated driving and how awareness can be effectively transferred during transitions of control .
System thinking has been applied to understand how drivers develop and maintain mental models of automated driving systems. Research indicates that accurate mental models are crucial for appropriate trust calibration and effective human-automation interaction sciencedirect.com. Mental models are internal cognitive representations of how a system works and include users' understandings and explanations of system functionality.
Situation awareness remains a critical concern across all levels of automation. As automation increases, drivers' situation awareness tends to decrease, creating challenges for takeover scenarios. System thinking approaches have been used to develop frameworks for maintaining driver situation awareness, particularly in Level 3 automation where drivers must be ready to resume control .
Recent research has proposed a systems-level framework that integrates cognitive theories of joint action and situational awareness to tailor communications between autonomous vehicles and human operators arxiv.org. This framework is based on four components of the shared situation: AV traits, action goals, subject-specific traits and states, and the situated driving context.
Trust in automated driving systems has been examined through a systems perspective, recognizing that trust is influenced by multiple interacting factors including vehicle behavior, workload, and the predispositions of the driver sciencedirect.com. System thinking approaches have revealed that trust mediates the effects of human-automation interaction experiences on physiological responses and monitoring behaviors.
Research has identified that trust calibration—developing appropriate levels of trust that match system capabilities—is essential for safe and effective use of automated driving systems. Over-trust can lead to misuse of automation, while under-trust can result in disuse . System thinking has helped identify feedback mechanisms that can support appropriate trust calibration across different automation levels.
System thinking principles have been applied to understand the complex relationship between automation levels and operator workload. While automation can reduce physical workload, it often introduces new cognitive demands related to monitoring and understanding system states researchgate.net.
Research has shown that situation awareness, mental workload, and trust are viable constructs that are valuable in understanding and predicting human-system performance in complex systems . The interplay between these factors has been studied using system approaches that consider their dynamic relationships rather than examining them in isolation.
Mode confusion occurs when operators misunderstand the current operational mode of an automated system. System thinking approaches have been valuable in identifying the systemic factors that contribute to mode confusion, including interface design, training, and the complexity of automation transitions .
Communication between the human operator and the automated system has been identified as crucial for avoiding mode confusion and automation surprises. Such communication can facilitate appropriate trust and reliance . System thinking has informed the design of human-machine interfaces that provide continuous support for mode awareness, helping drivers understand the current state and capabilities of the automated system.
A systems perspective has highlighted concerns about skill degradation as drivers become increasingly reliant on automated features. Research indicates that frequent engagement with automation can induce skill decay, which becomes problematic when manual intervention is required .
System thinking approaches have suggested that to maintain driving skills, human drivers should keep having opportunities to drive manually. This insight has informed designs that balance automation benefits with the need to preserve human skill sets, particularly for lower levels of automation (SAE Levels 1-3) where human intervention may be required.
The process of transitioning control between automation and human operators has been extensively studied using system thinking principles. Research has shown that takeover performance is influenced by multiple interacting factors, including the driver's situation awareness, workload, trust in automation, and the time available for the transition .
System thinking has informed the development of frameworks for understanding these transitions, recognizing that effective handovers require coordination between the human and automated components of the system. This has led to designs that provide graduated transitions rather than abrupt handovers, supporting the human operator's ability to regain situation awareness and control.
The AcciMap technique represents a significant application of system thinking to analyze accidents involving automated technologies. This approach maps multiple contributing factors to accidents and their inter-relationships across different levels of the sociotechnical system .
A notable study analyzed twenty-two investigation reports into automation-related accidents across traditional transport modes (aviation, maritime, and rail) using the AcciMap technique, with factors codified using a contributing factors taxonomy and analyzed using network metrics researchgate.net. The results were compared with analyses of automated vehicle crashes to identify learning opportunities for automated vehicle design.
This systems-based analysis revealed two key leverage points for improving safety in automated driving systems:
Cognitive Work Analysis (CWA) has been applied to understand the constraints and requirements of driving automation systems from a system thinking perspective. This approach focuses on identifying the functional structure of the work domain and the cognitive demands placed on operators, rather than prescribing specific procedures or interfaces.
CWA has been particularly valuable for designing interfaces that support situation awareness and decision-making across different levels of automation. By analyzing the work domain constraints, CWA helps identify information requirements for operators at different automation levels, supporting the design of interfaces that facilitate effective human-automation collaboration.
System thinking has informed the development of adaptive automation approaches that dynamically allocate functions between the human and automated system based on contextual factors such as operator state, environmental conditions, and task demands . These approaches recognize that the optimal distribution of tasks may vary across situations and operators.
An emerging application of system thinking is in the design of remote operation systems for autonomous vehicles. Even fully autonomous vehicles (SAE Level 5) may occasionally require human intervention in edge cases, such as when encountering unexpected situations like construction zones with temporary traffic patterns .
Research has begun to explore the unique human factors challenges associated with remote operation, including how operators build situation awareness through video feeds and other remote sensing technologies. System thinking approaches are being used to develop taxonomies of situation awareness specific to remote operation contexts .
The Safe Systems approach represents a significant application of system thinking to road safety, including automated vehicles. This approach puts safety at the forefront and calls for designing systems that account for human fallibility pmc.ncbi.nlm.nih.gov. Systems thinking tools help identify latent risks in the transportation system, examine factors that contribute to high travel speeds and kinetic energy transfer, and support safety prioritization through goal alignment.
Recent research has proposed a paradigm shift from independent human and automated activities toward human-automation symbiosis . This approach designs systems not to replace human abilities but to coexist with humans and enhance their efficiency. The concept extends the automation paradigm by establishing symbolic integration of humans and machines in a closed-loop system where the cognitive state of the operator and operational context must be detected by the system.
System thinking principles have significantly enhanced our understanding of driving automation systems, particularly regarding the role of human operators. By moving beyond reductionist approaches to consider the complex, interconnected nature of human-automation interaction, system thinking has informed more effective designs, training approaches, and regulatory frameworks.
Key insights from this review include:
Future research should continue to apply system thinking principles to address emerging challenges in driving automation, including the integration of automated vehicles into complex traffic environments, the design of effective remote operation systems, and the development of regulatory frameworks that account for the systemic nature of automated driving risks.