ISAAC: The Idaho CPS Smart Grid Cybersecurity Testbed

Oyewumi, Ibukun A.; Jillepalli, Ananth A.; Richardson, P. R. K.; Ashrafuzzaman, Md.; Johnson, Brian K.; Chakhchoukh, Yacine; Haney, Michael; Sheldon, Frederick T.; Leon, Daniel Conte de

doi:10.1109/tpec.2019.8662189

Cited by 36 publications

(25 citation statements)

References 17 publications

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“…文献 [117] 将重点放在互连的联合仿真平台, 在广域保护安全的情况下验证异常检测的性能, 作者利用多个实验室平台模拟电力系统的不同部分, 并实施完整性攻击, 从而分析如何将丢包率最小化, 文献 [118] 使用 Purdue 参考模型 [119] 对爱达荷安全仿真平台 [86] 进行建模, 并发动 ARP 中毒攻击, 文献 [120] [131,132] 、SensorSim [133] , 这些工具已经遇到了在精确建模和模拟动态电力系统时复杂性增加的困难. 涉及电力系统模拟器扩展的工具有 TrueTime [134,135] 、Prowler [136] 、VisualSense [137] .…”

Section: 完整性仿真平台unclassified

“…随后, 法国电力公司 (EDF) 推出了他们的第一款实时仿真器 ARENE [33] 、加拿大 HYDRO-QUEBEC 公司开发了实时仿真器 HYPERSIM [34] [47,48] , 同时数模接口技术如数模转换技术、接口算法研究、光纤数字通信技术的发展也将支持更多电力电子设备接入实时仿真器, 数模混合仿真为相关的研究提供了真实可靠的解决方案. [86] , 通过主成分分析与支持向量机相结合的方法, 检测了物理和网络入侵行为. 除了入侵检测外, 还存在对电力系统中病毒、加密进行研究的工作.…”

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Power system security simulation technologies: engineering safety, network security and cyber-physical integrated security

Wang¹,

Liu²,

Bao³

et al. 2022

Sci. Sin.-Inf.

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Aiming at power system security threats such as failures and external attacks, power system security simulation technologies study system behaviors through simulation experiments or numerical calculation. As information technologies such as automatic control, network communication, and artificial intelligence are widely used, power system has developed into an cyber-physical system(CPS) which is deeply coupled by physical system and information system.The faults caused by physical damage or network attack are interrelated in the power system and can spread across domains, which result in new security threats. Power system security simulation is facing new challenges. This paper reviews security incidents with significant impact on the power system in the past, and analyzes the requirement and development of power system security simulation technologies from three dimensions, i.e., engineering security, network security, and cyber-physical integrated security. From these dimensions, the representative security simulation testbeds are classified and summarized. Moreover, the challenges and development trends of power system security simulation technologies are explored.

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Section: 完整性仿真平台unclassified

unclassified

Power system security simulation technologies: engineering safety, network security and cyber-physical integrated security

Wang¹,

Liu²,

Bao³

et al. 2022

Sci. Sin.-Inf.

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“…RTAC has been utilized in various power testbeds for cyberphysical security studies [23], [24], algorithm validation [25]- [27], and data collection, conversion and control [16], [28]. Within those applications, the RTAC is ether connected to relays working as a RTU or communicating with phasor data concentrators (PDC) to collect PMU data for real-time automated control.…”

Section: Sel Real-time Automation Controller (Rtac)mentioning

confidence: 99%

Real-time Power System Simulation with Hardware Devices through DNP3 in Cyber-Physical Testbed

Huang,

Davis,

Davis

2021

Preprint

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Modern power grids are dependent on communication systems for data collection, visualization, and control. Distributed Network Protocol 3 (DNP3) is commonly used in supervisory control and data acquisition (SCADA) systems in power systems to allow control system software and hardware to communicate. To study the dependencies between communication network security, power system data collection, and industrial hardware, it is important to enable communication capabilities with real-time power system simulation. In this paper, we present the integration of new functionality of a power systems dynamic simulation package into our cyber-physical power system testbed that supports real-time power system data transfer using DNP3, demonstrated with an industrial real-time automation controller (RTAC). The usage and configuration of DNP3 with real-world equipment in to achieve power system monitoring and control of a large-scale synthetic electric grid via this DNP3 communication is presented. Then, an exemplar of DNP3 data collection and control is achieved in software and hardware using the 2000-bus Texas synthetic grid.

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“…In the power systems domain, they are being introduced in all power system research areas. The list includes network communications [10], cybersecurity [11–16], distribution grid management [17], electric transportation [18], energy storage [19], demand response [20], and distributed energy resources [21, 22]. They are also applied to testing current and emerging WAMPAC applications [23–30].…”

Section: Related Workmentioning

confidence: 99%

PRIME: a real‐time cyber‐physical systems testbed: from wide‐area monitoring, protection, and control prototyping to operator training and beyond

Bečejac

Eppinger

Ashok

et al. 2020

IET cyber-phys. syst.

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ISAAC: The Idaho CPS Smart Grid Cybersecurity Testbed

Cited by 36 publications

References 17 publications

Power system security simulation technologies: engineering safety, network security and cyber-physical integrated security

Power system security simulation technologies: engineering safety, network security and cyber-physical integrated security

Real-time Power System Simulation with Hardware Devices through DNP3 in Cyber-Physical Testbed

PRIME: a real‐time cyber‐physical systems testbed: from wide‐area monitoring, protection, and control prototyping to operator training and beyond

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