1 INCINERATION TO BURN OR NOT TO BURN Presentation to Portfolio Committee 03 March 2008.

Slides:



Advertisements
Similar presentations
Workshop on Inventories and Projections of Greenhouse Gas Emissions from Waste under WG 1 and 2 of the Climate Change Committee Summary of reporting on.
Advertisements

Producing energy does not have to threaten the environment. In fact, its very production can reap major environmental benefits. The United States biomass.
Comparison of Transport and Reaction Phenomena in Waste-to-Energy (WTE) Power Plants Prof. Nickolas J. Themelis, Director, and Olivier L.R. Morin, Research.
Solid Domestic Waste IB Syllabus 5.5.1, AP Syllabus Ch 21 Personal Waste Audit Trashed video.
March 2009 Emissions Trading in South Africa National Climate Change Summit Emily Tyler.
A Sustainable Environmental Programme Enel Maritza East 3 Mike Foster CEO Enel Operations Bulgaria.
BAT and BEP for Dioxins & Furans Barbados Country Presentation by Thérèse N. Yarde Environmental Protection Department Ministry of Housing, Lands and the.
Biodegradable Municipal Waste Management in Europe Gerry Carty The Parliamentary Sustainable Waste Group and Environmental Services Association 28th January.
VEXOR Technology, Inc.. Background Founded in principals are seasoned environmental management professionals with more than 100 years of combined.
Green Manufacturing: Adopting Energy Efficiency in Manufacturing Supply Chains -Dangote Cement Strategy By Pabby Paramjit Director, Dangote Academy.
Sustainable Waste Policy Dr. Michael Weltzin Scientific Assistant in the Parliamentary Group Alliance 90 / The Greens are the party of peace, social fairness,
1 ACT AND ADAPT: CLIMATE CHANGE IN SCOTLAND Climate Change Division.
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)
International Energy Agency Energy Conservation in Buildings and Community Systems Programme - ECBCS IEA Energy Conservation in Buildings & Community Systems.
Cement 1.Production rose by 60% in the last 10 years 2.China: 44% of world production 3.Top 10 companies represent 55% of global capacity, but many very.
Cement Industry Environmental Consortium Carbon Capture and Reuse Project
ENVIRONMENTAL QUALITY AND HERITAGE ISSUES Chapter Seven.
6/2/2015R. Ferrigno EU Policy Director1 Energy recovery European Environmental Bureau.
Annual Conference 2008 Future Challenges for the Waste Management Industry Waste Framework Directive - Impact on the European Waste Management Industry.
Contribution of European waste management industry to greenhouse gas reduction Alexander Wallisch Taskforce Greenhouse gas FEAD.
Life Cycle Analysis and Resource Management Dr. Forbes McDougall Procter & Gamble UK.
Energy production in Finland Energy sources 2008: 86,9 TWh. Clockwise: Hydroelectricity 19,4 %, Wind power 0,3 %, Peat 6,7 %, Biomass 10,2 %, Waste 0,6.
Chapter # 1 Introduction To Pollution Prevention.
Solid Waste are useless, unwanted or hazardous materials resulting from human activities Rubbish that may decompose e.g. food materials Non-decomposable.
GREEN BUILDING.
All About Green House Gases. What are Green house gases? Green house gases are gasses that are in an atmosphere that take in and let out radiation within.
“Energy and Sustainable Development” Kiyotaka AKASAKA Consul-General of Japan in Sao Paulo JICA / ABJICA Forum on Energy at Japan Foundation February 20,
 Energy from Waste Mass burn technologies operating at extremely high temperatures Initially - no filtration for hazardous air emissions No federal or.
The Benefits of Making Energy from Waste Derek A. Porter September 20, 2007 MWMA Conference 2007 Fall Summit.
Waste Diversion in Canada MacKay WHAT IS WASTE DIVERSION? Waste diversion directs garbage away from landfills or incinerators. Waste management.
An Introdution of Energy Situation and Policy of ROK September 2010 Park, Jimin.
Thailand’s National Strategy on Climate Change Aree Wattana Tummakird Office of Natural Resources and Environmental Policy and Planning (ONEP) Ministry.
PRTR-online survey. Questions – Items Question 3 – Item 2.
Electric Vehicles in New Zealand: from Passenger to Driver? Dr. Allan Miller, Scott Lemon.
Laura Wood. Definition Biomass is all plant and animal matter on the Earth's surface. Harvesting biomass such as crops, trees or dung and using it to.
Investment opportunities in the worldwide gold and uranium equity markets Marino G. Pieterse, publisher and editor March 5 – 6, 2013.
Health Care Without Harm, Incineration and Health Care Waste.
Presentation of Cemex ‘Climafuel’ Proposals
MOVING TO GREEN TECHONOLOGIES VODAFONE GHANA EXPERIENCE by Mamle Asare Sustainability Manager Vodafone Ghana.
1 Synergies Between Climate Change Financing Mechanisms: Options for China The PCF/CC Synergy Workshop.
Click to edit Master subtitle style 6/4/12 PUBLIC HEARINGS ON THE NATIONAL WASTE MANAGEMENT STRATEGY, June 2012 Musa Chamane Waste Campaign Manager.
15 November 2011 Response to NCCRWP EKC 1 Response to the NATIONAL CLIMATE CHANGE RESPONSE WHITE PAPER 2011 Presented to The Portfolio Committee on Water.
Biomass Renewable Energy Source Michael Parsons. What is Biomass? Biomass Renewable Energy from Plants and Animals Biomass Renewable Energy from Plants.
Solid & Hazardous Wastes. Domestic Waste  38 % Paper  18% Yard waste  8% Metals  8% Plastic (20% by volume)  7% Glass  7% Food  14% Miscellaneous.
Global Warming (AKA Climate Change) By: Harsh Patel.
Scania – Sustainable Urban Transport – April 2008
Sustainability In Action ! Salt Lake City Corporation Division of Sustainability and the Environment.
Recycling is the process of making new products from used materials. This not only has many benefits for the environment, but also for the future of the.
&. So dependent on fossil fuels… Greenhouse gases are released (Carbon Dioxide, Methane, Nitrogen, Sulfer Dioxide) Automobiles Factories Construction.
An end to disposal What needs to be done locally, nationally, and at EU level, in order to phase out residual waste Dr Michael Warhurst, Friends of the.
Green Concrete 1 1.
Conversion Technology An Overview Tim Raibley. P.E. & Mike Greenberg, P.E. HDR Engineering, Inc. Date January 15, 2009.
Bellwork: 03/15/2011 What is “e-waste” and why is it a problem?
Why Collect and Recycle Electronics -Clive Hess. Benefits of Recycling Establishes more jobs, economic development, and tax revenue Makes less impact.
NON-RENEWABLE ENERGY. Energy Use Five main purposes: Cooking Transportation Manufacturing Heating/Cooling Generating electricity to run machines/appliances.
Climate Change Policies: The Road to Copenhagen Dr Robert K. Dixon.
Lecture (11): Waste Recycling
Common method of solid waste disposal.
Lecture (5): Waste treatment and disposal
Lithuanian Energy Institute
Snapshot of Global PV Markets
Presentation to the Environmental Portfolio Committee 11 March 2008
Types of Waste Hazardous: can be liquid, solid, gaseous
DIOXIN EMISSIONS IN LITHUANIA
Progress in Implementation Process
Environmental Science 5e
RED | the new green Presentation to the Business Council for Sustainable Energy & the House Climate Change Caucus Thomas R. Casten Chairman, Recycled.
TRAINING WORKSHOP FOR UPDATING INVENTORY OF INITIAL AND NEW POPs
Main Objectives of This Secession
Musa Chamane Waste Campaign Manager
Presentation transcript:

1 INCINERATION TO BURN OR NOT TO BURN Presentation to Portfolio Committee 03 March 2008

2 INTRODUCTION  Some NGO’s and community members requested incineration and recovery of waste from energy to be explicitly banned in the Waste Bill on account of, inter alia, the following: –The formation of dioxins and furans and resultant health impacts. –Effect of incineration and co-processing on recycling. –Non-existent Laboratory capacity to measure dioxins and furans –Toxicity of residues from incineration –Government’s inability to monitor and enforce standards and permit conditions. –Impacts of currently high levels of cement dust on communities adjacent to cement plants / kilns.

3 BACKGROUND  In the 1970’s – 80’s emissions from incinerators were high in relation to current emissions and there was little understanding of the effects of emissions on human health during this time.  International emission standards for incineration are extremely low, with technologies for further reduction continuously being developed and explored.  Internationally incineration as a waste management technology is on the increase, contrary to submissions made by NGO’s.  In developing countries the co-processing of waste in cement production is rapidly increasing.  Internationally NGO’s no longer oppose co-processing of hazardous waste

4 In South Africa general waste and 90% organic hazardous waste is land-filled in about 1000 landfill sites. Landfills contribute > 2 % of greenhouse gas emissions in SA annually

5 CLIMATE CHANGE AND WASTE MANAGEMENT  Important link between Waste management and Climate change  Landfills produce methane which is 20 times more powerful than CO 2 as a Greenhouse gas (GHG).  EU has placed restrictions on land- filling of organic waste in order to reduce methane generation.

6 CLIMATE CHANGE AND CEMENT INDUSTRY  Cement industry in SA produces 4 million tons per annum of clinker, which contributes 4 million tons per annum of CO 2.  Cement industry accounts for 1% in SA’s 440 Mt/a global CO 2 emissions.  Cement making is an energy & resource intensive process which consumes million tons of coal per annum – makes cement industry a large contributor to global warming

7 Cement industry locations in SA

8 DEAT POLICY DEVELOPMENT PROCESS AND CEMENT INDUSTRY  For the past 12 months DEAT has been working on a policy on:  Incineration of hazardous waste (as a treatment solution for hazardous waste management)  Use of selected general and hazardous waste as a substitute for fuel in cement kilns, alternatively termed co- processing  Cement companies had to undertake the EIA process for the use of waste as fuel substitute.  The lack of national policy produced inconsistent EIA decisions by provinces, resulting in unhappiness in cement industry.  DEAT undertook extensive research into incineration and co- processing in order to come up with an informed policy.  This policy development process is almost complete and has been approved by MINTECH.

9 Incineration technology is used for waste management internationally CountryNo of incineratorsMetric tons of waste per annum Metric tons /annum incinerated Netherlands Italy Germany France Denmark Austria Incineration technology is used in: Finland, Sweden, UK, Belgium, Spain, USA, Nigeria, Angola, South Africa, Canada, Hong Kong, Japan, Poland, Taiwan, South Korea, Singapore, China, Switzerland, Norway,

10 Co-processing  Since early 70’s Alternative fuels and raw materials (AFR’s) have been used in cement industry  Some kilns in SA are already using AFR’s (spent pot-liners, ash, slag)  Since been demonstrated that performance of cement plants is not impaired by co-processing  Cement kilns can destroy organic hazardous wastes in a safe and sound manner  Co-processing presents opportunity to substitute fossil fuels by alternative fuels, thereby reducing overall output of thermal CO 2 and conserving non-renewable fossil energy.  Co-processing presents a cheaper treatment option than land-filling or dedicated incineration for waste and will reduce costs of cement production  Co-processing is practised internationally: Brazil, Vietnam, Egypt, El Savador, Sri-Lanka, Thailand & Philipines, Venezuella, China.  In Norway, co-processing is the only option for hazardous waste and has been for 25 years  France, Germany and most EU countries make use of cement kiln technology for hazardous waste management

11 Co-processing of hazardous waste in cement kilns can make substantial savings in raw material and coal usage and can treat approx. 99% of organic waste currently being land-filled in SA

12 DIOXINS & FURANS: INCINERATION AND CO-PROCESSING

13 Dioxin & Furan Emissions from various sources ProcessesEmissions per year in g TU (toxicity units) * Metal extraction and processing Waste Incineration400320,5 Power Stations533 Industrial Incineration Plants2015<10 Domestic Firing Installations2015<10 Traffic104<1 Crematoria42<2 Total emissions, air1,200330<<70 Other sources include : Veld fires, wood stoves, uncontrolled open burning of waste, the Sunday braai,etc

14 Dioxins & Furans: What we know today  The effects of dioxins and furans are now known and have been considered when drawing up emission standards for sound operation of incinerators and cement kilns co- processing hazardous wastes  Stockholm Convention requires reductions or elimination of POP’s  World Business Council conducted a study in 2006 on POP’s emissions from cement industry, which showed:  Most modern cement kilns can meet emission standard (0.1ng TEQ/Nm3)  Co-processing of alternative fuels and raw materials does not affect emission of POP’s

15 Waste Management in the EU Management Option Current level (%) Year 2020 Recycling and Recovery 3642 (increase) Incineration1725 (increase) Land-filling4735 (decrease)

16 RECYCLING, INCINERATION & CO- PROCESSING  The figures demonstrate that even in countries where large amounts of the waste stream are recycled and these rates will increase, incineration still fulfils a waste management function.  There’s a saturation point for industry to absorb recyclables.  The move away from landfill has been a specific goal in the EU, dedicated legislation namely the “waste directive” has been passed to completely move away from land-filling of organic waste, for both environmental as well as climate change considerations.  DEAT is continuously exploring ways of diverting specific waste streams away from land-fill to other uses

17 TYRE RECYCLING: Presently in SA there are limited waste management options for Tyres – tyres cannot be compacted so they take up a lot of space in landfills – The tyre industry is proposing a waste management plan using kilns

18 Laboratory Capacity & Toxic Residues from incineration  Laboratory capacity currently does not exist because there is no demand.  Demand for dioxin testing laboratories will increase if incineration is allowed– Dept of Science and Technology already supportive of funding the establishment of an accredited lab.  Residues from incineration must be disposed off in High Hazardous landfills. The 90% reduction in volume due to incineration solves the problem of large volume of hazardous waste (99%)going to landfills.  Methane gas production is also reduced because the residues have a very low organic load so generation of methane will be eliminated.

19 Government’s ability to enforce standards and permit conditions  Even though the Waste hierarchy is the overarching in the Waste Bill, not much has been done to provide alternatives to land-filling.  Alternatives will drive overall improvement in capacity.  Green Scorpions have had resounding success in a very short space of time  Green Scorpions have shut down two commercial incinerators in the last 3 years, owing to permit violations.  capacity will be built over time

20 IF INCINERATION IS ALLOWED  Achieve 90% reduction in volume of waste  Can use heat generated through incineration to power generators for electricity production.  Mitigation against climate change  Dioxin and Furan emissions control will be enhanced - in SA incineration is the only process in which the dioxin and furan emissions are currently controlled through legislation  Waste hierarchy upheld - Energy recovery and incineration are higher in the waste hierarchy than land-filling.

21 IF INCINERATION IS BANNED  Allowing continuation of increased emissions from landfills- more emission are released from landfill than incineration (this includes dioxins and furans)  Disallowing safe treatment of pathological waste - Incineration is the preferred option for the safe disposal & treatment of pathological waste in the health care waste stream.  Disallowing cremation - The definition of incineration includes cremation.  Closing opportunity to reduce coal input in energy generating power stations

22 IF CO-PROCESSING IS ALLOWED  Mitigation against Climate Change  Reduction in CO2 emissions as a result of substitution of fuel  Further reduction in CO 2 emissions are realized by diverting organics from landfill – reduce methane.  Immediate reduction of 40mg/m 3 (33%) of cement dust realized in two years if proposed emission standards are applied for co-processing in cement kilns.  Proposed emission standards for co-processing cement kilns are aligned to international best practice  Environmental performance of cement industry will improve – proposed emission standards are a big improvement to current standards  New job opportunities through new blending platform industry that will be created.  DEAT will be able to identify & prioritize waste streams for diversion to recycling or other forms of reuse or treatment since hazardous waste will be taken care of

23  Incineration & co-processing  Can be managed in SA  Presents a n important opportunity for hazardous waste management  Can reduce fossil fuel usage  Can create new jobs  Represent a shift up the waste hierarchy  Therefore Portfolio Committee is requested to:  Support the regulated use of incineration as an option for consideration for the treatment of waste in SA  Support the use of cement kilns for AFR co-processing and the treatment of hazardous waste as a viable waste management option in SA.  Do not support banning incineration and use of alternative fuels in Waste Bill. CONCLUSION AND REQUEST TO PORTFOLIO COMMITTEE

24 Thank You