Integrated Resource Recovery Center Approach of Solid Waste Management and Its Sustainable Development Benefits

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Regional Workshop on Sustainable Development Benefits of Decentralized Municipal Solid Waste Management in Asia-Pacific Region, 30 November 1 December 2017, UNCC, Bangkok, Thailand Integrated Resource Recovery Center Approach of Solid Waste Management and Its Sustainable Development Benefits Presented by: Iftekhar Enayetullah WASTE CONCERN

Presentation Outline I. Current Practice of SWM in Asia and the Pacific Region II. III. IV. Problems From Present Practice of Solid Waste Management What is Waste to IRRC Approach? Opportunities from IRRC Approach V. Sustainable Development Benefits of IRRC Approach VI. Keys Lessons from Implementation of IRRC Approach 2

Context of SWM in Asia: Rapid Urbanization 60% of the global population lives in the Asia and Pacific. Asia is expected to reach 50% urbanization by 2018. Bulk of the Asia s urban population live in small and medium cities. Small and medium cities have limited human, financial and organizational resources Source: State of Asian and Pacific Cities Report, 2015 1950 2050 Urban Population (in thousands) Asia s Growing Urban Population Source: State of Asian and Pacific Cities Report, 2015 Source: State of Asian and Pacific Cities Report, 2015 3

Waste Generation Worldwide and in Asia Pacific Region It is estimated that 5.2 million tons of solid waste are generated daily worldwide, of which 3.8 million tons are from developing countries 5.2 million tons/ day Worldwide 3.8 million tons/ day Developing Countries 60 70% organic Waste Generation Source: ADB, 2011 & World Bank 2012, What a Waste 4

Global Perspective on Urban Solid Waste Characteristics Composition of Raw Waste (by wet weight) Low Income Country Middle Income Country Vegetable/Putrescible % 40 to 85 20 to 65 7 to 55 Paper and Carton % 1 to 10 15 to 40 15 to 50 Plastic % 1 to 11 2 to 13 2 to 20 Metal % 1 to 5 1 to 5 3 to 13 Glass% 1 to 10 1 to 10 4 to 10 Rubber, Misc.% 1 to 3 1 to 5 2 to 12 Fines % (sand, ash, broken, glass) 15 to 50 15 to 40 5 to 20 High Income Country Other Characteristics Moisture % 40 to 80 40 to 60 20 to 35 Density in Trucks, Kg/C.M 250 to 500 170 to 330 120 to 200 Lower Heating Value, K Cal/Kg 800 to 1100 1000 to 1500 1500 to 2700 Source: World Bank ( 2012) What a waste: A Global Review of Solid Waste Management

Turning Challenges to Opportunities The current paradigm focused on end of pipe solution is not sustainable and overlooks the enormous potential of turning waste into resource. The informal sector recovers some valuable materials downstream, but the majority organic waste does not have a chance to be recovered without leveraging appropriate technology and systems. Middle Income countries Low Income countries Metal 4.4% Glass 4.4% Other 15% opportunity Other 11.8 % Metal 5.3 % Glass 6 % opportunity Plastic 11.3 % Paper 13.3 % Organic 51.4 % Plastic 9 % Paper 5.8 % Organic 65 % 6 6

Approach to Waste Management Conventional Approach (End of Pipe Solution) Mixed Waste Approach of IRRC (Resource Management) Source Separated Waste Waste Bins Demountable Containers Transfer Stations House to House Collection House to House Collection Vegetable Markets Collection Transportation Landfill Only10-14% going to landfill site Integrated Resource Recovery Centre (IRRC) Landfill PROBLEMS OPORTUNITIES 7

Integrated Resource Recovery Centers (IRRCs) An Integrated Resource Recovery Center (IRRC) is a facility where a significant portion (80-90%) of waste can be processed in a cost effective way, in proximity to the source of generation, and in a decentralized manner. The IRRC concept is based on 3R principles. It is suitable for small and medium sized towns. 100% Collected with user fee House to house waste collection method 86% RECYCLED Biogas 80% Compost Agriculture Energy Waste Collection IRRC RDF Energy 6 10% Recyclables 10 14% Non compostable Local market Landfilled GHG Reduced CER 8

ESCAP IRRC cities in 6 countries

Integrated Resource Recovery Centres (IRRCs) Based on 3R principles Recovers 80 percent of waste as resources Promote separation at source (organic/inorganic) Decentralized, close to generated waste Capacity can range from 2 20 tons/day (manual) Uses appropriate technologies Employs waste pickers and other urban poor Reduces GHG emissions 10

Different Scale of IRRC Model Large & Regional Scale More than 21 ton/day upto 250 ton/day Medium Scale 3 to 20 tons/day Small Scale Upto 3 tons/day The flexibility of Waste Concern s IRRC model is such that it can be adapted to any situation both in urban and rural areas. Moreover, it can be implemented in slum areas. It can be implemented on a small scale, medium scale, or large scale. The small scale model allows for 3 tons of organic waste to be processed daily, while the medium scale model permits processing 3 to 20 tons of organic waste per day. More than 21 tons of organic waste can be processed daily using the large scale model. Apart from Production of Compost/Biogas/RDF this model is reducing Green House Gas

Recycling Technique Used in IRRC Approach Input Sources of Waste Process Organic Waste Organic Waste Fish & Meat Waste Recyclables Used Cooking Oil Waste with high Calorific Value Faecal Sludge Sorting Grinding Sorted Collecting Sorting Drying Composting Mixing Shredding Filtering Shredded Composting Maturing Digesting Compacting Processing Extruded Maturing Screening Baling Screening Bagging Testing Product Aerobic composting Anaerobic digestion Recyclables Biodiesel Refuse derived fuel Co composting Compost Biogas Slurry Plastic Paper, Glass Biofuel Glycerol Refuse Derived Fuel Compost Electricity Compost 12

Organic Waste Landfill Methane (CH4) Emission Baseline situation (organic waste dumped in landfill sites becomes anaerobic and generates methane) Organic Waste Baseline Situation vs. IRRC model Input Technology Produce No Methane Emission Composting (Aerobic Process) Compost (Diverted organic waste from landfill and replacing use of chemical fertilizer ) Climate Change Benefits Generates Carbon Credits by avoiding methane from Landfill and reduce CO2 to produce chemical fertilizer Organic Waste Organic Waste (noncompostables) Human Excreta Organic Waste Biogas Plant (Anaerobic Digestion) Refused Derived Fuel (RDF) Co composting (Aerobic Process) Biogas to Electricity (replacing fossil fuel based electricity) Fuel in Pellet form (replacing diesel or coal used in boilers or brick kilns) Compost (Diverted organic waste from landfill and replacing use of chemical fertilizer) Avoids methane from landfill and reduces CO2 emission by replacing grid power Avoids methane from landfill and reduces CO2 emission by replacing grid power Generates Carbon Credits by avoiding methane from Landfill and reduce CO2 to produce chemical fertilizer Used Cooking Oil Bio diesel Plant Bio diesel (replacing diesel as fossil fuel) IRRC model converts waste into resource and reducing green house gas methane (CH4) Replace use of fossil fuel

Different Economic Outputs from IRRC 1 ton Organic Waste Composting Produce1/4 ton (0.25 tons of Compost) 1 ton Organic Waste Composting Reduce 1/2 ton Green House Gas 1 ton Organic Waste Biogas Digester Produce 20 50 M3 Biogas Produce 24 60 kwhr Electricity 1 liter Used Cooking Oil Bio diesel Plant 95% of the input as Bio diesel & Glycerine 1 ton Inorganic Waste (high calorific value) Refuse Derived Fuel 95% of the input Refused Derived Fuel (RDF)

Growth of IRRC Composting + Inorganic Waste Recycling Composting + Inorganic Waste Recycling + Carbon Emission Trading + Biogas +Bio diesel + Faecal Sludge Management using cocomposting, Coco peat filter +Monitizing Sust. Dev. and cobenefits from waste recycling +Biogas to electricity from organic waste and faecal sludge + Regional Integrated Landfill and Recycling Center 1995 2005 2008 2009 2012 2014 2016 Waste Concern Initiated the model of Decentralized Community based composting Initiative in Bangladesh ESCAP started to replicate the model of Waste Concern in Vietnam, Sri Lanka. Replications of this model in cities/ towns of Bangladesh Waste Concern Established Globally first compost plant based on carbon trading in Dhaka, Bangladesh ESCAP in partnership with Waste Concern launched a regional project called Pro-Poor and Sustainable Solid Waste Management in Secondary Cities and Small Towns in Asian-Pacific. ESCAP in partnership with Waste Concern launched a project entitled Co-composting of Municipal Solid Waste and FS for Agriculture in Kushtia city, Bangladesh ESCAP, Waste Concern, South Pole Carbon and the UNFCCC secretariat took the initiative of quantifying and monetizing the cobenefitsof recycling of waste. ESCAP in partnership with Waste Concern initiated co-composting and biogas to electricity general project using organic waste and Faecal sludge in Malang Regency and Jambi city, Indonesia. Asian Development Bank financed a Regional Landfill with Recycling facility having composing, biogas to electricity, faecal sludge recycling, controlled landfill using concept of IRRC

Example of Recycling Training Center in Katchpur, Greater Dhaka Using IRRC Approach Sawdust Bokashi with EM Water Screening residue Collection Sorting Piling Name of the Project: Recycling Training Center (RTC) at Katchpur, Narayanganj, Greater Dhaka (2005) Project Partners: GoB, UNDP, UNESCAP, WASTE CONCERN Land Area: 1440 sq.m Capacity to Manage Waste: Municipal Waste: 10 Tons/day Biogas: 500 kg/day Water Composting Maturing and Compost Screening Bagging Selling Marketing 16

Box Method Composting Used in IRRC/RTC in Dhaka Name of the Project: Recycling Training Center (RTC) at Katchpur, Narayanganj, Greater Dhaka Project Partners: UNESCAP, WASTE CONCERN Land Area: 1440 sq.m Capacity to Manage Waste: Municipal Waste: 10 Tons/day Biogas: 500 kg/day 17

Biogas & Electricity Generation from Organic Waste in IRRC, Dhaka At Recycling Training Center, Katchpur, Greater Dhaka Name of the Project: Recycling Training Center (RTC) at Katchpur, Narayanganj, Greater Dhaka Project Partners: GOB, UNDP, UNESCAP, WASTE CONCERN Land Area: 1440 M2 Capacity to Manage Waste: Municipal Waste: 10 Tons/day Biogas: 500 kg/day Global Dialogue on Technology for Resilient Cities, 17 19 October 2017 18

Anaerobic Digesters Gas flow meter Gas Filter Generator Electricity Name of the Project: Recycling Training Center (RTC) at Katchpur, Narayanganj, Greater Dhaka Project Partners: UNESCAP, WASTE CONCERN Land Area: 1440 sq.m Capacity to Manage Waste: Municipal Waste: 10 Tons/day Biogas: 500 kg/day Types of raw materials used: 1. Kitchen waste 2. Market waste 3. Vegetable waste 4. Slaughterhouse waste 5. Fish market waste 6. Industrial waste Biogas for Cooking Research Conducted in Bangladesh with Municipal Waste Fertilizer 1. Since early 2009, Waste Concern in partnership with UNESCAP initiated biogas initiative from municipal waste Electricity Production From 1 M3= 1.2 Kwt hr Biogas Production: 20 50 M3=1 ton of input 19

Bio Diesel Plant from Used Cooking Oil in IRCC Name of the Project: Recycling Training Center (RTC) at Katchpur, Narayanganj, Greater Dhaka Project Partners: GOB, UNDP, UNESCAP, WASTE CONCERN Land Area: 1440 sq.m Capacity to Manage Waste: Used Cooking Oil Recovery Plant: 400 L/day 20

Co composting of Faecal Sludge with Organic Waste in Kushtia City, Bangladesh Name of the Project: Co Composting of Faecal Sludge with Solid Waste in Kusthia Municipality Project Partners: UNCRD,UNESCAP, WASTE CONCERN, KUSHTIA MUNICIPALITY (2007/2012) Land Area: 4 Acres Capacity to Manage Waste: Municipal Waste 2 3/day Faecal Sludge: 3M3/day Faecal Sludge Collected by Vaccu Tug and Discharged in the Drying Bed and later Co composted with organic waste to Produce Compost 21

Co Composting of Municipal Waste and Faecal Sludge in IRRC Kushtia city, Bangladesh Name of the Project: Co Composting of Faecal Sludge with Solid Waste in Kusthia Municipality Project Partners: UNESCAP, WASTE CONCERN, KUSHTIA MUNICIPALITY Land Area: 4 Acres Capacity to Manage Waste: Municipal Waste: 2 3/day Faecal Sludge: 2 3 M3/day Total amount of municipal solid waste brought to the plant amounts to 2 to 3 tons/ day. Under this project, faecal sludge is directly collected from the septic tanks or pit latrines of households using mechanical vacuum-tugs. Total amount of faecal sludge collected per day is between 2-3 cubic meter/day. The collected sludge is directly sent to the treatment facility. 22

Composting for Medium and Large cities (Large Scale) Name of the Project: Globally First CDM Based Composting Project (capacity 130 tons/day) In Dhaka (2008). Project Partners: WWR Bio Fertilizer Bangladesh, WWR bv., Waste Concern. Land Area: 1.4 Hectare Capacity to Manage Waste: Municipal Waste: 130 Tons/day 23

Composting for Medium and Large cities (Large Scale) Weighing of Waste Screening residue Collection Sorting Piling Name of the Project: Globally First CDM Based Composting Project (capacity 130 tons/day) In Dhaka (2008). Project Partners: WWR Bio Fertilizer Bangladesh, WWR bv., Waste Concern. Land Area: 1.4 Hectare Capacity to Manage Waste: Municipal Waste: 130 Tons/day Composting Maturing and Compost Screening Bagging Composting Marketing 24

Composting & AD Plants (IRRC) Implemented Under Government of Bangladesh Financed the Project Programmatic CDM using organic Wastes of Urban Areas Municipalities) throughout Bangladesh (in 64 Districts): Government used its Climate Change Trust Fund. Rangpur City Corporation Capacity: 16 tons/day Mymensingh Municipality Capacity: 8 tons/day Kishorganj Municipality Capacity: 10 tons/day Narayanganj City Corporation Capacity: 22 tons/day Feni Municipality Capacity: 10 tons/day Cox s Bazar Municipality Capacity: 12 tons/day 25

64 District CDM Project in Waste Sector Through Composting & AD by Department of Environment Incoming Waste Biogas Plant Recyclable Storage Workers Toilet Care Taker Room Screening & Bagging Maturing Box Compost Box Name of the Project: Programmatic CDM using organic Wastes of Urban Areas Municipalities) throughout Bangladesh (in 64 Districts) Project Partners: Department of Environment (DoE) Government of Bangladesh Land Area: Capacity to Manage Waste: Municipal Waste: 22 Tons/day Status: Operated by Private Sector Technical Support: Waste Concern Consultants Office and Storage Sorting Platform Sun Drying Platform Leachate Water Collection Narayanganj Municipality Global Dialogue on Technology for Resilient Cities, 17 19 October 2017 26

64 District CDM Project in Waste Sector Through Composting & AD by Department of Environment Compost Plant at Mymensingh Municipality Name of the Project: Programmatic CDM using organic Wastes of Urban Areas Municipalities) throughout Bangladesh (in 64 Districts) Project Partners: Department of Environment (DoE) Government of Bangladesh Land Area: Capacity to Manage Waste: Municipal Waste: 8 Tons/day Status: Operated by Private Sector Technical Support: Waste Concern Consultants Source Segregation of Waste being Promoted 27

Regional Approach: Integrated Landfill and Resource Recovery Facility for Jessore Name of the Project: Regional Integrated Landfill & Resource Recovery Facility At Jessore Municipality Under City Region Development Project Project Partners: City Region Development Project Implemented by LGED Supported by ADB Consultant: Waste Concern Consultants Land Area: 13 Acres Capacity to Manage Waste: 50 tons/day Municipal Waste: 50 Tons/day Compost plant 20 Ton/day Biogas 20 Ton/ day Faecal Sludge 10M3/day Status: Under Construction to be Operated by Private Sector Estimated Date of Operation: Feb, 2018 28

Regional Approach: Integrated Landfill and Resource Recovery Facility for Pirojpur Town Name of the Project: Coastal Towns Environmental Infrastructure Project Project Partners: City Region Development Project Implemented by LGED Supported by ADB Consultant: Waste Concern Consultant and BORDA Ltd. Land Area: 4 Acres Capacity to Manage Waste: 10 tons/day Municipal Waste: 10 Tons/day Compost Plant: 5 Tons/day Faecal Sludge 5M3/day Status: Under Construction will be operated by private sector. 29

IRRC Replicated In Asia Pacific Countries by UNESCAP with the Technical Support From Waste Concern IRRC in Malang Regency, Indonesia IRRC in Jambi, Indonesia Name of the Project: Proposed Design of 2 TPD Capacity Biogas Plant and 0.75 TPD Capacity Compost Plant at Malang Regency, Indonesia Project Partners: UNESCAP, UCLG, WASTE CONCERN Implemented by : Malang and Jambi City Land Area: Malang (812.11 M2) & Jambi (812.11 M2) Municipal Waste: 2.75 Tons/day Compost Plant: 0.75 tons/day Biogas Plant 2 tons/day Status: Under Construction 30

Environmental, Economic & Social Benefits from IRRCs By recycling one ton of waste: Create 2 new jobs for the waste pickers; Produce 0.25 tons of good quality compost; Produce 40-80 cubic meter of biogas ( clean energy which can be used for cooking purpose or electricity generation) Save 1.1 cubic meter of landfill area; Reduce 0.5 tons of green house gas emissions Provide door-to-door service to 2,000-3,000 households Reduce the risk of 40 diseases linked with unmanaged municipal solid waste; Increase crop production between 25-30% and reduce use of chemical fertilizer by 35-40% increasing food security; Contribute to both climate change mitigation and adaptation. Reduces risk of fire at landfills 31

Social benefits from IRRCs Better job opportunities Improved living conditions Reduced disease Improved environmental awareness

Environmental benefits from IRRCs Reduced pollution Reduced greenhouse gas emissions Improved soil quality Low carbon fuel

Opportunity of Co-benefit The term co-benefits is defined as all the potential developmental benefits of climate change mitigation actions in areas other than GHG mitigation. Reduce 0.5 tons of CO2eq GHG emissions by recycling 1 (one) ton of organic waste Aerobic treatment of waste avoids methane generation GHG Mitigation through Composting of Organic Waste

Potential Co benefits by Reducing 1 (One) Ton of CO2e 2 Tons Organic Waste if Processed into Compost 1 ton CO2eq Reduced Type of Benefit Public and Private Public Private Sector of Benefit Social Sub sector: Employment generation Economic Sub-sector: urban/municipa l Economic Sub sector: agriculture Co-Benefits/ GHG emission reduction Creation of additional income for four waste pickers by working in the compost plan Consideration: 4 jobs created to process 2 tons of organic waste to reduce 1 ton CO2eq Cost saved for the municipality from disposal of waste Consideration:1.1 cubic meter of landfill area per ton of organic waste composted. US$ 23.36 saved by avoiding 2 tons of organic waste to be land filled. Presently USD 11.68/ton spent for (transportation and land filling cost) 25% saving in chemical fertilizer usage by use of compost Consideration: 25% savings in use of chemical fertilizer resulting in savings of Taka 1515/ha. Value of Cobenefits/ GHG emission reduction US $ 7.53 US $ 23.36 US $ 9.71 Public Private and Public Economic Sub-sector: Agriculture Environmental and Economical 25% less subsidy on chemical fertilizer Consideration: At present Government of Bangladesh (GOB) is giving BDT 7793.17/Ton on chemical fertilizer. Increase in crop yield of 0.21 ton per of rice per half ha Consideration: from 2 tons of waste 0.5 ton of compost can be produced US $ 4.13 US $ 49.09 Total value of co-benefits per ton of GHG emission reduction through composting US $ 93.82 35

Value of Co-benefits Generated by Composting Projects in 3 (three) Countries Co benefit Job creation: additional income for waste pickers employed in compost plants Type Social/Economic Public & Private Value (US$) Bangladesh Sri Lanka Viet Nam 7.53 6.00 N/A (*) Cost savings for the municipality for avoided landfilling of waste Economic Public 23.36 57.50 69.70 Savings in chemical fertilizer use (25% reduction) Economic/Environmen tal Private & Public 9.71 2.26 21.09 Savings in subsidy to chemical fertilizers Economic Public 4.13 5.48 N/A (**) Increase in crop yields (***) Economic Private & Public 49.09 43.05 93.42 Total 93.82 114.29 184.21 36

Impact of IRRC GLOBAL LEVEL NATIONAL LEVEL LOCAL LEVEL SDG Goals Paris Agreement (emission reduction target) SDG Goals (8 out of 17 goals) New Urban Agenda (ensure environmental sustainability & resilient urban devt.) NDC IRRC Environmental Benefit Social Benefit Economic Benefit

Issues for Scaling up IRRC Approach Policy/Rules/Strategy Actors Ministry of Agriculture Ministry of Local Govt. Ministry of Urban Dev. Ministry of Environment Ministry of Energy Relevant Ministries Municipalities Activities Promotion of compost/ biogas/ appropriate technologies, RDF Promotion of source separation of waste Standardization products Feed in Tariff/Support to Compost (subsidy) Tipping fee/waste collection fee Land for the Facility PPP Rules Fiscal Incentives Ministry of Finance Central Bank Tax Department Local Banks Low interest rate financing Less/ reduced tax for private sector operator No VAT Green Financing Capacity Building/ Awareness Raising International Agencies Government, Research Institutions (local & international, Educational Institutions International NGOs Local NGOs and CBOs Private Sector Operation & Maintenance of IRRC PPP Agreement Technology Selection Monitoring of Emission Reduction KPI development for IRRC

Way Forward to Sustainable Waste to Resource Solution NATIONAL POLICY LEVEL Changing the Mindset/ Paradigm Shift High lighting Co-benefits Updated Baseline Information Incorporation of 3R (reduce, reuse and recycling) in National Policy, Strategy & Action Plans related to waste Inter Ministry Co-ordination Independent Technical Committee for Technology Choice Incentives for Recycling initiatives Waste Segregated Raw Materials Waste to Resource Facilities Products Source Separation Mass Awareness Informal Sector Public Private Partnership Land Issue Soft Loan, TAX & VAT incentives) Free Delivery of Waste/Fee for collection of Waste by Recyclers. Technology Choice Informal Sector Level Playing Field Proper feed in tariff incentives (i.e., Subsidy in energy and compost) 40

THANK YOU 41

Comparative Financial Aspects of Different Technologies to Manage Waste Indicator Incineration (Thermal) Utilizing 100% use of total generated waste AD* Utilizing 70% use of total generated waste Composting Utilizing 70% use of total generated waste RDF** Utilizing 21.22% use of total generated waste IL&RRF*** Utilizing 100% use of total generated waste CAPEX US$/ton Land Required Hactar/ton 120,000 30,000 60,000 20,000 30,000 60,000 75,000 25,000 175,000 0.5 ha/100 ton 1.5 ha/100 ton 1.1 ha/100 ton 1 ha/100 ton 2.25/100 ha *AD Anaerobic Digestion(Biogas to electricity) **RDF Refuse Derived Fuel *** IL&RRF Integrated Landfill and Resource Recovery Facility

Issues for Scaling up IRRC Apporach National Government Policy Support/ Rules/ Strategies/ Financing Promotes low carbon path Sustainable Development Green Growth Resource Efficiency Local Government Land/ Tipping fees/ Promotion of 3R Projects (IRRC) Intervention: Reducing Emission/ Promoting Sustainable Development/ Improved SWM Reduce Cost of SWM Reduce environmental pollution & risk Cleaner communities Improves soil condition Create job for poor Reduce pollution and improves health situation Ward/ Community Ward/ Community Ward/ Community Ward/ Community IRRC: Integrated Resource Recovery Center SWM: Solid Waste Management