Security for smart Electricity GRIDs Project type: Collaborative - - PowerPoint PPT Presentation
Security for smart Electricity GRIDs Project type: Collaborative - - PowerPoint PPT Presentation
Security for smart Electricity GRIDs Project type: Collaborative project small or medium scale focused research project Grant agreement no: 607109 Thematic Priority: FP7-SEC-2013-1 October 1 st , 2014 Start date of project: Duration: 36
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Distribution System Operators Manufacturers Knowledge institutes Universities
SEGRID
Partners
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1. Identifying threats and potential future cyber-attack pathways, for the SEGRID use cases; 2. Determining the gap between currently available security for smart grids and what is needed for the SEGRID use cases; 3. Developing the necessary new security methods and measures for privacy, communication and system security in smart grids; 4. Building up a realistic test environment (Security Integration Test Environment, SITE) to test and verify new security methods and measures; 5. Evaluating and improving current risk management methodologies in order to make them optimally suited to identify and address the key risk factors
- f smart grids of 2020;
6. Feeding the established results from the SEGRID project into European and global standardisation bodies, industry groups and smart grid suppliers.
SEGRID
Project targets
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SEGRID
Storyline IST
Current Energy Grid
SOLL
Smart Energy Grid of 2020
2020 2012 2016 Maturity Time
Current state of security is insufficient
Known threats New threats
A) Smart Metering C) Dynamic power management D) Load balancing regionally E) Automatic reconfiguration B) Load balancing centrally
Gaps in currently available security technology for the Smart Grid of 2020
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Work package structure
SEGRID
WP 1 (EDP) Use cases and security goals WP 4 (SICS) Novel Security Solutions
T4.4 Privacy by design
WP 3 (KTH) Enhancements of Vulnerability Assessment techn. WP 2 (ABB) Application & Enhancements of Risk Assessment WP 7 (TNO) Project management WP 5 (ENCS) Testing and evaluation
T4.1 System & Platform T4.2 Comm. protocols
WP 6 (TNO) Dissemination & Exploitation
T4.3 Resilient
- Comm. infra
M1 M1 M1 M1 M1 M1 M3
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SEGRID
Use cases and security goals IST
Current Energy Grid
SOLL
Smart Energy Grid of 2020
2020 2012 2016 Maturity Time A) Smart Metering C) Dynamic power management D) Load balancing regionally
Current state of security is insufficient Gaps in currently available security technology for the Smart Grid of 2020
Known threats New threats
E) Automatic reconfiguration B) Load balancing renewable energy
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SEGRID
Application & enhancement of Risk assessment IST
Current Energy Grid
SOLL
Smart Energy Grid of 2020
2020 2012 2016 Maturity Time A) Smart Metering C) Dynamic power management D) Load balancing regionally
Current state of security is insufficient Gaps in currently available security technology for the Smart Grid of 2020
Known threats New threats
E) Automatic reconfiguration B) Load balancing renewable energy
Risk Assessments
- n use cases to
- identify gaps in
current security technologies
- assess RA tools
(e.g. M/490 SGIS RA, EURAM)
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SEGRID
Develop & enhance security tools
- Enhancement of security risk assessment processes for smart grid
- Develop vulnerability discovery and diagnosis tools
- Enhancements of Vulnerability Assessment techniques
Cyber Security Modelling Language (CySeMoL)
- Developed by KTH in FP7 Viking
- Tool for assessing vulnerabilities
in system architecture (using probabilistic attack graphs)
- SEGRID will enhance the tool by
- extending functionality more towards
smart grids (e.g. use cases)
- automatic generation of model from
an existing infrastructure
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SEGRID
Develop novel security solutions (to fill some of the gaps)
- System & platform security
- Communication protocols security
- Resilient communications infrastructure
- Privacy by design
Privacy-by-design toolbox
- Goal: Support a paradigm shift towards
collecting less personally sensitive data, while supporting all functionality needed.
- SEGRID will develop a privacy-by-design
toolbox to be applied throughout the system development life cycle of future smart grid developments.
- new privacy design patterns
- homomorphic encryption techniques