ISWA Statistics on Energy Supply from Waste in the EU & A brief overview of the SYSAV site Håkan Rylander Chairman - ISWA WGTT CEO SYSAV.

Slides:



Advertisements
Similar presentations
Comparison of Transport and Reaction Phenomena in Waste-to-Energy (WTE) Power Plants Prof. Nickolas J. Themelis, Director, and Olivier L.R. Morin, Research.
Advertisements

Is Waste a Good Source of Energy?
Solid Domestic Waste IB Syllabus 5.5.1, AP Syllabus Ch 21 Personal Waste Audit Trashed video.
Part III Solid Waste Engineering
Chapter 24 Solid and Hazardous Wastes
CE 326 Principles of Environmental Engineering Prof. Tim Ellis February 4, 2008 Municipal Solid Wastes
Solid Waste Management Ahmed A.M. Abu Foul Environmental Department Islamic University of Gaza.
ERT 319 Industrial Waste Treatment Semester /2013 Huzairy Hassan School of Bioprocess Engineering UniMAP.
APES – Mrs. Soja – Part 1. A.Solid Waste - any unwanted material that is solid  1.The U.S. produces 11,000,000,000 tons per year (4.3 pounds per day)
Overview: Hazardous Waste Combustion. What is Hazardous Waste? Definition of Hazardous Waste –Hazardous wastes are distinguished from other wastes by:
INTEGRATED PLANNING: THE LINKS BETWEEN URBAN WASTE MANAGEMENT, SANITATION AND ENERGY.
Municipal Solid Waste Incineration
AWAST final meeting - Brussels december 2003 Aid in the management and European comparison of Municipal Solid WASte Treatment methods for a global.
ENVIRONMENTAL PROTECTION AGENCY CITY OF COPENHAGEN COPENHAGEN WASTE MANAGEMENT.
Costs & Benefit of Ecology Integration Serbia - Austria 3rd Conference GREEN SERBIA, Belgrade, 29 February 2012 © Thomas Seegers – Fotolia.com.
Landfill diversion targets and non-hazardous waste pre-treatment methods Heijo Scharff FEAD Workshop Implementation of the Landfill Directive Budapest,
Chapter 16: Waste Management Big Question: Is Zero Waste Possible?
Solid Waste are useless, unwanted or hazardous materials resulting from human activities Rubbish that may decompose e.g. food materials Non-decomposable.
Management of solid waste Individually, come up with some management strategies for dealing with SDW. HINT. Think about the different stages on your diagram.
Municipal Waste as a Viable Fuel
 Energy from Waste Mass burn technologies operating at extremely high temperatures Initially - no filtration for hazardous air emissions No federal or.
REnescience at Amagerforbrænding By Project Manager Frank Hansen 2012.
Objective To assess the energy balance, emission of global warming gasses, and quantify the recycled nutrients by anaerobic digestion of source separated.
Jan-Olov Sundqvist1 Case Studies on Waste Management in Sweden Jan-Olov Sundqvist IVL Swedish Environmental Research Institute, Stockholm
Chapter 24 Solid and Hazardous Wastes. Types of Solid Waste  Municipal solid waste  Relatively small portion of solid waste produced  Non-municipal.
>> Focus on environment Waste management in the Netherlands Vibrant India Day Round Table meeting 22th October 2012 Nijenrode University
 Products of incineration  sifting  fine material include ash, metal fragments, glass, unburnt organic substances etc..  residue  all solid material.
Update on MSW Management and Incineration in Japan Yuichiro Hattori (GAIA) GAIA Asia Regional Meeting 2012.
PAMUKKALE UNIVERSITY DENİZLİ, TURKEY National Technical Waste Management Report from Turkey
ERT 319 Industrial Waste Treatment Semester /2013 Huzairy Hassan School of Bioprocess Engineering UniMAP.
Keeping our community clean. WHO IS SECCRA? Formed in 1968 by citizens of southern Chester County 10 members initially, 24 today Operated the Kennett.
PAMUKKALE UNIVERSITY DENİZLİ, TURKEY Rome Meeting July 4-8, 2007.
Biomass Renewable Energy Source Michael Parsons. What is Biomass? Biomass Renewable Energy from Plants and Animals Biomass Renewable Energy from Plants.
AWAST final meeting - Brussels december 2003 Aid in the management and European comparison of Municipal Solid WASte Treatment methods for a global.
African Centre for Statistics United Nations Economic Commission for Africa Session 6: Statistics on Waste Workshop on Environment Statistics and Accounts.
Chapter 23 Solid and Hazardous Wastes
Solid Waste Management Department of Geology and Environment science at Islamic University of Gaza (IUG) - represent- -March Presented by Prof. Dr.
Separate collection in the city of Gothenburg Henrik Kant,
Waste and Hazardous Materials
Chapter 16 Waste Generation and Waste Disposal. Refuse collected by municipalities from households, small businesses, and institutions such as schools,
Municipal Solid Waste and its Components with Dangerous Potencial Bláha, A. Responsible Care 5 th International Conference Theme: Dangerous Wastes Prague,
Chapter 16 Waste Generation and Waste Disposal. Paper or Plastic? Polystyrene – plastic polymer with high insulation value Aka – styrofoam Is harmful.
Waste Generation and Waste Disposal Chapter 16. Waste Waste – nonuseful products generated within the system throw-away society Municipal Solid Waste.
25 September 2008 Risk Communication New and Emerging Waste Treatment Technologies – A Risk Communication Challenge Mike Studden Regional Head of Environmental.
Solid & Hazardous Waste Chapter 15. United States Solid Waste Production 75% 13% 9.5% 2% 1% Mining & Oil & Gas Agriculture Industry Municipal Sewage.
1 Waste management Waste to energy June Waste management Avoiding waste production Reducing its hazards Selective collection, waste utilisation,
Recycling in the IVAR - region Sibiu, november 2009 Tron Ree, Chief engineer IVAR IKS.
Pollutants via land media. Hazardous waste Hazardous waste is waste that is dangerous or potentially harmful to our health or the environment. Example.
Content 1.The main flowchart and technology 2.Advantage and disadvantages of each technology, way to improve. On-Nuch disposal site Group Member: Lu Li.
What is Incineration incineration is a waste treatment process that involves the combustion of organic substances contained in waste materials. Incineration.
Solid Waste. What is solid waste and what are the different types? Industrial Municipal.
STRATEGY OF LOCAL GOVERNMENT IN THE WASTE MANAGEMENT IN KIEV
Chapter 24 Solid and Hazardous Waste
Chapter Nineteen: Waste
Typology of different options for metal recycling by Private Sector
Landfill Review.
Management of solid waste
Lithuanian Energy Institute
Pollution control methods of thermal power plants
Waste Generation and Waste Disposal
Waste management trash, recyclables, hazardous waste, nuclear waste, e-waste, biological waste, . . .
Management and Disposal Options for CCA-Treated Wood Waste
Secondary Wastes Methods of data compilation and the effects on the comparability of results THE CONTRACTOR IS ACTING UNDER A FRAMEWORK CONTRACT CONCLUDED.
Waste Management in Sweden
Waste Generation and Waste Disposal
Challenges of Resource Efficiency
Solid and Hazardous Waste Chapter 21
Management of solid waste
SOLID WASTE MANAGEMENT PRINCIPLES
Presentation transcript:

ISWA Statistics on Energy Supply from Waste in the EU & A brief overview of the SYSAV site Håkan Rylander Chairman - ISWA WGTT CEO SYSAV

The Eco Cycle Society Waste to Energy State - of - the - Art

l Integrated Waste Management - A Combination of Methods l Recovery and recycling of materials in household waste and industrial waste Waste to Energy State - of - the - Art l Thermal treatment of waste, with energy recovery

Waste to Energy State - of - the - Art l Integrated Waste Management - A Combination of Methods l Biological treatment of the easy biodegradable part of the organic waste l Landfilling

Waste amount treated Waste to Energy State - of - the - Art

Amounts of Waste Incinerated Waste to Energy State - of - the - Art

Number of Plants and Capacity

Waste to Energy State - of - the - Art Energy production

l Flue Gas Cleaning Systems l Electrostatic Precipitators Waste to Energy State - of - the - Art l Multi-stage Wet Scrubbers with Waste Water Evaporation l Fabric Filters or Wet Electro - Venturies l SCR - de NO x or SCNR (Katalytic or non-Katalytic)

Flue gas cleaning types in percent Energy Recovery Waste to Energy State - of - the - Art

l Handling of Residues from Waste to Energy Waste to Energy State - of - the - Art l Bottom Ash l Residues from Flue Gas Cleaning

Waste to Energy State - of - the - Art Bottom ash recycled and Deposited 1999

Waste – to – Energy and Dioxins, (22 Swedish Plants 1999) Furnace >850 o C Destruction of Dioxins Flue Gas Cleaning Boiler Formation of Dioxin 200 o -600 o C ( ) Bottom ash Dioxin 5 gr/year Residues Dioxin gr/year Dioxins 3 gr/year C HCl Cu Dioxin X gr/year

Dioxin to air from W-t-E

Waste to Energy State - of - the - Art The Swedish Example The incinerated amount of waste has increased with 46% from , while the energy production has increased with 104% and most of the emissions have decreased with 95%-99%.

The Swedish Example The incinerated amount of waste has increased with 79% from , while the energy production has increased with 2,57 times (157%) and most of the emissions have decreased with 95%-99%. Waste to Energy State - of - the - Art

The Solid Waste Company of Southwest Scania Sysav is responsible for waste management, treatment and recovery of solid household waste and industrial waste in southwest Scania. Owned by nine municipalities

Burlöv Kävlinge Lomma Lund Malmö Staffanstorp Svedala Trelleborg Vellinge inhabitants

Sysav´s motto: The highest possible degree of recycling and the lowest possible degree of landfilling. At the heart of the eco-cycle

Waste to Energy State - of - the - Art

The Sysav Site Sorting, recycling, composting and final deposition of waste with collection of biogas

An example of integrated waste management, with a combination of many methods for an environmentally and economically correct waste management 1.Two Waste-to-Energy Plants 2.Two landfills with separation and recycling activities, composting, production of wood chips, biodegradation of waste in special cells, recovery of landfill gas, landfilling, leachate treatment 3.A pre-sorting plant for bulky waste 4.Two Transferstations

5.Nine big Recycling Centres, open for the public 6.30 Stations for the reception of household hazardous waste 7.Collection of batteries 8.A special department for collection, storage and pre-treatment of hazardous waste 9.A separation and recycling plant for electric and electronical waste 10. A special system for collection of refrigerators and freezers

11. A special system for collection and incineration of health care waste 12. Remediation of polluted soils 13. A special plant for recovery of construction materials-bricks, windows etc 14. A special subsidiary for the separation and recycling of concrete, asphalt, gravel etc 15. A special subsidiary for the recycling of waste paper, cardboard, cartons etc 16. Sysav Development Ltd for R&D

MWh energy produced annually from tons burnable waste equivalent to approx tons oil. Energy from waste

The new Waste-to-Energy Plant Waste provides electricity and heat MWh of heat and MWh of electricity will be produced annually.

Waste-to-Energy is an established and well functioning method for waste treatment and energy recovery. Waste to Energy There will be an increased need for waste incineration with energy recovery. Conclusion:

There is only one objective for waste incineration that is relevant in the Eco Cycle Society and that is energy recovery. Conclusion: Waste to Energy Volume reduction is no more an objective even if it is an important parameter when comparing environ- mental impact.

Incineration is only justified when the method is at least as favourable as other recycling or recovery alternatives. Conclusion: Waste to Energy