What the impact of computer vision in analysing sports video?5 answersComputer vision has had a significant impact on analyzing sports videos. It has been widely used in the field of computer vision for human motion analysis, particularly in the emerging field of competitive sports analysis. Computer vision techniques, such as deep learning, have been successfully applied to tasks like video target detection and tracking in sports videos. These techniques enable the intelligent analysis of the movement of external objects, providing convenience in various fields like security, medical care, and video surveillance. In combat sports, computer vision is being used to develop automation clients that can accurately classify human movements, compare athletes' techniques, and even automate scoring in competitions. Additionally, computer vision is used in video analysis for tasks like shot boundary detection and object detection, despite challenges like camera motion and irregular motion of foreground objects.
What use VR and AR in urban planning or traffic simulation visualization exist?5 answersVirtual reality (VR) and augmented reality (AR) have various applications in urban planning and traffic simulation visualization. These technologies are used to simulate and visualize planning scenarios of urban traffic systems in a realistic way, allowing for the exploration and evaluation of different design options. AR applications in planning participation increase the motivation for participation and present planning concepts more realistically, leading to a sustainable transformation of cities. City Information Models combined with simulation software packages and VR technologies allow for the exploration of 'what-if?' scenarios and the analysis of traffic management and pedestrian flow in urban environments. VR technology enables users to test the effectiveness of urban planning initiatives before implementation, aiding in decision-making and reducing costs. Immersive environments, including VR and AR, can be used to explore large urban regions for planning, design, training, and operations in fields such as intelligent transportation and smart cities.
What are the main contribution of machine learning to the road safety?5 answersMachine learning has made significant contributions to road safety. One of the main contributions is the ability to analyze data and extract hidden patterns, which can help in predicting the severity of road accidents. Machine learning algorithms such as Decision Tree, LightGBM, and XGBoost have been used to model the accuracy of road traffic accidents, providing insights into critical variables that need to be monitored to reduce accidents. Another contribution is the use of machine learning for image classification to identify vehicles prone to accidents. Additionally, machine learning techniques have been applied to predict road accidents severity using various data sources such as accident reports, weather conditions, and road infrastructure. These predictions can provide real-time risk information to road users, helping them make informed decisions and avoid potential accidents. Overall, machine learning has the potential to improve road safety by providing valuable insights and enabling proactive measures to reduce accidents.
Why did u think ai can improve traffic flow?4 answersAI can improve traffic flow by utilizing real-time analysis and object detection algorithms such as YOLO. By collecting data on traffic conditions and using AI techniques, traffic management systems can make well-informed decisions to optimize traffic flow. AI-based solutions can also help in predicting and modeling traffic patterns, optimizing public transportation, and implementing smart parking systems, all of which contribute to reducing traffic congestion and improving traffic management. Additionally, AI can be used to prioritize emergency vehicles during traffic jams, improving their response time. By integrating AI with intelligent traffic control systems, the efficiency of vehicle scheduling and communication systems can be improved, leading to better traffic flow. Overall, AI technologies enable efficient traffic management by analyzing traffic conditions, streamlining traffic flows, and prioritizing vehicles and pedestrians based on actual needs.
How can GIS and Street view imagery be used to improve road safety for pedestrians and cyclists?5 answersGIS and street view imagery can be used to improve road safety for pedestrians and cyclists in several ways. Firstly, deep learning techniques applied to street view imagery can help identify and analyze risk factors for cyclists, such as high vehicle speed, tram/train rails, truck circulation, parked cars, and the presence of pedestrians. Secondly, street view perception can be evaluated using scene graph generation and graph-matching algorithms, providing suggestions for improving street views in terms of beauty, safety, wealth, liveliness, boredom, and depression. Additionally, street view images can be used to detect pavement damage, allowing for rapid identification and maintenance of road pavement distress. Furthermore, satellite imagery and object detection algorithms can be integrated to automatically detect school routes, crosswalks, and divided carriageways, aiding in the recording and planning of road attributes for improved safety. Finally, image inpainting techniques can be used to replace accident-prone features with safe roadway elements, contributing to safe roadway design.
How can artificial intelligence be used to improve urban planning?5 answersArtificial intelligence (AI) can be used to improve urban planning in several ways. Firstly, AI technologies such as geographic information systems (GIS), database management systems (DBMS), and decision support systems (DSS) can provide advanced analysis methods for urban planners, allowing them to gain insights into consumer behavior, improve supply chains, and enhance decision-making processes. Additionally, AI can generate authentic images based on texts, allowing planners to visualize future cities and explore design possibilities. AI can also be applied in the early stages of urban planning and design to predict the positioning of design land based on the surrounding environment, breaking the limitations of manual decision-making and assisting in spatial layout problem-solving. Furthermore, computational optimization techniques, such as evolutionary multiobjective optimization, can be used to improve the performance of urban grid layouts, considering factors like proximity and sustainable design practices. Overall, AI has the potential to enhance decision-making, assessment processes, and urban design practices in urban planning.