CHP and DHC in Helsinki



Similar documents
District Heating & Cooling in Helsinki

HELSINGIN ENERGIA S DECENTRALIZED DISTRICT HEATING AND COOLING SYSTEM

KAUPUNKIENERGIAA JA PARADIGMAMUUTOSTA

How To Improve The Energy Situation In Europe

Aurinkolämpömarkkinat Skandinaviassa ATY Aurinkoseminaari Jari Varjotie, CEO

Climate Commitments and Planning Actions in the City of Helsinki

The new waste burning investment in the Helsinki Metropolitan Area

LANDFILL GAS TO ENERGY- COMBINED ENGINE AND ORC-PROCESS

Energy story of Turku region, history and future

Loviisa 3 unique possibility for large scale CHP generation and CO 2 reductions. Nici Bergroth, Fortum Oyj FORS-seminar

How To Build A Data Centre In Korea

Energy Distribution: District Heating and Cooling - DHC M6_ ENERGY DISTRIBUTION: DISTRICT HEATING AND COOLING

Integrating renewable energy sources and thermal storage

Hybrid system. Energy-efficient and environmentally friendly

DISTRICT ENERGY ST. PAUL. Achieving Energy Independence

COFELY DISTRICT ENERGY DELIVERING LOW CARBON SUSTAINABLE ENERGY SOLUTIONS

District Heating in Buildings

Efficiency Metrics for CHP Systems: Total System and Effective Electric Efficiencies

Combined Heat & Power. Discussion with Connecticut Energy Advisory Board. February 23, 2010

GREEN COMFORT FOR SUSTAINABLE CITIES.

Waste to Energy. waste being used to keep cities warm.

CHP & ENVIRONMENTAL COMMODITIES: MARKET & POLICY UPDATE FOR MONETIZING RENEWABLE ENERGY CREDITS FROM CHP PROJECTS. Thomas Jacobsen October 2012

Source: EIA Natural Gas Issues and Trends 1998

CO 2 emissions, energy efficiency and renewables are in the focus. A carbon neutral future as a goal

Inventory of LCPs in Turkey LCP Database introductory presentation

Growing your greenhouse business faster with gas engines.

The development of gas cogeneration

Role of Northern European forestry in the energy production chain, case Fortum. Jari Nylén Purchasing Manager Fortum Power and Heat Oy, HEAT

Green Development of Infrastructure and Campus: Modern Practice and Approach in District Heating and Cooling System

10 Nuclear Power Reactors Figure 10.1

NATURAL GAS IN COMMERCIAL BUILDINGS

NEW NUCLEAR POWER PLANT UNIT IN FINLAND ACCEPTED BY THE FINNISH PARLIAMENT

How To Evaluate Cogeneration

Carbon Dioxide Membrane Separation for Carbon Capture using Direct FuelCell Systems

Energy Taxation in Europe, Japan and The United States

Residential heat pumps in the future Danish energy system

A vision of sustainable energy future: A multi-energy concept of smart energy systems Central European Student and Young Professionals Congress

EU Heating and Cooling Strategy

Finnish Cleantech Cluster and Tekes Activities

ErP made easy What does it mean to merchants? What does it mean to installers?

District heating and cooling in Stockholm Site visit to the Ropsten plant

For a sustainable energy supply

University of Melbourne Symposium on ICT Sustainability Dan Pointon 25 November 2008

Gas: the right choice for heating in Europe

DATA CENTRE DESIGN AND

GAS HEATING IN COMMERCIAL PREMISES

Micro-Turbine Combined Heat & Power Generators (CHP) Cold Climate Applications 2014 Polar Technology Conference Richard S.

Status of the district heating and cooling infrastructures in Italy

Welcome to Norrenergi

New business segments for the energy saving industry Energy efficiency and decentralised energy systems in the building & housing sector

District heating and district cooling with large centrifugal chiller - heat pumps

Utilization of renewable energy sources and their role in climate change mitigation. Norsk Energi s experience

Heat Recovery from Data Centres Conference Designing Energy Efficient Data Centres

GERMAN ENERGY TRANSITION: BEST PRACTICES IN SECURING A RELIABLE AND EFFICIENT ENERGY SUPPLY AND SEIZING NEW MARKET OPPORTUNITIES

INTRODUCTION OF DSM PROGRAMS. Ankara, November EVA MICHALENA Regulatory Authority for Energy, Greece Sorbonne University, France

Heating technology mix in a future German energy system dominated by renewables

Valmet biotechnologies and pyrolysis status update. Joakim Autio Product manager, Pyrolysis systems Valmet

Energy consumption and heat recovery of refrigeration system in modern Arena

From today s systems to the future renewable energy systems. Iva Ridjan US-DK summer school AAU Copenhagen 17 August 2015

Your partner of choice for integrated energy solutions

COMPARISON OF ELECTRICITY GENERATION COSTS

Annual Electricity and Heat Questionnaire

ACCELERATING GREEN ENERGY TOWARDS The Danish Energy Agreement of March 2012

Corporate Energy Conservation and Demand Management Plan Engineering Department. Public Works Division

Renewable Choice Energy

ENERGY EFFICIENCY IN POWER PLANTS

COMPETITIVENESS COMPARISON OF THE ELECTRICITY PRODUCTION ALTERNATIVES (PRICE LEVEL MARCH 2003)

DATA CENTERS BEST IN CLASS

AGFW-Statement. Public Consultation. Roadmap for a low carbon economy. Frankfurt am Main, 8th December 2010 Or

Making power plants energy efficient

CONCENTRATING SOLAR POWER NOW CLEAN ENERGY FOR SUSTAINABLE DEVELOPMENT

New technical solutions for energy efficient buildings

Data Center Combined Heat and Power Benefits and Implementation. Justin Grau, Google Inc. Sam Brewer, GEM Energy

Lappeenranta Climate Capital of FINLAND

Smart Energy Systems Energy Efficient Buildings and the Design of future Sustainable Energy Systems

Vitocaldens 222-F Compact Gas-Hybrid appliance

CCS in the Oil refining Industry System Solutions and Assessment of Capture Potential

Food industry Prosecc industry Heat & power (Production of district heating & cooling) Food industry Process industry Logistic centres Sport arenas

Södra Näs Vimmerby Energi AB Biomass District Heating Plant, Sweden

SAP 2012 IN A NUTSHELL

Engineering Department. Public Works Division. August 14th, 2014

Generating Current Electricity: Complete the following summary table for each way that electrical energy is generated. Pros:

Esco s experience, know-how sharing from Energy Efficiency Italian industry

U.S. Environmental Protection Agency. Business Decision: Manage Energy Costs

CLIMATE INVESTMENT PROGRAMMES. An important step towards achieving Sweden s climate targets

Carbon Management Plan

Making power plants energy efficient ABB, integrated power and automation solutions

Big Buildings lead to big savings

M.Sc. Matti Kivelä Power Plant Manager R&D Lahti Energia Oy P.O. Box 93 FIN Lahti Finland Tel matti.kivela@lahtienergia.

Smart Cities. Integrated approach for innovative technologies. 2nd Annual Conference of the ETP on. Budapest, 6th May 2011

GOOD PRACTICE: Kuhmon Lampö (Kuhmo s Heating)

Feasibility Study for Mobile Sorption Storage in Industrial Applications

Solar urban planning. The National state of the art in Sweden

Renewable energy opportunities in the transformation of the energy system

Birmingham City University / Students Union Aspects and Impacts Register. Waste. Impacts description

ESBI Company Profile. ESB International. Bringing Energy Innovation to the World...

Itella s principles of environmental accounting

Biogas and landfill gas utilization in Helsinki region waste management. Aino Kainulainen Project Manager Helsinki Region Environmental Services HSY

Prioritizing biomass in the sustainable Smart Society. Henrik Wenzel University of Southern Denmark

Transcription:

CHP and DHC in Helsinki Veikko Hokkanen Helsinki Population 588 000 people Heat market ca. 8 000 GWh Growing cooling demand despite of relatively cold climate Thermal energy demand greater than electricity demand 2 1

Helsingin Energia s smart CHP/DH system Helsingin Energia s district heating system covers more than 90% of the heating need of the buildings in Helsinki. The connection capacity of the network is 3,244 MW and there are 14,010 customer connections (2010). Helsingin Energia has extensively operated its energy-efficient smart CHP/DH system in Helsinki since 1957. The operations have been improved in terms of their climate impact and efficiency throughout the years. Net turnover 716 million euro 2

CHP and DHC in Helsinki The decisions of CHP and DH were made in 1953 by City Council Basic reasons for the DH were; Economical Ecological Supply reliability Energy political CHP have been the basic production solution from the beginning District Cooling supply started in 1998 From the beginning DHC have been economically success Reliable DHC The distribution reliability of DHC is very high and the cut-offs are rare The networks is designed so that DHC can be distributed via several routes DHC production is typically based on multiple heating and cooling plants DHC is available throughout the year Flexible use of fuels and different production sites 3

Outsourced energy solutions Customers are willing to outsource heating and cooling production to energy company (compare to electricity or any other activity) Harms and risks of own production are avoided DHC are reliable and cost efficient solutions for whole life-cycle DHC customers can concentrate on their key businesses 4

DH Customers Customers are buildings or building groups, never separate appartments Real estate ownership is concentrated in the hands of major real estate owners Voluntary connections to DHC No obligations for energy companys to connect every building No specific DHC legislation in Finland 5

Creating real estate value with DH 1. Supply reliability 2. Environmental friendliness 3. Energy company is reliable partner 4. Prices are stable 5. Energy company is technical expert 6. Continuous development of DHC systems 7. DHC have a good reputation 8. Cooperation with the customers 9. Energy company is customer orientated 10. Active communication with the customers 11. Rapid response to the customers needs 12. Low price level 90 / 90 / 90 philosophy in District Heating 1) Market share is more than 90 % 2) Share of CHP more than 90 % 3) Overall efficiency is more than 90 % 6

Combined Heat and Power Helsingin Energia generates electricity and heat in the same process. The combined generation achieves high efficiency, in other words more energy is gained from the same amount of fuel. Combined generation reduces carbon dioxide emissions. District heating has improved the air quality in Helsinki. 7

Production capacities Production capacities of power plants located in Helsinki Power plants Vuosaari A, CHP Vuosaari B, CHP Salmisaari B, CHP Hanasaari B, CHP Kellosaari Electric power output (net) MW 160 470 150 228 118 Heating output(net) MW 160 420 320 420 Total 1 126 1 320 Heating plants Salmisaari A Heating plants Katri Vala heating and cooling plant 180 2 007 90 Total 2 277 Production 8

Power Plants Vuosaari A Commissioned: 1991 Electric power output: 160 MW Heating output: 160 MW Efficiency: 91 % Fuel: Natural gas Vuosaari B Commissioned: 1998 Electric power output: 470 MW Heating output: 420 MW Efficiency: 92 % Fuel: Natural gas Power Plants Hanasaari B Commissioned: 1974,1977 Electric power output: 228 MW Heating output: 420 MW Efficiency: 85 % Fuel: Coal 9

Power Plants Salmisaari A Commissioned: 1953 (1986) Electric power output: - Heating output: 180 MW Efficiency: 92 % Fuel: Coal Salmisaari B Commissioned: 1984 Electric power output:160 MW Heating output: 300 MW Efficiency: 88 % Fuel: Coal The amount of fuel saved by using CHP Fuel energy, GWh Fuel saved by using CHP Used natural gas and black hard coal Due to CHP and district heat, Helsinki saves the same amount of energy that would be consumed in the heating of 270,000 single-family houses each year. 10

Helsingin Energia s sulphur dioxide emissions, tso 2 /a Helsingin Energia s nitrogen oxides emissions, tno 2 /a 11

Helsingin Energia s particle emissions, dust t/a Specific energy consumption of district heated buildings in Helsinki 12

The Katri Vala heating and cooling plant The Katri Vala heating and cooling plant was commissioned at the end of the year 2006. It is an environmentally benign solution developed by Helsingin Energia. The plant's "fuels" in production of district heating and district cooling are sea water, the heat of the purified sewage water and the energy of returning heating water. The plant is the largest in the world to use heat pumps to produce district heating and district cooling form both purified sewage water and sea water. Its output is 90 MW of district heating and 60 MW of district cooling. This is enough to heat a small town. The plant is located in a space excavated underneath the Katri Vala park in the district of Sörnäinen. 13

Helsingin Conventional Energia solution New solution 14

Primary Resource Factor (PRF) District Heating Heat Pump Gas or Oil Boiler Electricity 0 0,5 1,0 1,5 2,0 2,5 District Cooling Building specific cooling (chillers + cooling towers) PRF 0 0,5 1,0 1,5 2,0 2,5 PRF 0 Quality and awards The National Voluntary Energy Efficiency Agreement stipulates the technical requirements and service contents The European Parliament Regional Award The United Nations Environment Award The Fair District Heat quality label stipulates the ethical requirements of high quality energy service National Quality Award 15

District cooling in Helsinki 300 MW 280 MW 230 MW 200 170 MW Rapid growth is based on customers own willingness to connect in free market 100 16 MW 39 MW 90 MW Current market share 30 % and target 90 % 0 District cooling production Sea water Heat Pump More than 80 % of production is based on energy that otherwise would be wasted (future target 100 %). Surplus heat (Absorption) Large primary energy and CO 2 savings compared to alternative cooling solutions. 32Helsingin Energia 16

Thank you 17