City of Sydney Gasification Project

Similar documents
WORK? WHEN DOES EFW. By James D. Michelsen 44 IFC.ORG/HANDSHAKE

Sustainable Waste Diversion Technologies to promote a circular economy

BEYOND COMPOSTING Alternative Technologies for Processing Source Separated Organics

MARSS Workshop. Prof. Dr. Ing. Thomas Pretz

This is a draft revision of the briefing, and any comments are welcome please them to Becky Slater on

MSW management in Europe

SGS, LLC s mission is to market, build, implement, and operate or sell waste-to-energy systems in the USA and other worldwide locations based on

California Biomass Collaborative, 8 th Annual Forum

Renewable Energy Technologies I. Exercise 10

Chapter page 1

Fuel preparation Phil White, MCIWM

STAR Annual Conference

Gasification Technologies Review TECHNOLOGY RESOURCES IMPLEMENTATION SCENARIOS C ITY OF S YDNEY A DVANCED W ASTE T REATMENT M ASTER P LAN APPENDIX H

APPENDIX A. Glossary Of Terms

Thermal Treatment. For more information, contact us: E :

Dedicated Feedstock. Outline

Introduction: Thermal treatment

Developing an Organics Management Program

How to Make Biomass to Energy Work in Rural Towns of Alaska

Appraisal for options of solid recovered fuel (SRF) utilisation within. the UK

STRATEGIC PLANNING FOR THE MANAGEMENT OF WASTE ENGLISH SUMMARY

8/4/2015. PHG Energy Means Industrial Grade. Chris Koczaja VP of Engineering and Implementation. Clean Energy Conversion.

Summary Report and Record of Durham College Information Session

ABE 482 Environmental Engineering in Biosystems. September 29 Lecture 11

Treating Waste as a Renewable Source of Energy

GASIFICATION THE WASTE-TO-ENERGY SOLUTION SYNGAS WASTE STEAM CONSUMER PRODUCTS TRANSPORTATION FUELS HYDROGEN FOR OIL REFINING FERTILIZERS CHEMICALS

Which Technologies. for SWM Treatment? By Eng. Anis ISMAIL Senior Environment and Solid Waste Specialist

WHY WASTE TO ENERGY (WTE)?

MATERIAL RECYCLING AND BIOLOGICAL WASTE TREATMENT FOR BIOGAS AND NUTRIENT RECOVERY Important parts in a CO2 smart and circular economy

Status of Waste Management and Future Policy Directions for Renewable Energy From Waste and Biomass in Thailand

EMRC Community Forum 18 September 2010

GORE COVER FOR RECYCLING PARKS

In the UK, the most common disposal method is landfill. Incineration, anaerobic digestion and other disposal methods are also used.

Patrick Mathews, General Manager/CAO Salinas Valley Solid Waste Authority. CALIFORNIA BIOMASS COLLABORATIVE 7 TH ANNUAL FORUM May 10 11, 2010

Gasification and Pyrolysis

Chris Koczaja Chief Operating Officer

Converting Waste into Electricity as a Sustainable Source of Energy

OPENING ADDRESS. Jay Stanford Director, Environment Fleet and Solid Waste City of London

Biosolids to Energy- Stamford, CT

WHAT HAPPENS AFTER 75% RECYCLING GOAL? 2015 HDR, Inc., all rights reserved.

Ayman Elnaas. Biodrying for Mechanical Biological Treatment of mixed municipal solid waste and potential for RDF production.

Assessment of Alternative Waste Management Technologies

The Effects of Organic Waste Diversion on Landfill Gas Generation from U.S. Landfills

WASTE & RECYCLING SERVICES

Submission to the Energy from Waste Technology Inquiry. May 2017

From Rubbish to Resource for South Peace. South Peace Regional Solid Waste and Recycling Master Plan

SOUTHERN ALBERTA ENERGY FROM WASTE ASSOCIATION

Chair of Southern Africa Regional Secretariat of UN-IPLA Programme and IWWG

Waste to Energy Assessment Results and Recommendations. Comox Strathcona Waste Management Select Committee Meeting November 28, 2017

Evolution Of WM Strategy. David Steiner Chief Executive Officer

DATE: July 10, 2018 REPORT NO. PW Chair and Members Committee of the Whole Operations and Administration

Mechanical Biological Treatment (MBT) As A Strategy For Zero Waste To Landfills. Gershman, Brickner & Bratton Inc. 1. Outline

Exploring the Feasibility of Biosolids to Energy

Biodegradable Municipal Waste Landfill Ban

Waste. Solid Waste Management

Long Term Waste Management Strategy Terms of Reference

EfW Outputs. Guidance on the management of energy outputs and residues including air pollution control residues and incinerator bottom ash

Incineration (energy recovery through complete oxidation) Mass Burn Refuse Derived Fuel Pyrolysis Gasification

Waste to Energy Plan. MSW, Biomass, Medical Waste, and Toxic Waste RBC Group BV Hofstede 47 Lienden Holland Tel :

Department of Environmental Engineering Sciences Engineering School for Sustainable Infrastructure and Environment. University of Florida 2/10/2017 1

Different Solutions for Different Situations

A new action plan for food recycling

NATIONAL WASTE STREAM PROFILES

NEW TECHNOLOGIES FOR WASTE PROCESSING - CONVERSION. NEWMOA Solid Waste Program Staff Workshop May 11, 2017

PLASMA ARC THE LEADING LIGHT?

Sustainability Guide. for. Energy from Waste (EfW) Projects and Proposals

GBB Quality Value Ethics Results

Introduction. Klean Industries is committed to providing commercially viable, environmentally sound waste recycling technologies and systems.

Gasification of Municipal Wastewater Primary Sieved Solids in a Rotary Drum Reactor

No Compromise on Quality is Critical to Solid Recovered Fuel Production in Cyprus

Municipal waste management in Luxembourg

Certified Waste Management Professional VS-1208

Protocols for the Evaluation of BMW sent to Landfill by Pre-treatment Facilities. Presentation to EPA Waste Workshop 2009

Waste Strategy for Herefordshire and Worcestershire: A Review

RDF: Alternative Fuel tailor-made from Waste

WASTE IS VALUE SUSTAINABLE WASTE AND RESOURCE MANAGEMENT IN DENMARK

WASTE IS VALUE SUSTAINABLE WASTE AND RESOURCE MANAGEMENT IN DENMARK

Municipal waste management in Slovenia

June 5, 2013 Waste to Energy Deals in the U.S.

Extended Producer Responsibility (EPR) of Treated Timber Waste in New Zealand. Simon Love - SCION

Waste management options and climate change - the case of biowaste

Greatmoor Energy from Waste Facility. Carbon Footprint Assessment

Solid Waste to Energy

Pyrolysis of residues from well-established biochemical processes for the production of biochar

District heating: learning the hard way. Neil James Environmental Research Institute, UHI

NEW YORK STATE: WASTEWATER DIGESTER POTENTIAL. June 6, 2016 George Bevington

Problem Statements. Past and on Going Efforts

SUSTAINABLE INNOVATIVE SOLUTIONS

Canadian Biogas Metrics Study: Quantifying the Economic, Environmental and Social Benefits of Biogas Energy in Canada

Waste 2006 Conference Coffs Harbour March 2006

HOW PYROLYSIS WASTE TO ENERGY WORKS

From: ASSESSMENT OF WASTE REDUCTION AND RECOVERY TECHNOLOGIES TECHNICAL MEMORANDUM 6: SUMMARY OF FINDINGS FROM TECHNICAL MEMORANDA 1 5

Pyrolysis is the thermal degradation of residual municipal waste in the absence of air to produce a solid fraction and syngas.

The Role of Waste-to-Energy in Sustainable Waste Management

Waste Management Planning Steering Committee. Alternative Waste Management Technologies Update

A waste management planning based on substance flow analysis

Economic Impact of Recycling in Alabama and Opportunities for Growth. Alabama Department of Environmental Management. Land Division Solid Waste Branch

Introduction to Integrated Resource Recovery Center (IRRC) Approach

Overview of municipal solid waste management in India

NO WASTE BY 2010 Graham Mannall A.C.T. NOWaste

Transcription:

APPENDIX I City of Sydney Gasification Project Master Planning Energy from Waste Mark McKenzie Senior Policy Officer Waste Local Government NSW mark.mckenzie@lgnsw.org.au (former Manager Waste Strategy, City of Sydney)

City of Sydney 206,000 residents 40,000 businesses 26 km 2 2

Ambitious GHG targets set in 2009

SUSTAINABLE SYDNEY 2030 RESPONSE Overlay of City waste generation Integrated master plans reinforcing GHG reduction through complementary energy contributions (oh, and water too)

GHG and solid waste environmental impacts integral to solution

6 Municipal (household) Solid Waste collected 2012/13 Garbage = 41,000t Kerbside Recycling = 15,000t Garden Organics = 800t Plus bulky waste, other minor streams Kerbside MSW collection 2-3 bin system

City Annual Waste Municipal (household) 43,000 tonnes Commercial 320,000 tonnes Municipal Operations 6,500 tonnes Municipal waste composition, City of Sydney Paper and Cardboard 25% Plastics 11% Textiles 3% Wood 1% FInes 2% Glass 12% Metals 3% Organics 30% Landfilled 158,000 t Other 13%

Three critical steps that transform choices...

2011 Step 1 Strategy Push for recycling increase Clean up waste stream (lowering hazardous & problem waste) Final strategy awaiting Energy from Waste Master Plan Target to provide a waste solution for all waste types in City 9

Step 2 - Critical characterisation studies

53,000 TONNES Step 3 - Mindset change Precise understanding of feedstock values rather than focus on waste levels e-waste Hazardous Other Oils Vegetation & other Food Paper Calorific fractions MSW 2030 (by weight) Hazardous 0.5% Inert 14.9% Metal Glass C&D Wood Plastics Rubber Leather Textile High Calorific 44.1% Low Calorific 2.4% High Calorific MSW Energy Values Higher Heating Value 17.52 Waste fractions MSW 2030 (by weight) Mid Calorific Mid Calorific 38.1% Low Calorific Inert 4.01 0.70 7.36 Moisture 32% Hazardous 4.01 0 5 10 15 20 MJ/Kg (as received)

Gasification plus upgrade to substitute natural gas

Advanced Waste Treatment Objectives: Cost effective Recovery efficiency first, treatment of residual Minimises the environmental impact of waste disposal Significantly reduce greenhouse gas emissions arising from waste Integrate with other City Energy Master Plans Significantly divert waste from landfill } MAXIMISE RENEWABLE ENERGY CONTENT Capable of handling increasing waste volumes and variability over the longer term Able to treat full material and calorific range of MSW, recycling where feasible Facility sized to treat municipal, commercial and industrial waste

Evaluating Advanced Waste Treatment Options Mechanical-Biological Treatment Bioreactor Landfill Anaerobic Digestion Thermal Combustion (Incineration) Thermal Conversion (Gasification) 14

HIGH LEVEL RISK EVALUATION Initial Assessment Mechanical Biological Treatment Bioreactor Landfill Anaerobic Digestion Grate Incineration Fluidised Bed Incineration Gasification (two stage) Pyrolysis Plasma Arc Gasification Significantly reduces GHG emissions load?? Generates renewable/ non-fossil fuel gas for end use energy supply Waste diversion target 15

Multi-criteria and Life Cycle Analysis

GASIFICATION TECHNOLOGIES REVIEW Five Key Criteria: 1) Commercial Maturity 2) Plant Throughput 3) Feedstock handles MSW 4) Syngas Generation 5) Best Available Emissions Performance 16 technologies available to review 17

Most suitable technology Hi temperature Gasification plus ash melting Hindsight!

PRODUCTS FROM SYNGAS PRODUCTS FROM SYNGAS 19

Low-Temperature Conversion (LTC) High-Temperature Conversion (HTC) High-Temperature Conversion + Melting (HTCM) Renewable Syngas yield, City of Sydney MSW Plasma gasification 0.33 0.50 66% renewable from MSW Fluid-bed gasification + melting 0.29 0.49 Renewable Syngas Total Syngas Pyro-gasification + melting 0.26 0.42 Fluid-bed gasification 0.27 0.45 Pyro-gasification 0.25 0.40 Fixed-bed gasification 0.24 0.37 Pyro-combustion 0.25 0.40 Slow pyrolysis 0.23 0.36 0 0.1 0.2 0.3 0.4 0.5 0.6 PETAJOULES PER YEAR (HHV)

STAKEHOLDER PARTNERS of MASTER PLANNING Regional Municipal Partners for viable levels (~120,000 tonnes per year) Renewable Energy Master Plan identified regional waste levels Regional Strategy developed included Energy from Waste led by City Regional partnering was a weakness, slowly improved Biosolids noted within Renewable Energy Master Plan Strong consideration of both anaerobic digestion & Gasification (with upgrade) to a common gas pipeline feed Sydney Water controls local biosolids & sought partnering at public consultation Biosolids provide excellent renewable energy content in mix with gasification Up to 35% moisture without issues Community Workshops - Social licence to operate

Financial assumptions based on Master Plan analysis Assumptions for indicative costs 100,000 tpy 5 hectare site purchased 35 year life of equipment All construction, licencing and operational costs included Direct capital cost $120 mil Master Plan included additional $10 mil methanation plant Discount rate 9.5% CPI 3% Capital overhaul at 20 years Estimated Gate fee cost to City of $A242 per tonne NPV (2013 figures)

Estimates from financial analysis CAPITAL COSTS Land - $A35 million Facility - $A120 million + $A35 mil overhaul in Year 20 Engineering, licences, contingency - $A30 million OPERATING COSTS (inc landfill residual) ~ $A12 million per year REVENUES Commercial gate fees (inc regional partners) Large-scale generation certificates Direct energy sales Avoided disposal/treatment costs TOTAL~ $A28 million per year (rising) Positive financial return after year 9 for a zero net result at end of life

Planning for Implementing 1. IMPLEMENTATION RISK ASSESSMENT 2. SITE ACQUISITION STRATEGY 3. REVIEW of REGULATORY IMPACTS 4. PLANNING APPROVALS REPORT 5. COMMUNITY and STAKEHOLDER ENGAGEMENT PLAN 6. PROCUREMENT PLAN and CONTRACTING MODEL 7. FINANCIAL PLAN (and Budget) 8. CONTINGENCY PLAN (& exit strategy) 9. TIMETABLE 10. COMMITMENT

Challenges that could prove fatal Changes in critical staff Political cycle & council futures Competing priorities at critical junctures Challenging Regulatory context changing policy basis for both EfW and GHG PLUS the City took a very very cutting edge technical approach and therefore a hard sell

Thank you