Svetlana Rybina, Lauri Holopainen

Slides:



Advertisements
Similar presentations
© Actility – Confidential – Under NDA 1 Advanced flexibility management: concepts and opportunities Making Things Smart.
Advertisements

Deliverable I.4 Balancing (15th IG meeting, Paris, April 7th 2014)
RES-E Impact on Transmission Grid and Power System Reserves
EStorage First Annual Workshop Arnhem, NL 30, Oct Olivier Teller.
Cihangir Gençoğlu , Joint Transmission System Operator – Utility Regulator Renewable Energy Workshop, Istanbul Integrating Intermittent Renewable.
EE535: Renewable Energy: Systems, Technology & Economics Energy Storage.
Aidan Tuohy Technical Leader/Project Manager, EPRI ERCOT Emerging Technology Working Group (ETWG) 09/24/2014 Transmission System Considerations for Integrating.
© ABB SG_Presentation_rev9b.ppt | 1 © ABB SG_Presentation_rev9b.ppt | 1 Smart Grid – The evolution of the future grid Karl Elfstadius,
Hybrid Island Initiative for Integrating Renewable Energy in Pacific Islands Tadayuki OGAWA Japan International Cooperation Agency (JICA)
The impacts of hourly variations of large scale wind power production in the Nordic countries on the system regulation needs Hannele Holttinen.
Novel Strategies to Reduce Variation of Wind and Solar Generation at its Source Stephen Rose Eric Hittinger.
Copyright BlueLime Consulting © July 30, 2010Anders Plejdrup Houmøller 1 How to integrate and utilize wind energy in a liberalized electricity market Anders.
Frankfurt (Germany), 6-9 June 2011 Power System Impacts from Large Scale Deployment of EV -The MERGE project – João A. Peças Lopes
Sixth Northwest Conservation & Electric Power Plan Adding Incremental Flexibility to the Pacific Northwest Power System? Maury Galbraith Northwest Power.
(C) NordPool1 The Nordic Power Market Zonal Pricing Jan Vidar Thoresen Managing Director Nord Pool Consulting AS.
August Intelligently Connecting Plug-In Vehicles & the Grid.
Electric vehicle integration into transmission system
Technology for demand side management and demand side bidding for grid companies. Stig Fretheim 15. Mai 2003.
DISTRIBUTED GENERATION, RENEWABLE ENERGY AND SUSTAINABILITY. IMPACT ON POWER QUALITY AND NETWORK PLANNING “Inauguration of the 6th Framework Programme”
Renewables and System Services Ann Scully.
EG2200 Power Generation Operation and Planning - L5 Lennart Söder Professor in Electric Power Systems.
THE ALEVO ECOSYSTEM ENERGY STORAGE SUPERCOMPUTING CYBER SECURITY ANALYTICS ECOSYSTEM ANALYTICS ENERGY STORAGE SUPERCOMPUTING CYBER SECURITY FREQUENCY REGULATION.
Market mechanisms in Norway / Nordel Reserves Adequacy and Demand Response. Security of supply. Grid Operation Division, Bjørn Walther.
Recent TSO report on changes because of larger amounts of renewable enery IEA Task 25, January 14, 2016 Edf – Clamart – Paris – France Lennart Söder Professor.
1 10. BUSINESS STRATEGIES IN ANCILLARY SERVICE MARKETS Asko Vuorinen.
ERRA Workshop on Regulatory Monitoring of the Electricity Sector Almaty, Kazakhstan, January 31 – February 2, Improvement of market relations in.
7. FREQUENCY CONTROL AND REGULATING RESERVES
Energy: Challenges with Becoming More Sustainable © 2011San Diego Gas & Electric Company. All copyright and trademark rights reserved. Robb Anderson Director.
Energy Economics Group, TU Wien
ELEC-E8422 Introduction to Electrical Energy Systems
Renewable Energy Challenges: System Stability
Agenda TSOG 8th November
Operation of power systems with high shares of wind power
GC0087 Frequency Response Provisions
Eric Peirano, Ph.D., TECHNOFI, COO
Asia-Pacific Energy Regulatory Forum
Market Architectures Integrating Ancillary Services from Distributed Energy Resources Olivier Devolder Head of Energy Group N-SIDE.
EE535: Renewable Energy: Systems, Technology & Economics
Olivier BORNE - Marc PETIT - Yannick PEREZ
Challenges of integrating Variable Renewable Energy Sources (V-RES)
NWA Suitability: Resiliency & Microgrids
System Control based Renewable Energy Resources in Smart Grid Consumer
Flexible Forward Contracts for Renewable Energy Generators
Overview on Renewable energy in Bulgaria
Energy Year 2017 Electricity
Results of Smart Charging Research
EU-IPA12/CS02 Development of the Renewable Energy Sector
Integrated Resource Planning and Load Flexibility Analysis
Study Committee C2 System operation and control Paper C
Jose GONZALEZ PASTOR Economic & Adequacy Analyst - Elia
Introduction Anders Plejdrup Houmøller CEO, Houmoller Consulting ApS
Energy Year 2017 Electricity
2500 R Midtown Sacramento Municipal Utility District
Nordic Winter Power Balance
Sandip Sharma ERCOT Manager, Operations Planning
Survey on Ancillary services procurement, Balancing market design 2018
Arslan Ahmad Bashir Student No
Ahmad Elberry, Abdelghani Aljayyousi
ELEC-E Smart Grid Modelling of Electric Vehicle Charging Load
ELEC-E Smart Grid Demand response in power system energy balance management Teemu Manner
Overview of the Cross-border initiatives 2018
The Global Forum Electricity Ancillary Services and Balancing | Berlin, SmartNet Pilots: The demonstration of the different TSO-DSO coordination.
ELEC-E Smart Grid 16. Demand response of industrial loads
ELEC-E Smart Grid Demand Response of EV Loads
ELEC-E Smart Grid Power markets in Nordic Countries: Day ahead market and intra-day balancing Terhi Säynätjoki
Taneli Leiskamo Antti Hyttinen
ELEC-E Smart Grid Battery Energy Storage Systems
July update JANUARY 2019.
ELEC-E Smart Grid Demand response of commercial loads
Konsta Ruokosuo Aitor Ossa
Presentation transcript:

Svetlana Rybina, Lauri Holopainen ELEC-E8423 - Smart Grid Frequency Containment and Frequency Restoration Reserves in Nordic Power System Svetlana Rybina, Lauri Holopainen 19.03.2019

Introduction Balancing capacity markets (frequency reserve markets) + Frequency is one of the important parameters of power quality (should stay f=50 Hz all the time) + Electricity production = Electricity consumption + Main supply/demand balancing is made on financial, day-ahead (Elspot) and intra-day (Elbas) markets before actual energy use + Not possible to make absolutely exact forecast  real time balancing required Balancing capacity markets (frequency reserve markets) 07.02.2018

Nordic Model + Joint Nordic agreement (Finland, Sweden, Norway and East Denmark) of TSOs (Transmission System Operators) to to sustain power quality at all times + Balancing capacity (balancing frequency) markets are maintained by national TSOs within own country + Some resources are purchased from neighboring countries (max 1/3 of frequency containment can be bought from other Nordic countries ) + Finnish TSO is Fingrid 07.02.2018

Nordic Frequency Balancing Market structure FCR-N: constantly maintained for frequency regulation of the normal state (~3 min) FCR-D: for withstanding disturbances without frequency deviation more than 0,5 Hz aFRR: automatically activated reserve meant to manage with continuous shifts (~2 min) mFRR: activated by request within 15 min Some power systems are utilizing secondary markets for reserves or RR (replacement reserve) 07.02.2018

Technical requirements Minimum size Full activation time FCR-N 0,1 MW in 3 min after frequency step change of ± 0,1 Hz FCR-D, power plants 1 MW 5 s / 50 % 30 s / 100 %, after frequency step change of -0,50 Hz relay connected Option 1: linear regulation 5 s / 50 % 30 s / 100 %, after frequency step change of -0,50 Hz Option 2: immediate disconnection when frequency 5 s ≤ 49,7 Hz OR 3 s ≤ 49,6 Hz OR 1 s ≤ 49,5 Hz immediate disconnection when frequency 5 s ≤ 49,7 Hz OR 3 s ≤ 49,6 Hz OR 1 s ≤ 49,5 Hz 07.02.2018

System frequency The electric frequency in the network (the SYSTEM FREQUENCY f) is a measure for the rotation speed of the synchronised generators. By increase in the total DEMAND the SYSTEM FREQUENCY (speed of generators) will decrease, and by decrease in the DEMAND the SYSTEM FREQUENCY will increase Regulating units will then perform automatic PRIMARY CONTROL action and the balance between demand and generation will be re-established The FREQUENCY DEVIATION is influenced by both the total inertia in the system, and the speed of PRIMARY CONTROL Under undisturbed conditions, the SYSTEM FREQUENCY must be maintained within strict limits 07.02.2018

07.02.2018

Smart Grids in frequency control Controlling the charging would make it possible for the EVs to minimise their energy costs through adaptive/predictive charging and for the power grid to achieve multiple operational objectives simultaneously The use of EVs for providing ancillary services to the power system can be an additional revenue for EV owners and can assist the integration of larger amounts of renewable sources Utility-scale batteries can be used for frequency controlled reserves due to their fast response time (pilot projects existing in Finland) The Smart Grid Working Group has proposed market-based approach for demand flexibility with more dynamic load control to be implemented at latest on 30.3.2021 07.02.2018

Conclusions Power balance = steady frequency  good power quality Forecasting of demand and consumption Frequency control mechanisms 07.02.2018

Questions? 07.02.2018

References Aalto University, 2019. John Millar. Course material: ELEC-E8406 Electricity distribution and Markets ENTSO-E, 2004. Load-frequency control and Performance. Appendix 1. Fingrid. Reserves and control electricity. [Online source]. Accessed 15.3.2019. Available: https://www.fingrid.fi/en/electricity-market/reserves_and_balancing/ Fingrid. Balancing markets. [Online source]. Accessed 15.3.2019. Available: https://www.fingrid.fi/sahkomarkkinat/sahkomarkkinoiden-tulevaisuus/askelmerkit-sahkomarkkinamurrokseen/pohjoismainen-tasehallinta-ja-uudet-pohjoismaiset-markkinapaikat/ Thingvad, A. Economic value of electric vehicle reserve provision in the Nordic countries under driving requirements and charger losses. Journal of Energy Storage. 2019. 07.02.2018