Acta Geodaetica et Cartographica Sinica ›› 2022, Vol. 51 ›› Issue (6): 1029-1039.doi: 10.11947/j.AGCS.2022.20220198
• Cartography and Geoinformation • Previous Articles Next Articles
MENG Liqiu
Received:2022-03-17
Revised:2022-04-07
Published:2022-07-02
CLC Number:
MENG Liqiu. Yesterday, today and tomorrow of autonomous navigation maps[J]. Acta Geodaetica et Cartographica Sinica, 2022, 51(6): 1029-1039.
| [1] LAFRANCE A. Your grandmother's driverless car[J/OL]. The Atlantic. (2016-06-29). http://www.theatlantic.com/technology/archive/2016/06/beep-beep/489029. [2] ZHANG Meng, YAO Wei, MENG Liqiu. Enrichment of topographic road database for the purpose of routing and navigation[J]. International Journal of Digital Earth, 2014, 7(5):411-431. [3] GRÖGER G, KOLBE T H, CZERWINSKI A. Candidate OpenGIS® CityGML Implementation Specification Version:0.3.0[S]. Open Geospatial Consortium Inc. 2006. [4] ELLIS C. Mapping the world:Solving one of the biggest challenges for autonomous cars[J/OL]. TechRadar. pro. (2019-04-12). http://www.techradar.com/news/mapping-the-world-solving-one-of-the-biggest-challenges-for-autonomous-cars. [5] MATTHEWS K. What are HD maps, and how will they get us closer to autonomous cars?[J/OL]. IoT Times. (2019-09-16). https://iot.eetimes.com/what-are-hd-maps-and-how-will-they-get-us-closer-to-autonomous-cars. [6] BILLINGTON J. Toyota's self-driving spin-off trials new HD mapping technology[J/OL]. Autonomous Vehicle International. ADAS. (2019-03-01). http://www.autonomousvehicleinternational.com/news/adas/toyotas-self-dri-ving-spin-off-trials-new-hd-mapping-technology.html. [7] TIEDEMANN Y, NAGEL P. Autonomes Fahren-Wie Entwickler den Datenbergen zu Leibe rücken[J/OL]. automotiveIT. (2021-11-11). http://www.automotiveit.eu/technology/autonomes-fahren/datenmassen-im-autonomen- auto-291.html. [8] 司伟. 高精度地图:自动驾驶时代的基础设施[R]. 广州:广州广证恒生证券研究所有限公司, 2019. SI Wei. High definition maps:Infrastructure for the age of autonomous driving[R]. Guangzhou:Guangzhou Guang Zheng Hang Sheng Securities Research Institute Co., 2019. [9] DAHLSTRÖM T. How accurate are HD maps for autonomous driving and ADAS simulation?[J/OL]. Atlatec, (2020-10-22). https://atlatec.de/de/blog/how-accurate-are-hd-maps-for-autonomous-driving-and-adas-simulation. [10] 刘旷. 在即将到来的AI智能地图新时代, 新玩家还有机会吗?[J/OL]. OFweek. (2020-12-16). http://www.ofweek.com/auto/2020-12/ART-70109-8140-30474976.html. LIU Kuang. Do new players still have a chance in the coming new era of AI intelligent maps?[J/OL]. OFweek. (2020-12-16). http://www.ofweek.com/auto/2020-12/ART-70109-8140-30474976.html. [11] ROMERO A. Tesla AI Day. Review-Part 1:The promise of full self-driving cars[J/OL]. Towards data science. (2021-09-05). https://towardsdatascience.com/tesla-ai-day-2021-review-part-1-the-promise-of-fully-self-driving-cars-8e469265509b. [12] HARVEY S, LEE A. Introducing:The fingerprint base MapTM for autonomous vehicle mapping and localization[J/OL]. Civil Maps. (2018-01-09). https://medium.com/@CivilMaps/introducing-the-fingerprint-base-map-for-autonomous-vehicle-mapping-and-localization-649dbd1e4810. [13] TRINKWON W. Analysis:Will intelligent roads finally move self-driving cars into the fast lane?[J/OL]. Autocar News. (2021-02-22). https://www.autocar.co.uk/car-news/industry-news-tech%2C-development-and-manufacturing/analysis-will-intelligent-roads-finally. [14] CAMARA F, BELLOTTO N, COSAR S, et al. Pedestrian models for autonomous driving Part Ⅱ:High-level models of human behavior[J]. IEEE Transactions on Intelligent Transportation Systems, 2021, 22(9):5453-5472. [15] MCDUFF D, SONG Yale, VEMPRALA S, et al. CausalCity:Introducing a high-fidelity simulation with agency for advancing causal reasoning in machine learning[J/OL]. Microsoft Research Blog. (2021-06-29). https://www.microsoft.com/en-us/research/blog/causalcity-introducing-a-high-fidelity-simulation-with-agency-for-advancing- causal-reasoning-in-machine-learning. [16] TAFAJ E, KASNECI G, ROSENSTEILW, et al. Bayesian online clustering of eye movement data[C]//Proceedings of the Symposium on Eye Tracking Research and Applications. Santa Barbara, California:ACM, 2012:285-288. [17] CENSI A, SLUTSKY K, WONGPIROMSARN T, et al. Liability, ethics, and culture-aware behavior specification using rulebooks[C]//Proceedings of 2019 International Conference on Robotics and Automation (ICRA). Montreal, QC, Canada:IEEE, 2019:8536-8542. [18] BLUMENTHAL M S, FRAADE-BLANAR L, BEST R, et al. Safe enough:Approaches to assessing acceptable safety for automated vehicles[R].[S.l.]:Rand Corporation, 2020. [19] European Commission. Ethics of connected and automated vehicles[R].[S.l.]:Publications Office, 2020. [20] STILGOE J. How can we know a self-driving car is safe?[J]. Ethics and Information Technology, 2021, 23(4):635-647. DOI:10.1007/s10676-021-09602-1. [21] MIT R. Two years since the tesla GPS hack[J/OL]. GPS World. (2021-08-30). https://www.gpsworld.com/two-years-since-the-tesla-gps-hack. [22] NORJAMÄKI N. Otaniemi, meet A!ex[J]. Aalto University Magazine, 2021:29(10):40-41. [23] PEGASUS project office. Pegasus Method-An Overview[R]. Berlin:PEGASUS, 2019. |
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