Becoming a Net Energy Producer with Surplus Power to Sell

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Transcription:

Becoming a Net Energy Producer with Surplus Power to Sell May 12, 2015 John Hake Resource Recovery Supervisor

Presentation Overview Setting the Baseline Surplus Capacity Provides Opportunity The Vision Resource Recovery Program Surplus Power Sales 2

Background: Baseline Power Baseline Power Usage 4 to 5 MW Energy-intensive uses: Pure oxygen production (HPOAS) Secondary mixing Influent power pumping Baseline Power Generation (prior to 2002) 2.4 MW (from municipal sludges only) Three 2.2 MW engine-generators (1985) Most electricity used on site 3

Background: Plant Capacity EBMUD has excess digester capacity Planned acceptance: waste from 20 canneries in the service area Remaining canneries in service area: None Capacity:168 million gallons/day Average influent flow: 60 million gallons/day 4

Opportunities Use Underutilized Assets Excess digestion capacity Reduce Operational Costs More heat + electricity = lower utility bills Generate Revenue Tip Fees Surplus Power Sales Reduce Carbon Footprint EBMUD was one of largest users of purchased electricity in Alameda County

Green Factory Concept (started circa 2002)

Diversifying Benefits from Public Wastewater Treatment Infrastructure Energy Generation 7

Surplus Power Generation How does EBMUD generate a renewable energy surplus?

Resource Recovery Program: Materials Accepted http://www.ebmud.com/water-and-wastewater/wastewater-treatment/resourcerecovery-trucked-waste-program Septage FOG Process Water Grey Water Sludge Liquid Organics Solid Organics (food waste)

Solid/Liquid Waste Receiving Facility 10

Materials Portfolio 63% Low Strength Waste 37% High Strength Waste 48% Food Processing and Sludge 21% Protein 31% FOG R2 Waste Streams by Volume High Strength Waste by Volume 11

Material Acceptance Procedure EBMUD follows a rigorous procedure designed to: Protect wastewater treatment plant personnel Meet operational needs, including: Process considerations Odors Biological systems Ensure compliance with all environmental permits and regulations (NPDES, air, biosolids, and pretreatment)

Materials Acceptance Steps 1. Material characterization 2. Material evaluation 3. Permitting 4. Load and material tracking 5. Site orientation 6. First load confirmation sample 7. Field audit program

Current R2 Program Status 250 customers 30 material sub-types 100 trucks per typical day 3-4 MW generated continuously from trucked-in high-strength materials

Environmental Benefits of Resource Recovery Program High quality local treatment Productive use of food scraps which otherwise produce methane gas emissions and leachate at landfills Acceptance also of high-salinity materials Renewable power generation

Power Production Trend 16

Turbine Project Benefits WASTE BIOGAS ELECTRICITY Supports District s strategic goal of maximizing renewable energy sources and reducing greenhouse gas emissions Utilize excess biogas and eliminate flaring Become net energy producer + sell excess green energy Increases electrical power reliability 17

Expanded Facility 11 MW Capacity New Turbine Facility (4.5 MW) Existing Engines (6.5 MW) 18

Gas Turbine Recuperator Generator Solar Turbines Mercury 50 Recuperated Gas Turbine Turbine/Combustor Compressor 19

Gas Conditioning System System is designed to reduce or remove: Chiller Siloxanes Blower/ Dryer Skid Activated Carbon Water vapor 20

Sale of Power to Port of Oakland Under old PPA with PG&E EBMUD was not being paid for Renewable Energy Credits (RECs) In 2011 surveyed potential renewable energy buyers Selected Port of Oakland and negotiated a PPA 5 year term (2012-2017) Fixed price for power and REC Local generation used locally

Renewable Energy Generation 22

Future Growth: Food Scraps High energy potential Significant fraction of disposed solid waste Diversion from landfill through digestion Digestion may be the highest and best use of food residuals 1 truck/day will power 260 homes 23

Program Challenges Processing Stability Contaminants Odor Truck Traffic Freeway access Internal plant safety Changes in neighboring land uses Energy Production Scheduling Conditioning Flaring 24

Key Achievements Shift from being a large user of purchased electricity to being a net energy producer Diversion of wastes from landfills and associated GHG emissions reduction Sale of surplus power to neighboring public agency local benefits

Questions? Contact: John Hake at 510-287-1542 jhake@ebmud.com 26