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Country Report NORWAY

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Title: Country Report NORWAY


1
Country Report NORWAY Recommendations to the
IAEA on NPP IC needs
  • IAEA TWG-NPPCI meeting, Vienna, May 23-25 2005
  • Dr. Davide Roverso
  • OECD Halden Reactor Project
  • Institute for energy technology (IFE)

2
Nuclear installations in Norway
  • The Institute for energy technology, ,
    operates two research reactors, the only nuclear
    installations in Norway
  • Halden Boiling Water Reactor (HBWR)
  • 20 MW, used for research on fuel and materials
  • High burn-up, water chemistry, stress corrosion
    cracking, ...
  • JEEP II Reactor Kjeller
  • 2 MW, used for basic physics research,
  • Neutron source for Neutron Activation Analysis
    (NAA)
  • Nanomaterials, silisium doping, ...

3
NPP IC Activities
  • Most NPP IC activities at IFE are conducted as
    part of the OECD Halden Reactor Project (HRP)
  • International co-operative effort affiliated to
    OECD NEA in Paris
  • Aim Improve safety at operating NPPs
  • Project established in 1958 (going for 50!)
  • Jointly funded by its Members
  • 18 countries
  • gt 100 nuclear organisations world wide
  • Hosted and run by IFE, Norway
  • Participant types
  • Utilities, Vendors, Licensing Authorities and RD
    centres
  • 3 year program periods
  • Current one from 2003 to end of 2005
  • Next one from 2006 to end of 2008
  • IFE performs also several bilateral activities
    related to IC

4
HRP Members
  • Norway - Institutt for energiteknikk, Norway,
  • Belgium - Belgian Nuclear Research Centre SCK?CEN
  • Denmark - Risø National Laboratory
  • Finland - Finnish Ministry of Trade and Industry
  • France - Electricité de France
  • Germany - Gesellschaft für Anlagen- und
    Reaktorsicherheit mbH (GRS)
  • Japan - Japan Atomic Energy Research Institute
  • Korea - Korean Atomic Energy Research Institute
  • Spain - Spanish Centro de Investigaciones
    Energéticas, Medioambientales y Tecnológicas
  • Sweden - Swedish Nuclear Power Inspectorate,
  • Switzerland - Swiss Federal Nuclear Safety
    Inspectorate
  • UK - BNFL
  • USA - United States Nuclear Regulatory
    Commission
  • and as associated parties
  • Bulgaria - Bulgarian Nuclear Regulatory Agency
  • Czech Rep. - Czech Nuclear Research Institute
  • France - French Institut de Radioprotection et
    de Sûreté Nucléaire (IRSN)
  • Hungary - Hungarian Academy of Sciences, KFKI
    Atomic Energy Research Institute
  • Russia - Russian Research Centre Kurchatov
    Institute, TVEL Co.
  • Slovakia - Slovakian VUJE - Nuclear Power Plant
    Research Institute
  • USA - Westinghouse Electric Power Company
    (WEC-LLC)
  • USA - Electric Power Research Institute (EPRI)
  • USA - Global Nuclear Fuel - Americas

5
HRP Activity Sectors
  • Nuclear Safety and Reliability
  • Operation of Halden BWR
  • Fuel and Materials technology research
  • 120 employees
  • Safety MTO Man Technology and Organization
  • Human performance and reliability
  • Control room technology
  • Virtual Reality (VR) technology
  • Operator Support Systems
  • Software Systems Dependability
  • 75 employees

6
HRP Laboratories
  • Halden has 2 major laboratories in operation
  • HAMMLAB for human factors studies
  • HVRC for virtual reality applications
  • The MTO laboratories are also used for
    demonstration of new technology
  • Advanced operational support for nuclear power
    plants
  • New HMIs and Integration aspects
  • Augmented reality for training, maintenance and
    decommissioning planning
  • A new MTO-lab building was opened in February 2004

7
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8
MTO-Lab Overview
  • IFE MTO-lab contains
  • Integration lab
  • Hammlab
  • Experimenters gallery
  • VR Centre

9
HAMMLAB
10
Virtual Reality Centre
11
Integration Laboratory
12
Experimenters Gallery
13
What is the MTO-lab used for?
Study Human Technology Interaction
14
HAMMLAB - Simulated nuclear plants
  • FRESH
  • Fessenheim REsearch Simulator for Hammlab
  • CP0 Fessenheim-1
  • 3-loop 900 MW
  • Westinghouse design
  • Plant located in eastern France
  • HAMBO
  • HAMmlab BOiling water reactor simulator
  • Financed partly by Swedish and Finnish BWR
    utilities, partly by IFE/Halden
  • Reference plant - Forsmark 3
  • Latest generation ABB Atom plant
  • 1200 MW BWR

15
MTO-lab Experimental Set-up
Integrated Operation Centre
Evaluate Experiment
Conduct Experiment
Simulators
Functions
Human Performance Measurements
  • HIS
  • Alarm Systems
  • Large screens
  • WICS

FRESH
HAMBO
Analysis tools
Petroleum
HAMMLAB and VR-centre
Test Subjects
Experimenters
Analysts
16
Conducting Experiments
  • Example Autumn 2004
  • Extended teamwork

17
Development and Testing of new TechnologyVirtual
and Augmented Reality technology
  • Wearable computer, wireless communication
  • See-through computerglasses mic., speaker
  • Video, positioning- and headtrackingsystem
  • Combining virtual and augmented reality

18
Innovative HSI Designs Design and Evaluation of
CR and HSIs
  • Objective
  • Investigate new Human System Interface concepts,
    and
  • study whether they better support control room
    operators in their tasks
  • How?
  • Design and develop prototypes
  • Evaluate the prototypes through use of usability
    tests and case studies
  • Experiment with the prototypes in HAMMLAB

19
Dynamic Large Screen DisplaysDesign and
Evaluation of CR and HSIs
  • Functions
  • safety systems actuations
  • overall process overview
  • status of all important safety systems
  • indications of all alarming systems
  • Functions
  • key process parameters
  • status of key components
  • mini trends of important parameters
  • mode dependent

20
Hammlab Integration EnvironmentComputerised
Operation and Maintenace Support
Integration Platform
Data Management
21
Aladdin Early Fault Detection Diagnosis
  • Based on empirical, data-driven models (neural
    networks)
  • Recognizes process signatures to detect and
    diagnose events and malfunctions
  • Examples include latent faults, control failures,
    leakages, etc.

22
PEANO Sensor Condition Monitoring
  • Based on empirical, data-driven models (neural
    networks)
  • Signal Validation and Reconstruction
  • On-line, real-time analysis
  • Calibration Monitoring
  • Off-line, batch analysis
  • Fault Detection
  • Virtual Sensing

23
PEANO Components
24
COPMA - Computerised procedures and document
management
  • Assist Operators in Executing Procedures
  • Procedure retrieval and visualization
  • Contextual information retrieval and display of
    live process data in the procedures
  • Procedure placekeeping
  • Automated execution of procedure actions
  • Support for multi-user (crew) execution
  • Separation between Declaration Utilization of
    Procedures
  • Common repository of procedures and procedure
    models
  • Supports different kinds of procedure
    presentation, depending on the kind of procedure
    and on the role of the operator
  • Configurable procedure execution support

25
- Plant Optimisation
  • Based on first-principles models
  • Aims at thermal performance optimisation
  • Can be used for fault detection and data
    reconciliation

26
Hammlab Integration EnvironmentComputerised
Operation and Maintenace Support
Integration Platform
Data Management
27
Hammlab Integration EnvironmentComputerised
Operation and Maintenace Support
HAMBO Simulator
Diagnostic Agent
MMI PICASSO
Aladdin Diagnostic Model
AladdinRTL
Integration Platform
Comp. Procedures COPMA
Signal Validation Agent
Alarm System COAST
PEANO Server
PEANO Model
28
Hammlab Integration EnvironmentComputerised
Operation and Maintenace Support
HAMBO Simulator
Diagnostic Agent
MMI PICASSO
Aladdin Diagnostic Model
AladdinRTL
Integration Platform
Comp. Procedures COPMA
Signal Validation Agent
Alarm System COAST
PEANO Server
PEANO Model
29
Hammlab Integration EnvironmentComputerised
Operation and Maintenace Support
HAMBO Simulator
Diagnostic Agent
MMI PICASSO
Aladdin Diagnostic Model
AladdinRTL
Integration Platform
Comp. Procedures COPMA
Signal Validation Agent
Alarm System COAST
PEANO Server
PEANO Model
30
Levels Of Integration
  • Functional Level
  • Operational Level
  • Data Level

31
Data Level Integration
  • Prerequisite for the realization of actual
    on-line monitoring
  • Ability to acquire data from the plant and
    communicate results to other support systems
  • Technical solutions available

32
Operational Level Integration
  • Integration of the operation of an OLM system
    with the operation of other support systems in
    the control room
  • HSI integration to better support, from a human
    factors perspective, the operator while
    performing his surveillance and control tasks

33
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34
Operational Level Integration
  • PEANO signal validation outputs presented in the
    standard HSI trend displays

35
Functional Level Integration
  • The functionality offered by OLM systems should
    be integrated with the functionality offered by
    other support systems with the aim of exploiting
    synergistic effects and achieving new functions
  • Taking the example of OLM systems for signal
    validation, their functionality becomes most
    valuable when integrated in the overall process
    control system
  • The control system itself and additional operator
    support systems, such as the alarm system, can be
    improved by applying the sensor validation system
    as a front-end to resolve their vulnerability to
    corrupted or missing input data

36
An Example of Functional Level Integration
  • Signal Validation (PEANO) -Alarm System (COAST)
    Integration
  • Generate sensor fault alarms
  • Suppress alarms raised by faulty sensor readings
  • Avoid suppression of alarms where the suppression
    logic is based on faulty readings
  • Avoid oscillating alarms generated by noisy
    sensors

37
PEANO-COAST Synergetic Integration
  • Avoid suppression of alarms where the suppression
    logic is based on faulty readings

PCP 1 stopped
Primary pressure lt 25 bar
PCP 1 oil pump stopped
AND
Suppress alarm
Guiding Principles of Integration
38
Computer Vision Based Condition Monitoring
39
Condition Monitoring of Electrical Cables in NPPs
  • Development of effective, in situ condition
    monitoring techniques for installed wire systems
    that can be used to determine the current
    condition of the wire system.
  • Prediction of the remaining useful life,
    including the establishment of acceptance
    criteria and correlation of mechanical wire
    system properties to electrical properties to
    better understand the significance of reaching
    the limits of mechanical properties for aged
    insulating materials.

40
Time Domain Reflectometry (TDR)Frequency Domain
Reflectometry (FDR)
  • Insert a low power signal (either a fast-rise
    time pulse or voltage step or a series of sine
    waves stepped in frequency) on the cable.
  • The electromagnetic wave propagates down the
    cable and is reflected back to the source.
  • Differences between the source and the reflected
    signal are a signature for the cable condition
    and degradation state.

41
Software Systems Dependability
Risk analysis and assessment
Software Engineering Laboratory
(SElab) Safety-oriented software engineering
research/training/consultancy Management systems,
resources, data collection/measurement,
etc. Methods and tools (HALDEN Prover, CORAS,
TACO, Petri nets, ...)
42
Engineering of Dependable Software Systems
  • Research activities
  • Methods and Tools for Requirements Engineering
  • Software Lifecycle Management
  • Risk Analysis and Assessment Addressing
    Dependability Factors throughout the Lifecycle
  • Methods, Techniques and Tools Supporting the
    Lifecycle Activities
  • Research deliverables
  • Provide guidelines on the use of existing
    methods, languages and tools for specification
    and analysis of system requirements, with an
    emphasis on software systems dependability.
  • Provide guidance for how software lifecycle
    maintenance activities can be facilitated by the
    use of adequate traceability techniques.
  • Explore and further develop the application of
    model-based risk analysis and assessment
    addressing dependability factors through all
    software lifecycle phases.
  • Evaluate methods, techniques and tools for
    dependable construction of digital IC systems.

43
Software Systems Architecture
  • Research activities
  • Risk Assessment of Remote Control Applications
  • Software Fault Tolerance
  • Risk Assessment of Pre-Developed Software
  • Assessment Framework for Integrated Tool
    Environments
  • Research deliverables
  • Establishment of a risk assessment methodology
    for remote control applications, focusing on
    security, survivability and safety
  • Development of a general methodology for
    demonstration of properties related to error
    containment and the independence of software
    functions
  • Guidance and recommendations on risk assessment
    of pre-developed software, the utilization of
    operational data, etc.
  • Provide guidance on the combination of
    heterogeneous information in the qualification of
    integrated tool environments.

44
Control Room Modernisation
  • Nuclear Power Plants
  • Barsebäck, Ringhals, Oskarshamn, Forsmark,
    Loviisa, Olkiluoto
  • Petroleum
  • Statoil, Norsk Hydro, ConocoPhillips, BP, Shell,
    BHI,Total, Gassco, Aker, Siemens, ABB
  • Metallurgical/Steel/Plastic/Nickel
  • SSAB, LKAB, Borealis, Falconbridge
  • Power distribution
  • Statnett, Svenska Kraftnät, Oslo Energi
  • Aviation
  • Fornebu, Gardermoen (ATC), Røyken (ATC, eastern
    Norway), Gardermoen (baggage control),
    Eurocontrol (ATC research)
  • Railways
  • NSB, Jernbaneverket, Svenska Banverket
  • Authorities
  • NRC, SKI, IRSN, NPD, Jernbanetilsynet

45
Activities in NPP CR Modernisation Projects
  • HF assistance throughout design process
    (NUREG-0711 ISO 11064)
  • Situation analysis (collecting operational
    experience)
  • Control room philosophies
  • Alarm system philosophies design guidelines
  • HSI philosophies design guidelines (incl. large
    screens)
  • HF analyses (function, task job analyses)
  • Control room layout (CREATE)
  • V V activities (planning implementation)

46
Looking Ahead
  • Strategic Goals
  • Better understand and thereby, better predict
    human performance under various complex operating
    and emergency conditions
  • Anticipate emerging issues relevant to
    introduction of new designs and technologies in
    nuclear power plant operation and maintenance
  • Devise methods and technologies to improve safety
    and safety assessment of digital systems.
  • Trends
  • Gen II reactors
  • Plant life extensions programs 60yr
  • Control room and digital IC modernisation
    programs on-going
  • Gen III reactors
  • Being built
  • Computerised seated workstations digital IC
    introduced
  • Gen III reactors
  • Being designed and will be built from now on
  • Advanced control rooms digital IC is standard
  • Gen IV reactors
  • Co-operation Initiative taken built 30yr from
    now?
  • Advanced operation issues more automation new
    technology

47
Overall Objectives
  • Human Performance
  • Collect data to support the understanding and
    modelling of human performance
  • contributing to a reduction in the uncertainty in
    HRA and, consequently, PRA.
  • Improve our understanding of the impact of
    systems design and organisational factors on
    human performance

48
Overall Objectives
  • Design and Evaluation of Human System
    Interfaces and Control Centres
  • Provide, evaluate and recommend advanced Human
    System Interface solutions
  • Provide practical and efficient methods
    supporting the control centre design process

49
Overall Objectives
  • Visualisation Technologies supporting Design,
    Planning and Operation, and Training
  • Provide visualisation technologies to support
    utility personnel making and implementing
    effective decisions using the most complete set
    of information available.

50
Overall Objectives
  • Integrated Surveillance and Control Systems
    in Operation and Maintenance
  • Provide guidance, methods and tools to improve
    integrated condition monitoring and diagnosis
    capabilities to support utility personnel in
    their decision-making.

51
Overall Objectives
  • Software Systems Dependability
  • Contribute to successful introduction of digital
    IC systems into NPPs.

52
Recommendations to the IAEA
  • Continued effort in the area of Equipment
    Condition Monitoring
  • Technologies (Smart Sensors, FieldBus, OPC)
  • Methods (Analytical Empirical Methods, Computer
    Vision)
  • Application areas (Condition Monitoring of
    Electrical Cables)
  • Integrated Health Monitoring Systems
  • Integration of Condition Monitoring Systems,
    Operator Support Systems, Alarm Systems, HSIs,
    ...
  • V V of new designs and modernisation projects
  • Human Performance Reliability, Software
    Dependability

53
Announcements
  • International Summer School on Computer Safety,
    Reliability and Security, OECD NEA Halden Reactor
    Project
  • 22-27 September 2005 Fredrikstad, Norway.
  • http//www.ife.no/web007-09/events/summerschool/vi
    ew
  • SAFECOMP 2005, 24th Int. Conference on Computer
    Safety, Reliability and Security
  • 28-30 September 2005 Fredrikstad, Norway.
  • http//www.ife.no/safecomp2005
  • Enlarged Halden Programme Group Meeting
  • 16-21 October 2005 Lillehammer, Norway.
  • http//ehpg.hrp.no
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