RISC: Resource-Constrained Urban Sensing Task Scheduling Based on Commercial Fleets
Xiaoyang Xie, Zhihan Fang, Yang Wang, Fan Zhang, Desheng Zhang
Abstract
With the trend of vehicles becoming increasingly connected and potentially autonomous, vehicles are being equipped with rich sensing and communication devices. Various vehicular services based on shared real-time sensor data of vehicles from a fleet have been proposed to improve the urban efficiency, e.g., HD-live map, and traffic accident recovery. However, due to the high cost of data uploading (e.g., monthly fees for a cellular network), it would be impractical to make all well-equipped vehicles to upload real-time sensor data constantly. To better utilize these limited uploading resources and achieve an optimal road segment sensing coverage, we present a real-time sensing task scheduling framework, i.e., RISC, for Resource-Constraint modeling for urban sensing by scheduling sensing tasks of commercial vehicles with sensors based on the predictability of vehicles' mobility patterns. In particular, we utilize the commercial vehicles, including taxicabs, buses, and logistics trucks as mobile sensors to sense urban phenomena, e.g., traffic, by using the equipped vehicular sensors, e.g., dash-cam, lidar, automotive radar, etc. We implement RISC on a Chinese city Shenzhen with one-month real-world data from (i) a taxi fleet with 14 thousand vehicles; (ii) a bus fleet with 13 thousand vehicles; (iii) a truck fleet with 4 thousand vehicles. Further, we design an application, i.e., track suspect vehicles (e.g., hit-and-run vehicles), to evaluate the performance of RISC on the urban sensing aspect based on the data from a regular vehicle (i.e., personal car) fleet with 11 thousand vehicles. The evaluation results show that compared to the state-of-the-art solutions, we improved sensing coverage (i.e., the number of road segments covered by sensing vehicles) by 10% on average.
Ask about this paper
Ask your agent about it.
Lune has read the top-tier papers around this one, so every answer names the papers it rests on.
Cited by top-tier papers3
- CellSense: Human Mobility Recovery via Cellular Network Data EnhancementZhihan Fang, Yu Yang, Guang Yang, Yikuan Xia et al.UbiComp 2021 · 10 citations
- Understanding Driver-Passenger Interactions in Vehicular CrowdsensingDhruv Agarwal, Srishti Agarwal, Vidur Singh, Rohita Kochupillai et al.CSCW 2021 · 5 citations
- Mover: Generalizability Verification of Human Mobility Models via Heterogeneous Use CasesWenjun Lyu, Guang Wang, Yu Yang, Desheng ZhangUbiComp 2022 · 4 citations
Related papers
- Towards Fine-Grained Spatio-Temporal Coverage for Vehicular Urban Sensing SystemsGuiyun Fan, Yiran Zhao, Zilang Guo, Haiming Jin et al.INFOCOM 2021 · 16 citations
- Multi-Agent Reinforcement Learning for Urban Crowd Sensing with For-Hire VehiclesRong Ding, Zhaoxing Yang, Yifei Wei, Haiming Jin et al.INFOCOM 2021 · 39 citations
- Heuristic Algorithms for Co-scheduling of Edge Analytics and Routes for UAV Fleet MissionsAakash Khochare, Yogesh Simmhan, Francesco Betti Sorbelli, Sajal K. DasINFOCOM 2021 · 34 citations
- Multi-Objective Order Dispatch for Urban Crowd Sensing with For-Hire VehiclesJiahui Sun, Haiming Jin, Rong Ding, Guiyun Fan et al.INFOCOM 2023 · 6 citations
- Urban Map Inference by Pervasive Vehicular Sensing Systems with Complementary MobilityZhihan Fang, Guang Wang, Xiaoyang Xie, Fan Zhang et al.UbiComp 2021 · 14 citations
