GTI forward on sco 2 Power Supercritical Transformational Electric Power project

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GTI forward on sco 2 Power Supercritical Transformational Electric Power project Vann Bush Managing Director, Energy Supply & Conversion 27 March 2018 sco 2 Power Symposium Pittsburgh, PA

Working With Industry and Governments to Increase Access to Abundant, Affordable, and Acceptable Energy FOR A BETTER ENVIRONMENT AND A BETTER ECONOMY World-class piloting facilities headquartered in Chicago area GTI 2018 2

GTI Completed sco 2 Projects 1. Applicability and system performance/benefit studies for large-scale nuclear (LMR), solar (CSP) and fossil applications 2. Oxy-fired natural gas combustor and turbo-expander for combustion product gas with recycled CO 2 reference plant study of performance and LCOE assessment (direct-fired and cooled-turbine) 3. Costs and technology roadmap for recuperators 4. Advanced turbomachinery for indirect (T<760C) and direct (T>760C) sco 2 power cycles 5. Oxy-fired pressurized fluidized bed combustor reference plant study of performance and LCOE (indirect-fired, un-cooled turbine) GTI 2018 3

Versatile Technology - Broad Applicability Concentrating Solar Fossil Fuel Geothermal Nuclear Ship-board Propulsion Waste Heat Recovery GTI 2018 4

Promise of sco 2 Power Cycles Heat-to-power conversion cycles with supercritical CO 2 working fluid promise several advantages Heat source flexibility Higher efficiencies Compact turbo-machinery Economic scalability Lower emissions & water consumption Facilitates and economizes low-carbon power production Temperature ( o C) 700 600 500 400 300 200 ORC sco 2 STEAM GTI 2018 5

Challenges of Advanced sco 2 Power Cycles Technology and process development to confirm advantages Materials: corrosion, creep, fatigue Turbomachinery: life, aero performance, seals Recuperators: design, size, fabrication, durability Cycle operability: startup, transients, load following GTI 2018 6

Supercritical Transformational Electric Power (STEP) Program Scope: Design, construct, commission, and operate a 10 MWe sco 2 Pilot Plant Test Facility Goal: Advance state of the art for high temperature sco 2 power cycle performance from Proof of Concept (TRL3) to System Prototype validated in an operational system (TRL7) Team: Schedule: Cost: Gas Technology Institute (GTI) Southwest Research Institute (SwRI ) General Electric Global Research (GE-GR) Three budget phases over six years (2016-2022) $113MM Total / $80MM Federal Funding Building a flexible platform for long-term use to validate component performance, quantify cycle efficiency, and study plant operability in an integrated, grid-connected system. GTI 2018 7

STEP Program Objectives Demonstrate pathway to RCBC cycle efficiency > 50% Demonstrate cycle operability up to 700 C turbine inlet temperature and 10 MWe net power generation Quantify performance benefits: 2-5% point net plant efficiency improvement 3-4% reduction in LCOE Reduced emissions, fuel, and water usage Reconfigurable facility to accommodate future testing Pilot Site: SwRI in San Antonio, TX GTI 2018 8

STEP Project Plan Budget Period 1 ends Oct 2018 Detailed Facility and Equipment Design 25 months System analysis, P&IDs, Component Specs Design major equipment Procure heat source, cooling tower & longlead items Materials & seal tests Start site construction Budget Period 2 ends January 2021 Fabrication and Construction 27 months Complete site construction and civil works Fabrication & installation of major equipment Commissioning and simple cycle test Budget Period 3 ends September 2022 Facility Operation and Testing 20 months Facility reconfiguration Test recompression cycle GTI 2018 9

Transitioning from Component and Cycle Design to Integrated System Demonstration Individual Cycle and Component Development Efforts Natural Gas Combustion Products 90 kg/s 850º C Blower CO 2 700º C HT Generator GB Turbine Power for Compres sor Load HT Motors Bank Recup LT Recup Stack Electric Motor Cooler Comp Comp Electric Motor Cooling Water Integrated Pilot Scale System Demonstration GTI 2018 10

Flexible Test Facility Designed with Alternate Indirect Cycle Configurations Natural Gas Natural Gas Combustion Products 90 kg/s 550º C Stack Combustion Products 90 kg/s 850º C Stack Blower CO 2 500º C Blower CO 2 700º C Power for Pump Motor Generator Load Bank GB HT Turbine HT Recup Electric Motor Cooler Comp Power for Compressor Motors Generator Load Bank GB HT Turbine HT Recup LT Recup Electric Motor Cooler Comp Cooling Water Cooling Water Comp Electric Motor Simple Cycle Shortest time to initial data Controls & safety Component performance Steady & transient cycle data Recompression Cycle Inventory management Starting transients Parallel compressor control SOA component efficiencies Cycle efficiency > 50% GTI 2018 11

STEP Current Status: Turbine Turbine improvements over SunShot Increased casing and rotor life, 100,000 hrs vs 20,000 hrs Increase bolt retightening schedule to 30,000 hr vs 1,000 hrs Design for couplings on both shaft ends Improved aero performance with increased volute flow area Current design activities Torsional train dynamics Rotor flowpath preliminary design Flowpath mechanical and aeromechanical integrity GTI 2018 12

STEP Current Status: Recuperators Evaluating replies to RFQ from several suppliers Alternate compact technologies heat transfer surface vs. volume STEP is a significant scale-up Evaluating performance vs. cost and plant integration GTI 2018 13

STEP Current Status: Other Major Components > Finalizing selections Compressor Cooling Tower Process Heater GTI 2018 14

STEP Current Status: Facility and Site General arrangement defined EA ready for public review Building design being finalized Major BOP hardware specifications in progress Ground breaking in 2018 GTI 2018 15

Summary sco 2 power cycles promise substantial cost and emissions benefits Applicable to coal, natural gas, solar, geothermal, nuclear, waste heat STEP 10MW e program well underway groundbreaking at SwRI site this year Strong team in place and executing smoothly Additional partners welcome GTI 2018 16

sco 2 Step-by-Step Commercialization Phase I 2015-2016 Phase II 2016 2022 Phase III 2022 2027 Phase IV 2025 2030 System Definition and Materials Compatibility (TRL 2-3) Perform trades Define reference system Select/validate materials suitable for use in SCO 2 Component Tests and Small Pilot Plant (TRL 7) Demonstrates: Compressor performance Seal operation Component Life System Operation and Control Large Pilot / Demo Plant (TRL 7-8) Demonstrates: Operation at scale Component life Operating parameters Maintenance approaches Commercial Demonstration 5+ years (TRL 9) Validates: Heat source integration System efficiency Capital costs O&M costs 10-20MWe 50-100MWe 275+ MWe Early product off-ramp for 10-20 MWe distributed power generation systems GTI 2018 17

Turning Raw Technology into Practical Solutions www.gastechnology.org vann.bush@gastechnology GTI 2018 18

Turning Raw Technology into Practical Solutions www.gastechnology.org vann.bush@gastechnology.org GTI 2018 19