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August & September
2019, 12(4&5): 1515-1526.
doi: 10.3934/dcdss.2019104
Double layer programming model to the scheduling of remote sensing data processing tasks
| 1. | School of Mathematics and Big Data, Foshan University, Foshan 528000, China |
| 2. | College of Systems Engineering, National University of Defense Technology, Changsha 410073, China |
| 3. | Business School of Hunan University, Changsha 410082, China |
| 4. | School of Software Engineering, Shenzhen Institute of Information Technology, Shenzhen 518172, China |
Remotely sensed data are widely used in disaster and environment monitoring. To complete the tasks associated with processing these data, it is a practical and pressing problem to match the resources for these data with data processing centers in real or near-real time and complete as many tasks on time as possible. However, scheduling remotely sensed data processing tasks has two phases, namely, task assignment and task scheduling. This paper presents a model using bilevel optimization, which considers task assignment and task scheduling as a single problem. Using this architecture, a mathematical model for both levels of the problem is presented. To solve the mathematical model, this paper presents a cooperative coevolution algorithm that combines the advantages of a very fast simulated annealing algorithm with a learnable ant colony optimization algorithm. Finally, the effectiveness and feasibility of the proposed approach compared with the conventional method is demonstrated through empirical results.
Mathematics Subject Classification:
90B35.
Citation:
Min-Fan He, Li-Ning Xing, Wen Li, Shang Xiang, Xu Tan. Double layer programming model to the scheduling of remote sensing data processing tasks. Discrete & Continuous Dynamical Systems - S,
2019, 12
(4&5)
: 1515-1526.
doi: 10.3934/dcdss.2019104
![]()
References:
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G. Aloisio, M.. Cafaro, R. Williams and P. Messina, A Distributed Web-Based Metacomputing Environment, in International Conference and Exhibition on High-Performance Computing and Networking, HPCN-Europe, 1225 (1997), 480-486. Google Scholar |
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G. Aloisio, M. Cafaro, S. Fiore and G. Quarta, A Grid-Based Architecture for Earth Observation Data Access, in ACM Symposium on Applied Computing, Santa Fe, New Mexico, USA, 2005. Google Scholar |
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G. Bai, L. Xing and Y. Chen, Scheduling multi-platforms collaborative disasters monitoring based on coevolution algorithm, Research Journal of Chemistry and Environment, 16 (2012), 43-50. Google Scholar |
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G. Bai, L. Xing and Y. Chen, The knowledge-based genetic algorithm to the disasters monitoring task allocation problem, Research Journal of Chemistry & Environment, 16 (2012), 27-34. Google Scholar |
| [6] |
P. Caccetta, S. Collings, K. Hingee, D. McFarlane and X. Wu, Fine-Scale Monitoring of Complex Environments Using Remotely Sensed Aerial, Satellite, and Other Spatial Data, 2011 International Symposium on Image and Data Fusion, Tengchong, Yunnan, (2011), 1-5. Google Scholar |
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Y. Cao, S. Wang, L. Kang and Y. Gao, A TQCS-based service selection and scheduling strategy in cloud manufacturing, The International Journal of Advanced Manufacturing Technology, 82 (2016), 235-251. Google Scholar |
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Z. Chen, Y. Xue, J. Dong, J. Liu and Y. Li, The task scheduling for Remote Sensing Quantitative Retrieval based on hierarchical grid computing platform, 2012 IEEE International Geoscience and Remote Sensing Symposium, Munich, (2012), 487-490. Google Scholar |
| [9] |
P. Chinnasamy and M. G. Sunde, Improving spatiotemporal groundwater estimates after natural disasters using remotely sensed data--a case study of the Indian Ocean Tsunami, Earth Science Informatics, 9 (2016), 101-111. Google Scholar |
| [10] |
S. D. Dao, K. Abhary and R. Marian, An integrated production scheduling model for multi-product orders in VCIM systems, International Journal of System Assurance Engineering and Management, 8 (2017), 12-27. Google Scholar |
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J. Dong, Y. Xue, Z. Chen, H. Xu and Y. Li, Analysis of remote sensing quantitative inversion in cloud computing, 2011 IEEE International Geoscience and Remote Sensing Symposium, Vancouver, BC, (2011), 4348-4351. Google Scholar |
| [12] |
J. Dong, Y. Xue, Z. Chen, H. Xu, Y. Li and C. Wu, A study of grid workflow dynamic customization for remote sensing quantitative retrieval, 2012 IEEE International Geoscience and Remote Sensing Symposium, Munich, (2012), 5382-5385. Google Scholar |
| [13] |
Y. Guan, W. Xiao, R. Cheung and C. Li,
A multiprocessor task scheduling model for berth allocation: Heuristic and worst-case analysis, Operations Research Letters, 30 (2002), 343-350.
doi: 10.1016/S0167-6377(02)00147-5. |
| [14] |
R. He and L. Xing, A learnable ant colony optimization to the mission planning of multiple satellites, Research Journal of Chemistry and Environment, 16 (2012), 18-26. Google Scholar |
| [15] |
T. Jena and J. R. Mohanty, GA-based customer-conscious resource allocation and task scheduling in multi-cloud computing, Arabian Journal for Science and Engineering, (2017), 1-16. Google Scholar |
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A. Kamalinia and A. Ghaffari, Hybrid task scheduling method for cloud computing by genetic and DE algorithms, Wireless Personal Communications, to be published. Google Scholar |
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S. S. Karamchand, Operator Scheduling in a Distributed Stream Management System for Remotely Sensed Imagery, Ph.D thesis, University of California in Davis, USA, 2006. Google Scholar |
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I. Kucukkoc and D. Z. Zhang, Integrating ant colony and genetic algorithms in the balancing and scheduling of complex assembly lines, The International Journal of Advanced Manufacturing Technology, 82 (2016), 265-285. Google Scholar |
| [19] |
W. Li, Y.-W. Chen, J.-F. Li and P. Gao, Remotely sensed data processing task scheduling based on limited concentration model, PIC2010, Shanghai, China, (2001), 15-18. Google Scholar |
| [20] |
J. F. Li and L. Xing, Integrative Forest Fire Monitoring System Framework Design Aim to Early Warning Tasks, Disaster Advances, 5 (2012), 726-729. Google Scholar |
| [21] |
H. Liu, Y. Fan, X. Deng and S. Ji, Parallel Processing Architecture of Remotely Sensed Image Processing System Based on Cluster, 2009 2nd International Congress on Image and Signal Processing, Tianjin, (2009), 1-4. Google Scholar |
| [22] |
Y. Ma, L. Wang, A. Y. Zomaya, D. Chen and R. Ranjan, Task-Tree Based Large-Scale Mosaicking for Massive Remote Sensed Imageries with Dynamic DAG Scheduling, IEEE Transactions on Parallel and Distributed Systems, 25 (2014), 2126-2137. Google Scholar |
| [23] |
P. Myszkowski, M. E. Skowro$\acute{\rm{v}}$ski, L. P. Olech and K. Oślizłiptono, Hybrid ant colony optimization in solving multi-skill resource-constrained project scheduling problem, Soft Computing, 19 (2015), 3599-3619. Google Scholar |
| [24] |
S. Nguyen, Y. Mei and M. Zhang, Genetic programming for production scheduling: A survey with a unified framework, Complex & Intelligent Systems, 3 (2017), 41-66. Google Scholar |
| [25] |
S. Nguyen, A learning and optimizing system for order acceptance and scheduling, The International Journal of Advanced Manufacturing Technology, 86 (2016), 2021-2036. Google Scholar |
| [26] |
S. K. Panda, I. Gupta and P. K. Jana, A multiprocessor task scheduling model for berth allocation: heuristic and worst-case analysis, Information Systems Frontiers, to be published. Google Scholar |
| [27] |
T. J. Pultz and R. A. Scofield, Applications of remotely sensed data in flood prediction and monitoring: Report of the CEOS Disaster Management Support Group flood team, IEEE International Geoscience and Remote Sensing Symposium, 2 (2002), 768-770. Google Scholar |
| [28] |
M. A. Salido, J. Escamilla, A. Giret and F. Barber, A genetic algorithm for energy-efficiency in job-shop scheduling, The International Journal of Advanced Manufacturing Technology, 85 (2016), 1303-1314. Google Scholar |
| [29] |
Y Shen, N Zhao, M Xia and X Du, A deep Q-learning network for ship stowage planning probleM, Polish Maritime Research, 24 (2017), 102-109. Google Scholar |
| [30] |
S. Tehraniana, Y.-S. Zhao, T. Harveya, A. Swaroopa and M. Keith, A robust framework for real-time distributed processing of satellite data, Journal of Parallel Distributed Computing, 66 (2006), 403-418. Google Scholar |
| [31] |
J. T. Tsai, J. C. Fang and J. H. Chou, Optimized task scheduling and resource allocation on cloud computing environment using improved differential evolution algorithm, Computers & Operations Research, 40 (2013), 3045-3055. Google Scholar |
| [32] |
Z. Wang -F, Predictive Control of Networked Control Systems, Ph.D thesis, Zhe Jiang University, Zhe Jiang, China, 2008. Google Scholar |
| [33] |
L. Wen, G. Peng, C. Ying-Wu and L. Ju-Fang, Approach of remotely sensed data processing task scheduling problem based on ant colony optimization, Proceedings of 2011 International Conference on Modelling, Identification and Control, Shanghai, (2011), 532-536. Google Scholar |
| [34] |
C. S. Wong, F. T. S. Chan and S. H. Chung, A joint production scheduling approach considering multiple resources and preventive maintenance tasks, International Journal of Production ResearcH, 51 (2013), 883-896. Google Scholar |
| [35] |
S. Wu, P. Zhang, F. Li, F. Gu and Y. Pan, A hybrid discrete particle swarm optimization-genetic algorithm for multi-task scheduling problem in service oriented manufacturing systems, Journal of Central South University, 23 (2016), 421-429. Google Scholar |
| [36] |
B. Xiang, G. Q. Li, D. S. Liu and J. S. Li, Research on task management and scheduling of high performance remote sensing satellite ground pre-processing system, Journal of Astronautics, 29 (2008), 1443-1446. Google Scholar |
| [37] |
Y. Xu, K. Li, J. Hu and K. Li,
A genetic algorithm for task scheduling on heterogeneous computing systems using multiple priority queues, Information Sciences, 270 (2014), 255-287.
doi: 10.1016/j.ins.2014.02.122. |
| [38] |
K. Yang and L. Xing, The Learnable Ant Colony Optimization to Satellite Ground Station System Scheduling Problems, Przeglad Elektrotechniczny, 88 (2012), 62-65. Google Scholar |
| [39] |
F. Yao and L. Xing, The Model, Algorithm and Application to Scheduling Problem of Agile Earth Observing Satellites, Disaster Advances, 5 (2012), 1112-1116. Google Scholar |
| [40] |
H. Zheng, L. Wang and X. Zheng, Teaching--learning-based optimization algorithm for multi--skill resource constrained project scheduling problem, Soft Computing, 21 (2017), 1537-1548. Google Scholar |
| [41] |
M. Zhu, G. Wang and T. Oyana, Parallel spatiotemporal autocorrelation and visualization system for large-scale remotely sensed images, The Journal of Supercomputing, 59 (2012), 83-103. Google Scholar |
| [42] |
X. Zuo, G. Zhang and W. Tan, Self-adaptive learning pso-based deadline constrained task scheduling for hybrid iaas cloud, IEEE Transactions on Automation Science and Engineering, 11 (2014), 564-573. Google Scholar |
show all references
References:
| [1] |
G. Aloisio, M. Cafaro and R. Williams, The digital Puglia project: An active digital library of remote sensing data, in Proceedings of the 7th International Conference on High Performance Computing and Networking, HPCN-Europe, 1593 (1999), 563-572. Google Scholar |
| [2] |
G. Aloisio, M.. Cafaro, R. Williams and P. Messina, A Distributed Web-Based Metacomputing Environment, in International Conference and Exhibition on High-Performance Computing and Networking, HPCN-Europe, 1225 (1997), 480-486. Google Scholar |
| [3] |
G. Aloisio, M. Cafaro, S. Fiore and G. Quarta, A Grid-Based Architecture for Earth Observation Data Access, in ACM Symposium on Applied Computing, Santa Fe, New Mexico, USA, 2005. Google Scholar |
| [4] |
G. Bai, L. Xing and Y. Chen, Scheduling multi-platforms collaborative disasters monitoring based on coevolution algorithm, Research Journal of Chemistry and Environment, 16 (2012), 43-50. Google Scholar |
| [5] |
G. Bai, L. Xing and Y. Chen, The knowledge-based genetic algorithm to the disasters monitoring task allocation problem, Research Journal of Chemistry & Environment, 16 (2012), 27-34. Google Scholar |
| [6] |
P. Caccetta, S. Collings, K. Hingee, D. McFarlane and X. Wu, Fine-Scale Monitoring of Complex Environments Using Remotely Sensed Aerial, Satellite, and Other Spatial Data, 2011 International Symposium on Image and Data Fusion, Tengchong, Yunnan, (2011), 1-5. Google Scholar |
| [7] |
Y. Cao, S. Wang, L. Kang and Y. Gao, A TQCS-based service selection and scheduling strategy in cloud manufacturing, The International Journal of Advanced Manufacturing Technology, 82 (2016), 235-251. Google Scholar |
| [8] |
Z. Chen, Y. Xue, J. Dong, J. Liu and Y. Li, The task scheduling for Remote Sensing Quantitative Retrieval based on hierarchical grid computing platform, 2012 IEEE International Geoscience and Remote Sensing Symposium, Munich, (2012), 487-490. Google Scholar |
| [9] |
P. Chinnasamy and M. G. Sunde, Improving spatiotemporal groundwater estimates after natural disasters using remotely sensed data--a case study of the Indian Ocean Tsunami, Earth Science Informatics, 9 (2016), 101-111. Google Scholar |
| [10] |
S. D. Dao, K. Abhary and R. Marian, An integrated production scheduling model for multi-product orders in VCIM systems, International Journal of System Assurance Engineering and Management, 8 (2017), 12-27. Google Scholar |
| [11] |
J. Dong, Y. Xue, Z. Chen, H. Xu and Y. Li, Analysis of remote sensing quantitative inversion in cloud computing, 2011 IEEE International Geoscience and Remote Sensing Symposium, Vancouver, BC, (2011), 4348-4351. Google Scholar |
| [12] |
J. Dong, Y. Xue, Z. Chen, H. Xu, Y. Li and C. Wu, A study of grid workflow dynamic customization for remote sensing quantitative retrieval, 2012 IEEE International Geoscience and Remote Sensing Symposium, Munich, (2012), 5382-5385. Google Scholar |
| [13] |
Y. Guan, W. Xiao, R. Cheung and C. Li,
A multiprocessor task scheduling model for berth allocation: Heuristic and worst-case analysis, Operations Research Letters, 30 (2002), 343-350.
doi: 10.1016/S0167-6377(02)00147-5. |
| [14] |
R. He and L. Xing, A learnable ant colony optimization to the mission planning of multiple satellites, Research Journal of Chemistry and Environment, 16 (2012), 18-26. Google Scholar |
| [15] |
T. Jena and J. R. Mohanty, GA-based customer-conscious resource allocation and task scheduling in multi-cloud computing, Arabian Journal for Science and Engineering, (2017), 1-16. Google Scholar |
| [16] |
A. Kamalinia and A. Ghaffari, Hybrid task scheduling method for cloud computing by genetic and DE algorithms, Wireless Personal Communications, to be published. Google Scholar |
| [17] |
S. S. Karamchand, Operator Scheduling in a Distributed Stream Management System for Remotely Sensed Imagery, Ph.D thesis, University of California in Davis, USA, 2006. Google Scholar |
| [18] |
I. Kucukkoc and D. Z. Zhang, Integrating ant colony and genetic algorithms in the balancing and scheduling of complex assembly lines, The International Journal of Advanced Manufacturing Technology, 82 (2016), 265-285. Google Scholar |
| [19] |
W. Li, Y.-W. Chen, J.-F. Li and P. Gao, Remotely sensed data processing task scheduling based on limited concentration model, PIC2010, Shanghai, China, (2001), 15-18. Google Scholar |
| [20] |
J. F. Li and L. Xing, Integrative Forest Fire Monitoring System Framework Design Aim to Early Warning Tasks, Disaster Advances, 5 (2012), 726-729. Google Scholar |
| [21] |
H. Liu, Y. Fan, X. Deng and S. Ji, Parallel Processing Architecture of Remotely Sensed Image Processing System Based on Cluster, 2009 2nd International Congress on Image and Signal Processing, Tianjin, (2009), 1-4. Google Scholar |
| [22] |
Y. Ma, L. Wang, A. Y. Zomaya, D. Chen and R. Ranjan, Task-Tree Based Large-Scale Mosaicking for Massive Remote Sensed Imageries with Dynamic DAG Scheduling, IEEE Transactions on Parallel and Distributed Systems, 25 (2014), 2126-2137. Google Scholar |
| [23] |
P. Myszkowski, M. E. Skowro$\acute{\rm{v}}$ski, L. P. Olech and K. Oślizłiptono, Hybrid ant colony optimization in solving multi-skill resource-constrained project scheduling problem, Soft Computing, 19 (2015), 3599-3619. Google Scholar |
| [24] |
S. Nguyen, Y. Mei and M. Zhang, Genetic programming for production scheduling: A survey with a unified framework, Complex & Intelligent Systems, 3 (2017), 41-66. Google Scholar |
| [25] |
S. Nguyen, A learning and optimizing system for order acceptance and scheduling, The International Journal of Advanced Manufacturing Technology, 86 (2016), 2021-2036. Google Scholar |
| [26] |
S. K. Panda, I. Gupta and P. K. Jana, A multiprocessor task scheduling model for berth allocation: heuristic and worst-case analysis, Information Systems Frontiers, to be published. Google Scholar |
| [27] |
T. J. Pultz and R. A. Scofield, Applications of remotely sensed data in flood prediction and monitoring: Report of the CEOS Disaster Management Support Group flood team, IEEE International Geoscience and Remote Sensing Symposium, 2 (2002), 768-770. Google Scholar |
| [28] |
M. A. Salido, J. Escamilla, A. Giret and F. Barber, A genetic algorithm for energy-efficiency in job-shop scheduling, The International Journal of Advanced Manufacturing Technology, 85 (2016), 1303-1314. Google Scholar |
| [29] |
Y Shen, N Zhao, M Xia and X Du, A deep Q-learning network for ship stowage planning probleM, Polish Maritime Research, 24 (2017), 102-109. Google Scholar |
| [30] |
S. Tehraniana, Y.-S. Zhao, T. Harveya, A. Swaroopa and M. Keith, A robust framework for real-time distributed processing of satellite data, Journal of Parallel Distributed Computing, 66 (2006), 403-418. Google Scholar |
| [31] |
J. T. Tsai, J. C. Fang and J. H. Chou, Optimized task scheduling and resource allocation on cloud computing environment using improved differential evolution algorithm, Computers & Operations Research, 40 (2013), 3045-3055. Google Scholar |
| [32] |
Z. Wang -F, Predictive Control of Networked Control Systems, Ph.D thesis, Zhe Jiang University, Zhe Jiang, China, 2008. Google Scholar |
| [33] |
L. Wen, G. Peng, C. Ying-Wu and L. Ju-Fang, Approach of remotely sensed data processing task scheduling problem based on ant colony optimization, Proceedings of 2011 International Conference on Modelling, Identification and Control, Shanghai, (2011), 532-536. Google Scholar |
| [34] |
C. S. Wong, F. T. S. Chan and S. H. Chung, A joint production scheduling approach considering multiple resources and preventive maintenance tasks, International Journal of Production ResearcH, 51 (2013), 883-896. Google Scholar |
| [35] |
S. Wu, P. Zhang, F. Li, F. Gu and Y. Pan, A hybrid discrete particle swarm optimization-genetic algorithm for multi-task scheduling problem in service oriented manufacturing systems, Journal of Central South University, 23 (2016), 421-429. Google Scholar |
| [36] |
B. Xiang, G. Q. Li, D. S. Liu and J. S. Li, Research on task management and scheduling of high performance remote sensing satellite ground pre-processing system, Journal of Astronautics, 29 (2008), 1443-1446. Google Scholar |
| [37] |
Y. Xu, K. Li, J. Hu and K. Li,
A genetic algorithm for task scheduling on heterogeneous computing systems using multiple priority queues, Information Sciences, 270 (2014), 255-287.
doi: 10.1016/j.ins.2014.02.122. |
| [38] |
K. Yang and L. Xing, The Learnable Ant Colony Optimization to Satellite Ground Station System Scheduling Problems, Przeglad Elektrotechniczny, 88 (2012), 62-65. Google Scholar |
| [39] |
F. Yao and L. Xing, The Model, Algorithm and Application to Scheduling Problem of Agile Earth Observing Satellites, Disaster Advances, 5 (2012), 1112-1116. Google Scholar |
| [40] |
H. Zheng, L. Wang and X. Zheng, Teaching--learning-based optimization algorithm for multi--skill resource constrained project scheduling problem, Soft Computing, 21 (2017), 1537-1548. Google Scholar |
| [41] |
M. Zhu, G. Wang and T. Oyana, Parallel spatiotemporal autocorrelation and visualization system for large-scale remotely sensed images, The Journal of Supercomputing, 59 (2012), 83-103. Google Scholar |
| [42] |
X. Zuo, G. Zhang and W. Tan, Self-adaptive learning pso-based deadline constrained task scheduling for hybrid iaas cloud, IEEE Transactions on Automation Science and Engineering, 11 (2014), 564-573. Google Scholar |
Figure 2.
Cooperative coevolution algorithm
Figure 3.
Maximum computation time comparison
Figure 4.
Average resource node load comparison
Figure 5.
Late completion comparison
Figure 6.
Processing time comparison
Table 1.
Distances between stations and processing
| station1 | station2 | ||||
| PC1 | PC2 | PC3 | PC1 | PC2 | PC3 |
| 3420 | 3568 | 2954 | 2486 | 1471 | 1770 |
| station1 | station2 | ||||
| PC1 | PC2 | PC3 | PC1 | PC2 | PC3 |
| 3420 | 3568 | 2954 | 2486 | 1471 | 1770 |
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