HiPerCap WP4. Methodology for Benchmarking. Jock Brown, Gerben Jans, Tore Myhrvold 18 November 2015 OIL & GAS. Ungraded

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1 OIL & GAS HiPerCap WP4 Methodology for Benchmarking Jock Brown, Gerben Jans, Tore Myhrvold 1 SAFER, SMARTER, GREENER

2 What is benchmarking? 2

3 One of the first Benchmarks The origin of the term bench mark, or benchmark, Chiselled horizontal marks made by surveyors in stone structures, Used to place an angle-iron in to form a bench for a levelling rod So this levelling rod could be replaced on the exact same level Source: Wikipedia Source: 3

4 Goal of benchmarking Two types of goals 1. Metrics Benchmarking (to determine (relative) position in own sector) Learn were you are, compared to others Source: 2. Activity Benchmarking (find & implement Best Practices ) According to the European Benchmarking Code of conduct Benchmarking is about the process of identifying and learning from best practices in other organizations Benchmarking is about learning 4

5 Example results Power plant maintenance performance 20.0% 5% Plant A 16.0% 4% Plant B 12.0% 3% Plant C 8.0% 4.0% 0.0% KPI-8 POF 2% 1% 0% KPI-9 FOF Peer group (median) Peer group (top 25%) POF = Planned Outage Factor FOF = Forced Outage Factor 5

6 HiPerCap 6

7 HiPerCap Objectives 1. To develop high-potential novel and environmentally benign technologies and processes for post-combustion CO 2 capture leading to real breakthroughs. 2. To achieve 25% reduction in efficiency penalty compared to a demonstrated state-of-the-art capture process 3. Deliver proof of concept for technologies 4. Develop a fair methodology for comparing capture technologies 5. Develop technology roadmaps for the two most promising technologies 7

8 HiPerCap Project 8

9 Assessment Methodology 9

10 The Final Assessment Ultimately the impact of CCS on the COST of the product produced will be how future CCS investment decisions are made 10

11 Scope of the assessment Scope 5 Treated flue gas Overall comparison Coal Cooling Water Reference Power Plant (modified) flue gas steam condensate Pretreatment treated flue gas Capture Process Capture technology Conditioning Compression Captured CO 2 Power (kwe) On level of key indicators the following performance can be determined: Indicator Energy Reference Coal fired power plant Indicator Environmental Coal Reference Power Plant flue gas Indicator Cost Power (kwe) Cooling Water 11

12 Reference Coal Fired Power Plant and State of the Art Capture 12

13 Reference Coal fired Power Plant Updated EBTF Case 820MW Advanced supercritical (ASC) pulverised coal (approx. 600 C/280 bar) 13

14 State of the Art Capture Technology Criteria Technology needs to be installed on coal power plant Full set of data and details need to be publicly available The largest available reference should be used CESAR 1 case To stack Cooler CO2 to compression Wash section Wash liquid Pump Cooler Condenser Cooler Stripper Make-up DCC Lean-rich heat exchanger Condenser pump Blow-down Absorber DCC Pump Reboiler Flue gas Blower Rich solvent pump Lean solvent pump 15

15 Energy KPI 16

16 Background Objective: Show that capture processes have reached goal of a reduction in energy penalty by 25% compared to current state of the art technology. Boundary conditions Minimal capture rate 85% What to benchmark Impact of capture processes on the reference power plant output 17

17 Preferred energy KPI Specific energy penalty of avoided CO 2 (SEPAC) [MJ e /kg CO 2 ] SSSSSSSSSS = PP rrrrrr PP φφ CCOO22,rrrrrr φφ CCOO22 P = net electric output of the power plant in MW e φ CO2 = the emitted flow of CO 2 in kkgg CCOO2 /ss 18

18 Uncertainty and Data Quality 19

19 Uncertainty Two types of uncertainty: Parameter Uncertainty Uncertainty in experimental measurements made Model Uncertainty Uncertainty related to assumptions in model and physics behind the models Want to understand which assumptions the model is most sensitive to Aim to reduce the influence of assumptions made 20

20 Uncertainty A double edged sword Upper limit Lifetime Probability Density Distribution Compliance with target Service Performance Life Target Acceptance Percentile Lower limit Concept Design Prototype manufacturing Testing Qualification phases Pilot 22

21 Jock Brown SAFER, SMARTER, GREENER 23