Abstract:Driver inattention is one of the leading causes of traffic crashes worldwide. Providing the driver with an early warning prior to a potential collision can significantly reduce the fatalities and level of injuries associated with vehicle collisions. In order to monitor the vehicle surroundings and predict collisions, on-board sensors such as radar, lidar, and cameras are often used. However, the driving environment perception based on these sensors can be adversely affected by a number of factors such as weath… Show more
“…Concerning the different topics and subtopics, we have identified up to seven main categories, and some sub-categories that are presented in the following list (the number of papers per each category/sub-category is enclosed in parentheses): Object detection and scene understanding (11) Vehicle detection and tracking (4): [ 13 , 14 , 15 , 16 ]. Scene segmentation and interpretation (7) Road segmentation (2): [ 17 , 18 ].…”
Section: Special Issue On Intelligent Vehiclesmentioning
confidence: 99%
“…Object detection and scene understanding (11) Vehicle detection and tracking (4): [ 13 , 14 , 15 , 16 ]. Scene segmentation and interpretation (7) Road segmentation (2): [ 17 , 18 ].…”
Section: Special Issue On Intelligent Vehiclesmentioning
confidence: 99%
“…In [ 16 ] a vehicle collision warning system is proposed based on a Kalman filter-based approach for high-level fusion of multiple sensors, including radar, LIDAR, camera and wireless communication. The trajectories of remote targets are predicted, and an appropriate warning to the driver is provided based on the TTC (Time-To-Collision) estimate and the risk assessment.…”
Section: Object Detection and Scene Understandingmentioning
confidence: 99%
“… Vehicle–vehicle collision simulation results and snapshots of the experimental environment at two different time points (images obtained from [ 16 ]). …”
Over the past decades, both industry and academy have made enormous advancements in the field of intelligent vehicles, and a considerable number of prototypes are now driving our roads, railways, air and sea autonomously. However, there is still a long way to go before a widespread adoption. Among all the scientific and technical problems to be solved by intelligent vehicles, the ability to perceive, interpret, and fully understand the operational environment, as well as to infer future states and potential hazards, represent the most difficult and complex tasks, being probably the main bottlenecks that the scientific community and industry must solve in the coming years to ensure the safe and efficient operation of the vehicles (and, therefore, their future adoption). The great complexity and the almost infinite variety of possible scenarios in which an intelligent vehicle must operate, raise the problem of perception as an "endless" issue that will always be ongoing. As a humble contribution to the advancement of vehicles endowed with intelligence, we organized the Special Issue on Intelligent Vehicles. This work offers a complete analysis of all the mansucripts published, and presents the main conclusions drawn.
“…Concerning the different topics and subtopics, we have identified up to seven main categories, and some sub-categories that are presented in the following list (the number of papers per each category/sub-category is enclosed in parentheses): Object detection and scene understanding (11) Vehicle detection and tracking (4): [ 13 , 14 , 15 , 16 ]. Scene segmentation and interpretation (7) Road segmentation (2): [ 17 , 18 ].…”
Section: Special Issue On Intelligent Vehiclesmentioning
confidence: 99%
“…Object detection and scene understanding (11) Vehicle detection and tracking (4): [ 13 , 14 , 15 , 16 ]. Scene segmentation and interpretation (7) Road segmentation (2): [ 17 , 18 ].…”
Section: Special Issue On Intelligent Vehiclesmentioning
confidence: 99%
“…In [ 16 ] a vehicle collision warning system is proposed based on a Kalman filter-based approach for high-level fusion of multiple sensors, including radar, LIDAR, camera and wireless communication. The trajectories of remote targets are predicted, and an appropriate warning to the driver is provided based on the TTC (Time-To-Collision) estimate and the risk assessment.…”
Section: Object Detection and Scene Understandingmentioning
confidence: 99%
“… Vehicle–vehicle collision simulation results and snapshots of the experimental environment at two different time points (images obtained from [ 16 ]). …”
Over the past decades, both industry and academy have made enormous advancements in the field of intelligent vehicles, and a considerable number of prototypes are now driving our roads, railways, air and sea autonomously. However, there is still a long way to go before a widespread adoption. Among all the scientific and technical problems to be solved by intelligent vehicles, the ability to perceive, interpret, and fully understand the operational environment, as well as to infer future states and potential hazards, represent the most difficult and complex tasks, being probably the main bottlenecks that the scientific community and industry must solve in the coming years to ensure the safe and efficient operation of the vehicles (and, therefore, their future adoption). The great complexity and the almost infinite variety of possible scenarios in which an intelligent vehicle must operate, raise the problem of perception as an "endless" issue that will always be ongoing. As a humble contribution to the advancement of vehicles endowed with intelligence, we organized the Special Issue on Intelligent Vehicles. This work offers a complete analysis of all the mansucripts published, and presents the main conclusions drawn.
“…To achieve these objects, a more efficient use of the spectrum is required over the employed wireless communication frequency, thus leading to the concept of millimeter-wave (mmWave) [9][10][11].…”
Investigation of the effect of beam alignment for milimeter wave (mmWave) transmission in the case of Vehicleto-Infrastructure communication (V2I) is carried out. The investigation covered varying transmission-reception (TX-RX) distances. The effect of carrier frequency variation using different antenna angles and gains is also analyzed. The results showed convergence of path loss (PL) values regardless of angle or antenna gain (dBi). The investigation also proved that shadow fading (SF), which is related to standard deviation (σ) and exponent number (n) is a main contributor to the observed high path loss values in the case of misalignment. It is also noted that the path loss values decreases as a function of frequency per same travelled distance, which is related to the exponent number. This work highlights the importance of antenna alignment and that V2I communication can be very much optimized if and when auto-antenna alignment is used, and the importance of multiantenna arrays.
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