Artificial Intelligence Deployment Center of Excellence (AI COE)
The AI COE Collection is a central resource for transportation stakeholders that may aid in deployment of safe and responsible AI in surface transportation. The collection will feature current and emerging resources, innovations, and technologies. For more information on the AI COE, go to https://highways.dot.gov/ai-coe.
This session of the Transportation Librarians Roundtable marks a return to the group updates format. Michael Molina discusses the origins of the Pooled Fund Study, current work as it gets ready to wind down in 2025, and outcomes from the project. With 18 members from states across the U.S., the study resulted in digitization of thousands of materia
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Supporting Files
Molina, M., White, E., & Marcus, C. (2024). The Good, the Bold, and the Useful: Updates on Activities and Initiatives within the World of Transportation Libraries. United States. Department of Transportation. National Transportation Library. https://doi.org/10.21949/d7mm-9w46
Molina, Michael, Enid White, and Cara Marcus. The Good, the Bold, and the Useful: Updates on Activities and Initiatives within the World of Transportation Libraries. United States. Department of Transportation. National Transportation Library, 2024. https://doi.org/10.21949/d7mm-9w46.
Molina, Michael, et al. The Good, the Bold, and the Useful: Updates on Activities and Initiatives within the World of Transportation Libraries. United States. Department of Transportation. National Transportation Library, 2024, ROSA P. https://doi.org/10.21949/d7mm-9w46.
This report is one in a series of studies designed to investigate the practicality of including attitudes as explanatory variables in practice-oriented travel demand forecasting models. In this study, we respectively applied random forest (RF) and elastic net regression (ENR) to 15 marker variables (MVs), to predict factor scores on four attitudes:
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Soria, J., & Mokhtarian, P. L. (2024). How Effective are Marker Variables at Predicting Attitudinal Factor Scores? An Out-of-sample Evaluation. Center for Understanding Future of Travel Behavior and Demand (TBD) National University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/87066
Soria, Jason and Patricia L. Mokhtarian. How Effective are Marker Variables at Predicting Attitudinal Factor Scores? An Out-of-sample Evaluation. Center for Understanding Future of Travel Behavior and Demand (TBD) National University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/87066.
Soria, Jason, and Patricia L. Mokhtarian How Effective are Marker Variables at Predicting Attitudinal Factor Scores? An Out-of-sample Evaluation. Center for Understanding Future of Travel Behavior and Demand (TBD) National University Transportation Center (UTC), 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/87066.
The retro-reflectivity of traffic signs is essential for road safety, particularly in low-light and adverse weather conditions, by ensuring signs remain visible and legible to road users. However, retro-reflective quality degrades over time due to environmental exposure, reducing sign effectiveness and increasing risks of road accidents and potenti
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Ruganuza, D., Sulle, M., Olukoye, P., Mwakalonge, J. L., Comert, G., & Siuhi, S. (2024). Deep Learning-Based Computer Vision Framework for Predicting Retroreflectivity of Road Signs. Center for Connected Multimodal Mobility, Clemson University. https://rosap.ntl.bts.gov/view/dot/83805
Ruganuza, Denis, Methuselah Sulle, Paul Olukoye, Judith L. Mwakalonge, Gurcan Comert, and Saidi Siuhi. Deep Learning-Based Computer Vision Framework for Predicting Retroreflectivity of Road Signs. Center for Connected Multimodal Mobility, Clemson University, 2024. https://rosap.ntl.bts.gov/view/dot/83805.
Ruganuza, Denis, et al. Deep Learning-Based Computer Vision Framework for Predicting Retroreflectivity of Road Signs. Center for Connected Multimodal Mobility, Clemson University, 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/83805.
This project aimed to develop a multi-rotor UAV-based track geometry measurement system using image and LiDAR sensors that does not require the closure of track during inspection. The research was divided into three stages: exploration of optimal path planning, development of a LiDAR-only track geometry measurement system, and development of a came
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Qiu, L., Zhu, M., Jiang, Y., Park, J. W., Li, H., Chen, T., Shao, H., & Teng, H. (. (2024). Development of Multi-Rotor-UAV-Based Rail Track Irregularity Monitoring and Measuring Platform with Image and Lidar Sensors (Report No. RailTEAM UNLV-5). University of Nevada. University Transportation Center on Improving Rail Transportation Infrastructure Sustainability and Durability. https://rosap.ntl.bts.gov/view/dot/80407
Qiu, Lihao, Ming Zhu, Yingtao Jiang, Jee Woong Park, Han Li, Tianding Chen, Haijian Shao, and Hualiang (Harry) Teng. Development of Multi-Rotor-UAV-Based Rail Track Irregularity Monitoring and Measuring Platform with Image and Lidar Sensors. Report no. RailTEAM UNLV-5. University of Nevada. University Transportation Center on Improving Rail Transportation Infrastructure Sustainability and Durability, 2024. https://rosap.ntl.bts.gov/view/dot/80407.
Qiu, Lihao, et al. Development of Multi-Rotor-UAV-Based Rail Track Irregularity Monitoring and Measuring Platform with Image and Lidar Sensors. University of Nevada. University Transportation Center on Improving Rail Transportation Infrastructure Sustainability and Durability, 2024, Report no. RailTEAM UNLV-5, ROSA P. https://rosap.ntl.bts.gov/view/dot/80407.
In this work, we introduce a dataset called DrivingContexts for the detection of relevant driving contexts for autonomous driving. Additionally, we propose the use of vision language models such as LLaVa and ViLT with zero-shot and few-shot approaches, to solve the problem of detecting such contexts. With our approach, we reduce the need for fully
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Dataset
Rajkumar, R. (., Sahu, N., & Sural, S. (2024). ContextVLM: Zero-Shot and Few-Shot Context Understanding for Autonomous Driving using Vision Language Models [IEEE ITSC 2024] [supporting dataset]. Carnegie Mellon University. Traffic21 Institute. Safety21 University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/87498
Rajkumar, Ragunathan (Raj), Nishad Sahu, and Shounak Sural. ContextVLM: Zero-Shot and Few-Shot Context Understanding for Autonomous Driving using Vision Language Models [IEEE ITSC 2024] [supporting dataset]. Carnegie Mellon University. Traffic21 Institute. Safety21 University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/87498.
Rajkumar, Ragunathan (Raj), et al. ContextVLM: Zero-Shot and Few-Shot Context Understanding for Autonomous Driving using Vision Language Models [IEEE ITSC 2024] [supporting dataset]. Carnegie Mellon University. Traffic21 Institute. Safety21 University Transportation Center (UTC), 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/87498.
Based on the traffic light prediction and trajectory optimization techniques for a stream of CAVs, the proposed congestion-reducing scheme can increase the throughput of the transportation network by attenuating the deceleration and acceleration of vehicles before the signalized intersections, accompanied by decreased fuel consumption and emissions
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DatasetSupporting Files
Li, X. (2024). Data-Driven Combined Longitudinal and Lateral Control for the Car Following Problem [supporting dataset]. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/86350
Li, Xianning. Data-Driven Combined Longitudinal and Lateral Control for the Car Following Problem [supporting dataset]. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/86350.
Li, Xianning Data-Driven Combined Longitudinal and Lateral Control for the Car Following Problem [supporting dataset]. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/86350.
Based on the traffic light prediction and trajectory optimization techniques for a stream of CAVs, the proposed congestion-reducing scheme can increase the throughput of the transportation network by attenuating the deceleration and acceleration of vehicles before the signalized intersections, accompanied by decreased fuel consumption and emissions
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Jiang, Z. P., Ozbay, K., & Li, X. (2024). Control of Connected and Autonomous Vehicles for Congestion Reduction in Mixed Traffic: A Learning-Based Approach. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/86345
Jiang, Zhong-Ping, Kaan Ozbay, and Xianning Li. Control of Connected and Autonomous Vehicles for Congestion Reduction in Mixed Traffic: A Learning-Based Approach. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/86345.
Jiang, Zhong-Ping, et al. Control of Connected and Autonomous Vehicles for Congestion Reduction in Mixed Traffic: A Learning-Based Approach. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/86345.
We have carried out a two-component study investigating how to build high-performing human driver models. First, we investigated how to combine large-scale datasets from autonomous vehicle companies with reinforcement learning methods for training agents. We showed that by adding a supervised learning loss atop the model training, we could build mo
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DatasetSupporting Files
Vinitsky, E., & Cornelisse, D. (2024). Building Digital Twins via GPU-Accelerated Human-Regularized Reinforcement Learning [supporting dataset]. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/86546
Vinitsky, Eugene and Daphne Cornelisse. Building Digital Twins via GPU-Accelerated Human-Regularized Reinforcement Learning [supporting dataset]. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/86546.
Vinitsky, Eugene, and Daphne Cornelisse Building Digital Twins via GPU-Accelerated Human-Regularized Reinforcement Learning [supporting dataset]. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/86546.
We have carried out a two-component study investigating how to build high-performing human driver models. First, we investigated how to combine large-scale datasets from autonomous vehicle companies with reinforcement learning methods for training agents. We showed that by adding a supervised learning loss atop the model training, we could build mo
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Vinitsky, E., & Cornelisse, D. (2024). Building Digital Twins via GPU-Accelerated Human-Regularized Reinforcement Learning. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/86354
Vinitsky, Eugene and Daphne Cornelisse. Building Digital Twins via GPU-Accelerated Human-Regularized Reinforcement Learning. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/86354.
Vinitsky, Eugene, and Daphne Cornelisse Building Digital Twins via GPU-Accelerated Human-Regularized Reinforcement Learning. Connected Communities for Smart Mobility Toward Accessible and Resilient Transportation for Equitably Reducing Congestion (C2SMARTER) Tier-1 University Transportation Center (UTC), 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/86354.
Ensuring the resilience of bridges against earthquakes is crucial for the rapid recovery of communities. Speedy and accurate damage assessments are essential for pinpointing the most affected areas and facilitating prompt decision-making. Current methods (i.e., fragility curves and estimates) are often slow and inaccurate. To address these issues,
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Chen, G., Alomari, I., Taffese, W., & Afsharmovahed, M. H. (2024). Earthquake-Induced Damage Classification of Bridges Using Artificial Neural Network (Report No. 25-1121-0005-125-1). University of Nebraska. Mid-America Transportation Center. https://rosap.ntl.bts.gov/view/dot/77891
Chen, Genda, Ibrahim Alomari, Woubishet Taffese, and Mohammad Hossein Afsharmovahed. Earthquake-Induced Damage Classification of Bridges Using Artificial Neural Network. Report no. 25-1121-0005-125-1. University of Nebraska. Mid-America Transportation Center, 2024. https://rosap.ntl.bts.gov/view/dot/77891.
Chen, Genda, et al. Earthquake-Induced Damage Classification of Bridges Using Artificial Neural Network. University of Nebraska. Mid-America Transportation Center, 2024, Report no. 25-1121-0005-125-1, ROSA P. https://rosap.ntl.bts.gov/view/dot/77891.
The main objective of this research is to develop and deploy a wireless crack sensing system that can measure and monitor cracks for both concrete and steel bridge structures. This system will contain the sensing unit, wireless data transmitting system, as well as a data processing unit. The sensing unit will consist of single or arrays of advanced
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Wu, Chenglin and Yanxiao Li. Functional Composite-Based Wireless Sensing Platform for Bridge Structures. Report no. 25-1121-0005-129-2. Mid-America Transportation Center, 2024. https://rosap.ntl.bts.gov/view/dot/77921.
Wu, Chenglin, and Yanxiao Li Functional Composite-Based Wireless Sensing Platform for Bridge Structures. Mid-America Transportation Center, 2024, Report no. 25-1121-0005-129-2, ROSA P. https://rosap.ntl.bts.gov/view/dot/77921.
For this project, we developed an end-to-end system based on advanced artificial intelligence (AI) models and effective computer vision algorithms to detect and report near-miss collisions as an important indicator to identify and measure safety risks, especially in specific circumstances such as right turn on a red light. The main objective is to
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Pourhomayoun, M. (2024). Artificial Intelligence for Pedestrian and Bicyclist Safety: Using AI To Detect Near-Miss Collisions [Research Brief] (Report No. 2350). San Jose State University. College of Business. Mineta Transportation Institute. https://rosap.ntl.bts.gov/view/dot/78241
Pourhomayoun, Mohammad. Artificial Intelligence for Pedestrian and Bicyclist Safety: Using AI To Detect Near-Miss Collisions [Research Brief]. Report no. 2350. San Jose State University. College of Business. Mineta Transportation Institute, 2024. https://rosap.ntl.bts.gov/view/dot/78241.
Pourhomayoun, Mohammad Artificial Intelligence for Pedestrian and Bicyclist Safety: Using AI To Detect Near-Miss Collisions [Research Brief]. San Jose State University. College of Business. Mineta Transportation Institute, 2024, Report no. 2350, ROSA P. https://rosap.ntl.bts.gov/view/dot/78241.
This study investigates the impact of semi-automated vehicle (SAV) systems, specifically Adaptive Cruise Control (ACC), on driver behavior and control transitions (CT). The variations and adaptations in driver performance due to mental workload, influenced by factors such as task difficulty and driver awareness, are critical, especially under diffe
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Kondyli, A., Lane, B. W., & Masud, S. S. B. (2024). Investigation of Driver Adaptations in a Mixed Traffic Environment (Report No. 25-1121-0005-153-4). Mid-America Transportation Center for Transportation Safety and Equity (MATC-TSE) Region 7 University Transportation Center (UTC). https://rosap.ntl.bts.gov/view/dot/77889
Kondyli, Alexandra, Bradley W Lane, and Saumik Sakib Bin Masud. Investigation of Driver Adaptations in a Mixed Traffic Environment. Report no. 25-1121-0005-153-4. Mid-America Transportation Center for Transportation Safety and Equity (MATC-TSE) Region 7 University Transportation Center (UTC), 2024. https://rosap.ntl.bts.gov/view/dot/77889.
Kondyli, Alexandra, et al. Investigation of Driver Adaptations in a Mixed Traffic Environment. Mid-America Transportation Center for Transportation Safety and Equity (MATC-TSE) Region 7 University Transportation Center (UTC), 2024, Report no. 25-1121-0005-153-4, ROSA P. https://rosap.ntl.bts.gov/view/dot/77889.
United States. Department of Transportation. Highly Automated Systems Safety Center of Excellence
2024-09-01
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Our first AI Assurance (AIA) whitepaper, An Overview of AI Assurance for Transportation, was published in April 2024. One of the identified key areas for AIA research is AI risk assessment and mitigation, which has not been explored sufficiently in the past. To promote and accelerate research efforts to address AI risks, this whitepaper-as the seco
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United States. Department of Transportation. Highly Automated Systems Safety Center of Excellence (2024). Understanding AI Risks in Transportation: AI Assurance for Transportation Whitepaper Series. United States. Department of Transportation. https://rosap.ntl.bts.gov/view/dot/78595
United States. Department of Transportation. Highly Automated Systems Safety Center of Excellence. Understanding AI Risks in Transportation: AI Assurance for Transportation Whitepaper Series. United States. Department of Transportation, 2024. https://rosap.ntl.bts.gov/view/dot/78595.
United States. Department of Transportation. Highly Automated Systems Safety Center of Excellence Understanding AI Risks in Transportation: AI Assurance for Transportation Whitepaper Series. United States. Department of Transportation, 2024, ROSA P. https://rosap.ntl.bts.gov/view/dot/78595.
Transit Signal Priority (TSP) is a traffic signal control strategy that can provide priority to transit vehicles and thus improve transit service. However, this control strategy generally causes adverse effects on other traffic, which limits its widespread adoption. The development of Connected Vehicle (CV) technology enables the real-time acquisit
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Fan, W., & Yang, T. (2024). Transit Signal Priority Control With Connected Vehicle Technology: Deep Reinforcement Learning Approach (Report No. 2022 Project 17). University of North Carolina at Charlotte. Center for Advanced Multimodal Mobility Solutions and Education. https://rosap.ntl.bts.gov/view/dot/77807
Fan, Wei and Tianjia Yang. Transit Signal Priority Control With Connected Vehicle Technology: Deep Reinforcement Learning Approach. Report no. 2022 Project 17. University of North Carolina at Charlotte. Center for Advanced Multimodal Mobility Solutions and Education, 2024. https://rosap.ntl.bts.gov/view/dot/77807.
Fan, Wei, and Tianjia Yang Transit Signal Priority Control With Connected Vehicle Technology: Deep Reinforcement Learning Approach. University of North Carolina at Charlotte. Center for Advanced Multimodal Mobility Solutions and Education, 2024, Report no. 2022 Project 17, ROSA P. https://rosap.ntl.bts.gov/view/dot/77807.
This study investigated the impact of roadside features on road departure (RD) crashes and provided recommendations for safety improvements on Utah's highways. The research utilized a computer vision model originally developed in the UDOT project, Automated Safety Assessment of Rural Roadways Using Computer Vision (Mashhadi et al., 2023), which was
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Subedi, A. K., Markovic, N., Rashidi, A., & Chamberlin, R. (2024). Measuring the Impact of Roadside Features on Road-Departure Crashes and Prioritizing Safety Improvement Projects (Report No. UT-24.15). Utah Department of Transportation. https://rosap.ntl.bts.gov/view/dot/80406
Subedi, Abhishek Kumar, Nikola Markovic, Abbas Rashidi, and Robert Chamberlin. Measuring the Impact of Roadside Features on Road-Departure Crashes and Prioritizing Safety Improvement Projects. Report no. UT-24.15. Utah Department of Transportation, 2024. https://rosap.ntl.bts.gov/view/dot/80406.
Subedi, Abhishek Kumar, et al. Measuring the Impact of Roadside Features on Road-Departure Crashes and Prioritizing Safety Improvement Projects. Utah Department of Transportation, 2024, Report no. UT-24.15, ROSA P. https://rosap.ntl.bts.gov/view/dot/80406.
Urban Rail Transit (URT) systems play a critical role in modern cities but consume significant amounts of energy. Understanding and predicting energy consumption patterns in these systems is vital for sustainable urban planning, especially during disruptive events. This study presents a Long Short-Term Memory (LSTM) recurrent neural network, the mo
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Han, Z., Christofa, E., Gonzales, E., & Oke, J. (2024). Robust Decision-Making Framework for Sustainable Operations and Planning of MBTA Rapid Transit Vehicles (Report No. 24-063). Massachusetts. Dept. of Transportation. Office of Transportation Planning. https://rosap.ntl.bts.gov/view/dot/79350
Han, Zhuo, Eleni Christofa, Eric Gonzales, and Jimi Oke. Robust Decision-Making Framework for Sustainable Operations and Planning of MBTA Rapid Transit Vehicles. Report no. 24-063. Massachusetts. Dept. of Transportation. Office of Transportation Planning, 2024. https://rosap.ntl.bts.gov/view/dot/79350.
Han, Zhuo, et al. Robust Decision-Making Framework for Sustainable Operations and Planning of MBTA Rapid Transit Vehicles. Massachusetts. Dept. of Transportation. Office of Transportation Planning, 2024, Report no. 24-063, ROSA P. https://rosap.ntl.bts.gov/view/dot/79350.
Potholes are a significant pavement distress compromising safety and causing costly damage. They result from pavement deterioration due to aging, weather, and traffic overloads, with the Mountain Plains region particularly affected due to freeze/thaw cycles. Timely identification and repair of potholes are critical for effective highway maintenance
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Jia, G., & Chen, W. H. (2024). Visible & Thermal Imaging and Deep Learning Based Approach for Automated Robust Detection of Potholes to Prioritize Highway Maintenance [Brief] (Report No. MPC 24-559 (project 620)). Mountain-Plains Consortium. https://rosap.ntl.bts.gov/view/dot/78917
Jia, Gaofeng and Wei-Hsiang Chen. Visible & Thermal Imaging and Deep Learning Based Approach for Automated Robust Detection of Potholes to Prioritize Highway Maintenance [Brief]. Report no. MPC 24-559 (project 620). Mountain-Plains Consortium, 2024. https://rosap.ntl.bts.gov/view/dot/78917.
Jia, Gaofeng, and Wei-Hsiang Chen Visible & Thermal Imaging and Deep Learning Based Approach for Automated Robust Detection of Potholes to Prioritize Highway Maintenance [Brief]. Mountain-Plains Consortium, 2024, Report no. MPC 24-559 (project 620), ROSA P. https://rosap.ntl.bts.gov/view/dot/78917.
Potholes are a significant pavement distress compromising safety and causing costly damage. They result from pavement deterioration due to aging, weather, and traffic overloads, with the Mountain Plains region particularly affected due to freeze/thaw cycles. Timely identification and repair of potholes are critical for effective highway maintenance
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Jia, G., & Chen, W. H. (2024). Visible & Thermal Imaging and Deep Learning Based Approach for Automated Robust Detection of Potholes to Prioritize Highway Maintenance (Report No. MPC-620). Mountain-Plains Consortium. https://rosap.ntl.bts.gov/view/dot/78916
Jia, Gaofeng and Wei-Hsiang Chen. Visible & Thermal Imaging and Deep Learning Based Approach for Automated Robust Detection of Potholes to Prioritize Highway Maintenance. Report no. MPC-620. Mountain-Plains Consortium, 2024. https://rosap.ntl.bts.gov/view/dot/78916.
Jia, Gaofeng, and Wei-Hsiang Chen Visible & Thermal Imaging and Deep Learning Based Approach for Automated Robust Detection of Potholes to Prioritize Highway Maintenance. Mountain-Plains Consortium, 2024, Report no. MPC-620, ROSA P. https://rosap.ntl.bts.gov/view/dot/78916.
This report investigates the application of low-cost sensing technologies, including GPS, accelerometers, and smartphones, to monitor roadway pavement conditions in real time. By leveraging widely available sensors embedded in vehicles, this research demonstrates how machine learning models can detect and classify road anomalies, such as cracks and
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Abdallah, M., Clevenger, C. M., & Monghasemi, S. (2024). Studying the Use of Low-Cost Sensing Devices to Report Roadway Pavement Conditions (Report No. MPC-612). Mountain-Plains Consortium. https://rosap.ntl.bts.gov/view/dot/78991
Abdallah, Moatassem, Caroline M. Clevenger, and Shahryar Monghasemi. Studying the Use of Low-Cost Sensing Devices to Report Roadway Pavement Conditions. Report no. MPC-612. Mountain-Plains Consortium, 2024. https://rosap.ntl.bts.gov/view/dot/78991.
Abdallah, Moatassem, et al. Studying the Use of Low-Cost Sensing Devices to Report Roadway Pavement Conditions. Mountain-Plains Consortium, 2024, Report no. MPC-612, ROSA P. https://rosap.ntl.bts.gov/view/dot/78991.
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