Book contents
- Frontmatter
- Contents
- List of contributors
- Preface
- Part I Communication architectures and models for smart grid
- Part II Physical data communications, access, detection, and estimation techniques for smart grid
- Part III Smart grid and wide-area networks
- Part IV Sensor and actuator networks for smart grid
- Part V Security in smart grid communications and networking
- 15 Cyber-attack impact analysis of smart grid
- 16 Jamming for manipulating the power market in smart grid
- 17 Power-system state-estimation security: attacks and protection schemes
- 18 A hierarchical security architecture for smart grid
- 19 Application-driven design for a secured smart grid
- Part VI Field trials and deployments
- Index
18 - A hierarchical security architecture for smart grid
from Part V - Security in smart grid communications and networking
Published online by Cambridge University Press: 05 January 2013
- Frontmatter
- Contents
- List of contributors
- Preface
- Part I Communication architectures and models for smart grid
- Part II Physical data communications, access, detection, and estimation techniques for smart grid
- Part III Smart grid and wide-area networks
- Part IV Sensor and actuator networks for smart grid
- Part V Security in smart grid communications and networking
- 15 Cyber-attack impact analysis of smart grid
- 16 Jamming for manipulating the power market in smart grid
- 17 Power-system state-estimation security: attacks and protection schemes
- 18 A hierarchical security architecture for smart grid
- 19 Application-driven design for a secured smart grid
- Part VI Field trials and deployments
- Index
Summary
Introduction
The smart grid aims to provide reliable, efficient, secure, and quality energy generation/distribution/consumption using modern information, communications, and electronics technologies. The integration with modern IT technology moves the power grid from an outdated, proprietary technology to more common ones such as personal computers, Microsoft Windows, TCP/IP/Ethernet, etc. It can provide the power grid with the capability of supporting two-way energy and information flow, isolate and restore power outages more quickly, facilitate the integration of renewable energy resources into the grid, and empower the consumer with tools for optimizing energy consumption. However, in the meantime, it poses security challenges on power systems as the integration exposes the system to public networks.
Many power grid incidents in the past have been related to software vulnerabilities. In [1], it is reported that hackers have inserted software into the US power grid, potentially allowing the grid to be disrupted at a later date from a remote location. As reported in [2], it is believed that an inappropriate software update has led to a recent emergency shutdown of a nuclear power plant in Georgia, which lasted for 48 hours. In [3], it has been reported that a computer worm, Stuxnet, has been spread to target Siemens SCADA systems that are configured to control and monitor specific industrial processes. On 29 November 2010, Iran confirmed that its nuclear programme had indeed been damaged by Stuxnet [4, 5].
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- Information
- Smart Grid Communications and Networking , pp. 413 - 438Publisher: Cambridge University PressPrint publication year: 2012
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