avr - co2 capture and liquefaction

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AVR - CO2 CAPTURE AND LIQUEFACTION Juliana Monteiro, Purvil Khakharia, Joris Koornneef This project is supported with Topsector Energiesubsidies of the Ministry of Economic Affairs

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AVR - CO2 CAPTURE ANDLIQUEFACTIONJuliana Monteiro, Purvil Khakharia, Joris Koornneef

This project is supported with Topsector Energiesubsidies of the Ministry of Economic Affairs

BIO-CCUS PROJECTS

AVR Duiven

Feasibility study for CO2 capture from waste toenergy plant

50,000 tCO2/yr

Delivery of CO2 captured to horticulture by truck

Bio-CCUS in the Netherlands

SETTING THE SCENE

Waste to energy plant AVR DuivenMain supplier of district heating network70 MWthWaste (54% bio / sustainable)Paper pulp residu (100% sustainable)Electricity to grid: 125 GWhHeat to grid: 880 TJ (14.000 households)

27 April 20163 | AVR - CO2 capture and liquefaction

SETTING THE SCENE

Approximately 0.2 Mtonnes of fossil CO2 / yearAim to recover 50,000 tCO2/yrSupply the gas to horticulture in the regionalmarketUpscaling towards 2030Improving overall footprint significantly

0

50

100

150

200

250

Waste to energy Paper pulp to energy

ktC

O2/jr

CO2-Footprint AVR

Bio Fossil

SETTING THE SCENE

0%

5%

10%

15%

20%

25%

j f m a m j j a s o n d

Seasons CO2 & Heat

Temperatuur / CO2-vraag

Warmtevraag / Gasverbruik

CO2 emissions

CO2 shortage

CO2 demand and temperatureCO2 demand and temperature

CO2 emissions and heat demand

Horticulture: local combined heat-and-power stations not economical toproduce CO2 for growth enhancementthemselves,CO2 and costs are saved.External CO2 supply enableshorticulture to make a shift towardsrenewable energy use for heating,

PHASED APPROACH

27 April 20166 | AVR - CO2 capture and liquefaction

PHASE 1 CONCEPTUAL DESIGN

WP 1 User requirements D01. User Requirements Report

WP 2 Conceptual process design• Technology Selection• Process Flow Diagram• Integrated design• Technical/economic evaluation• Implementation roadmap, Risk identification and reporting

D02. Conceptual Design Report includinginitial Development Plan

PHASE 2 SMALL SCALE TEST

WP 3 Small scale test and validation D03. Test and validation ReportTest results include measurements onsolvent degradation, emissions and CO2-quality.

WP 4 Final reporting – including development plan D04. Final report - updated D02 reportincluding development plan

SOME FIRST INSIGTHS

CO2 CAPTURE AND LIQUEFACTION

8 | AVR - CO2 capture and liquefaction 27 April 2016

98%CO2

99,9+%CO2

FLUE GAS

102 000 Nm3/h10% CO2 (dry basis) = 7,6% CO2 (wet basis)Design basis: capture 12 ton/h (full load = 78% capture)

Flex: Operate at 50% and 80% load + Determine maximum throughput

27 April 20169 | AVR - CO2 capture and liquefaction

15,3 ton/h CO2Capture unit78% capture 12 ton/h CO2

Off gas to stack

102 000 Nm3/h Quench unit

15,3 ton/h CO2

water

FLUE GAS CONDITIONING AND CO2 CAPTURE

Blower Quench

• Cooling water

Absorber

• Offgas towater wash

Stripper Distillationand flash

• CO2 toliquefaction

27 April 201610 | AVR - CO2 capture and liquefaction

Flue gas:• Too hot• Not enough pressure

SUMMARY – INDICATIVE NUMBERS

11 | AVR - CO2 capture and liquefaction 27 April 2016

Flue gas conditioning + CO2 capture

Utilities and consumables :Electricity = 17-21 kWh/ton CO2

Cooling water = ~1500-2500 m3/hSteam = 3-4 GJ/ton CO2

MEA to be determined

CAPEX: to be determined

CO2 LIQUEFACTION PLANT

12 | AVR - CO2 capture and liquefaction 27 April 2016

Water scrubber

Compressors

Dehumidifier

Carbon filters

Condenser

Storage tanks

CO2Truck loading

station

NEXT STEPS

TNO MOBILE PILOT PLANT THIS SUMMER

27 April 201614 | AVR - CO2 capture and liquefaction

FINAL REPORTSEPTEMBER 2016

QUESTIONS?

Bio-CCUS in the Netherlands