Process/equipment co-simulation for design and analysis of advanced energy systems

被引:31
作者
Zitney, Stephen E. [1 ]
机构
[1] US DOE, Collaboratory Proc & Dynam Syst Res, Natl Energy Technol Lab, Morgantown, WV 26507 USA
关键词
Process simulation; Computational fluid dynamics; Co-simulation; Virtual engineering; Fossil energy; PROPER-ORTHOGONAL DECOMPOSITION; COMPUTATIONAL FLUID-DYNAMICS; HYBRID MULTIZONAL/CFD MODELS; REACTOR NETWORK ANALYSIS; REDUCED-ORDER MODEL; GENERAL METHODOLOGY; CFD; OPTIMIZATION; PREDICTION; FRAMEWORK;
D O I
10.1016/j.compchemeng.2010.02.011
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
The grand challenge facing the power and energy industries is the development of efficient, environmentally friendly, and affordable technologies for next-generation energy systems. To provide solutions for energy and the environment, the U.S. Department of Energy's (DOE) National Energy Technology Laboratory (NETL) and its research partners in industry and academia are relying increasingly on the use of sophisticated computer-aided process design and optimization tools. In this paper, we describe recent progress toward developing an Advanced Process Engineering Co-Simulator (APECS) for the high-fidelity design, analysis, and optimization of energy plants. The APECS software system combines steady-state process simulation with multiphysics-based equipment simulations, such as those based on computational fluid dynamics (CFD). These co-simulation capabilities enable design engineers to optimize overall process performance with respect to complex thermal and fluid flow phenomena arising in key plant equipment items, such as combustors, gasifiers, turbines, and carbon capture devices. In this paper we review several applications of the APECS co-simulation technology to advanced energy systems, including coal-fired energy plants with carbon capture. This paper also discusses ongoing co-simulation R&D activities and challenges in areas such as CFD-based reduced-order modeling, knowledge management, advanced analysis and optimization, and virtual plant co-simulation. Continued progress in co-simulation technology - through improved integration, solution, and deployment - will have profound positive impacts on the design and optimization of high-efficiency, near-zero emission fossil energy systems. Published by Elsevier Ltd.
引用
收藏
页码:1532 / 1542
页数:11
相关论文
共 50 条
[31]   A New Communication Concept for Efficient Configuration of Energy Systems Integration Co-Simulation [J].
Erdmann, Anselm ;
Cakmak, Hueseyin K. ;
Kuehnapfel, Uwe ;
Hagenmeyer, Veit .
2019 IEEE/ACM 23RD INTERNATIONAL SYMPOSIUM ON DISTRIBUTED SIMULATION AND REAL TIME APPLICATIONS (DS-RT), 2019, :235-242
[32]   Hybrid Modeling and Co-Simulation of District Heating Systems with Distributed Energy Resources [J].
Vesaoja, Eero ;
Nikula, Heikki ;
Sierla, Seppo ;
Karhela, Tommi ;
Flikkema, Paul G. ;
Yang, Chen-Wei .
2014 WORKSHOP ON MODELING AND SIMULATION OF CYBER-PHYSICAL ENERGY SYSTEMS (MSCPES), 2014,
[33]   A SystemC/Matlab co-simulation tool for networked control systems [J].
Quaglia, Davide ;
Muradore, Riccardo ;
Bragantini, Roberto ;
Fiorini, Paolo .
SIMULATION MODELLING PRACTICE AND THEORY, 2012, 23 :71-86
[34]   Co-simulation applied to power systems with high penetration of distributed energy resources [J].
de Oliveira Chagas, Igor Borges ;
Tomim, Marcelo Aroca .
ELECTRIC POWER SYSTEMS RESEARCH, 2022, 212
[35]   Analysis of design strategies for unmanned aerial vehicles using co-simulation [J].
Barros, Jose de Sousa ;
Oliveira Freitas, Thyago ;
Nigam, Vivek ;
V. Brito, Alisson .
DESIGN AUTOMATION FOR EMBEDDED SYSTEMS, 2017, 21 (3-4) :157-172
[36]   Modeling and Simulating Wind Energy Generation Systems by Means of Co-Simulation Techniques [J].
da Silva, Loan Tullio F. W. ;
Tomim, Marcelo Aroca ;
Barbosa, Pedro Gomes ;
de Almeida, Pedro Machado ;
Dias, Robson Francisco da Silva .
ENERGIES, 2023, 16 (19)
[37]   A Framework for Co-simulation of AI Tools with Power Systems Analysis Software [J].
Roche, Robin ;
Natarajan, Sudarshan ;
Bhattacharyya, Ayan ;
Suryanarayanan, Siddharth .
2012 23RD INTERNATIONAL WORKSHOP ON DATABASE AND EXPERT SYSTEMS APPLICATIONS (DEXA), 2012, :350-354
[38]   Co-Simulation Framework for Design of Time-Triggered Cyber Physical Systems [J].
Zhang, Zhenkai ;
Eyisi, Emeka ;
Koutsoukos, Xenofon ;
Porter, Joseph ;
Karsai, Gabor ;
Sztipanovits, Janos .
2013 ACM/IEEE INTERNATIONAL CONFERENCE ON CYBER-PHYSICAL SYSTEMS (ICCPS), 2013, :119-128
[39]   The Design and Implementation of Spacecraft Co-simulation Platform [J].
Yin, Hang ;
Gao, Yong Ming ;
Wang, Chao ;
Li, Xin Xing .
MANUFACTURING ENGINEERING AND AUTOMATION II, PTS 1-3, 2012, 591-593 :174-+
[40]   Application Ontology for Multi-Agent and Web-Services' Co-Simulation in Power and Energy Systems [J].
Teixeira, Brigida ;
Santos, Gabriel ;
Pinto, Tiago ;
Vale, Zita ;
Corchado, Juan M. .
IEEE ACCESS, 2020, 8 :81129-81141