Member State Perspectives PROMOTING HIGH- EFFICIENCY LOW-EMISSION COAL POWER PLANTS JAPAN

Similar documents
- The Osaki CoolGen Project -

J-POWER s CCT Activities

The Progress of Osaki CoolGen Project

Development status of the EAGLE Gasification Pilot Plant

SOME ENERGY-EFFICIENT TECHNOLOGIES IN JAPAN

COAL WATER SLURRY FUEL Alternate Fuel for Thailand

Japanese Policy for Cleaner Coal - Towards Zero Emission

Advanced Coal Technologies. Laufer Energy Symposium. Dianna Tickner Peabody Energy April 5, 2013

Kazushige KUROSAWA*, Zhibao ZHANG**, and Zhengbing WANG** [Delivered Products & Systems] 1. Introduction. 2. Overview of Nanjing

Pre-Combustion Technology for Coal-fired Power Plants

Economic Assessment of Deploying Advanced Coal Power Technologies in the Chinese Context

Framework of Strengthened Bilateral Mechanism for Low-carbon Technology Transfer

Canadian Clean Power Coalition: Clean Coal-Fired Power Plant Technology To Address Climate Change Concerns

Control of pollutants in flue gases and fuel gases

Application of CFB (Circulating Fluidized Bed) to Sewage Sludge Incinerator

Refuse-to-Energy Facility

Experiences from Commissioning and Test Operation of Vattenfall s Oxyfuel Pilot Plant

Development of the Highly Durable COS Hydrolysis Catalyst for IGCC Gas Clean-up System

SCR for NO x Control in Coal-fired Power Plants

Progress in NAKOSO 250 MW Air-Blown IGCC Demonstration Project

DEVELOPMENT OF HITACHI OXY-COMBUSTION TECHNOLOGY WITH NEW TYPES OF BURNER AND FLUE GAS RE-CIRCULATION SYSTEM

IEA Clean Coal Centre.

Abstract Process Economics Program Report 180B CARBON CAPTURE FROM COAL FIRED POWER GENERATION (DECEMBER 2008 REPUBLISHED MARCH 2009)

Lünen State-of-the-Art 813MW Coal-Fired USC Boiler with High Efficiency and Flexibility

The Future of Coal Ash

WESTINGHOUSE PLASMA GASIFICATION. Hazardous Waste Management

S THERMAL OXIDIZER SOLUTIONS TO MEET TOMORROW S CHALLENGES

COAL-FIRED POWER PLANT PLANNING ASSUMPTIONS

Callidus Oxidizer Systems. Thermal and Catalytic Oxidizer Systems

IEA ENERGY TECHNOLOGY DAY Coal Fired Power and Efficiency

ENVIRONMENTAL FACTORS

Air Emissions Permitting Considerations for an Integrated Gasification Combined Cycle (IGCC) Unit Potentially Located in the State of Delaware

Customized Solutions for Environmental Compliance. Combining proven experience, technology and reliable performance for our customers

Air Separation Unit for Oxy-Coal Combustion Systems

The Cost of CO 2 Capture and Storage

SUPERCRITICAL COAL FIRED POWER PLANT

Status and Outlook for CO 2 Capture Systems

Advanced Coal Technology 101

Innovative Zero-emission Coal Gasification Power Generation Project

Current Status and Perspective of Research and Development on Coal Utilization Technology in Japan

GE Energy. Advancements in Gasification Technology Allan Connolly, General Manager of Gasification Technology October 12, 2005

Cost and Performance Baseline for Fossil Energy Plants

GE solutions for NOx compliance and increased availability for WtE / Biomass plants

Introduction: Thermal treatment

Research & Development and Its Application of Circulating Fluidized Bed Boiler Technology in China

COAL, OIL SHALE, NATURAL BITUMEN, HEAVY OIL AND PEAT Vol. II -Environmental Impacts of Oil Shale and Pollution Control Technologies - J. Q.

FINE PARTICULATE COLLECTION USING DRY ELECTROSTATIC PRECIPITATORS

Results and estimations of the 5,000 Hour Durability Test at the Nakoso Air Blown IGCC plant (including other activities)

13 th February, 2015 Yasushi Yasui

Introduction of TIGAR and research activities related to Polish coals

Questionnaire (Conventional Energy)

CO 2 Capture and Storage: Options and Challenges for the Cement Industry

Three years operational experiences with the Oxyfuel Pilot Plant of Vattenfall in Schwarze Pumpe

Zero emission Energy Recycling Oxidation System. June 2012

Advanced Coal Technologies for Power Generation

Control Options For FPI Boilers to Meet Proposed Boiler MACT Limits

W s a t s e t P o P wer Ge G nera r t a i t on (WPG) G T e T ch c n h ology

TruePeak TDLS200. NH 3 Slip Measurement. <Document Number> Copyright Yokogawa Electric Corporation <date/time>

The Novel Design of an IGCC System with Zero Carbon Emissions

Clean Coal Technology in Japan to contribute in India

Long-Term Policy: Concepts, Methods, Industry Practice

Focus on Gasification in the Western U.S.

Development of Foster Wheeler s Vision 21 Partial Gasification Module

Smart CHP from Biomass and Waste

Refinery Residue Based IGCC Power Plants and Market Potential

Update on ICI Boiler MACT

The Future of IGCC Technology CCPC-EPRI IGCC Roadmap Results

WEF Residuals and Biosolids Conference 2017

Current Trends in Energy-from-Waste

WRITECoal Gasification of Low- Rank Coals for Improved Advanced Clean Coal Gasifier / IGCC Design

Oxy-Coal for Electric Power Generation: Status and Prospects

OF THE. October 2009

New 790-Megawatt Unit. Council Bluffs Energy Center

CLEAN COAL TECHNOLOGY (CCT) II

The Development of. in Hong Kong. Ir. Edward Chow 25 June 2015

WHITE PLUME REMOVAL USING FUEL ADDITIVES IN THERMAL POWER PLANTS

Impact of novel PCC solvents on existing and new Australian coal-fired power plants 1 st PCC Conference, Abu-Dhabi

MIT Carbon Sequestration Forum VII Pathways to Lower Capture Costs

Gasification of Non-Coking Coals

AQCS (Air Quality Control System) for Thermal Power Plants Capable of Responding to Wide Range of Coal Properties and Regulations

State-of-the-Art Technologies for Reliable/ Sustainable Coal Fired Power Plants

COMAR Amendments and Regulation.12 Standards for Biomass Fuel-Burning Equipment Equal to or Greater Than 350,000 Btu/hr

Brazil-Japan cooperation in the Brazilian energy sector

Post Combustion CO 2 Capture Scale Up Study

Emerging Technologies in Emerging Economies with Emphasis on China & India. Jarad Daniels Office of Fossil Energy U.S. Department of Energy

Mercury Oxidation Across SCR Catalyst at LG&E s Trimble County Unit 1

Steam Electric Power Generating Effluent Guidelines Protecting Surface Water from Power Plant Discharges

Adoption of USC CFB Technology to Achieving Lower Cost Generation and Environmental Sustainability. Gerd Heiermann & Douglas Spalding

UPDATE ON THE KEMPER COUNTY IGCC PROJECT Gasification Technologies Conference

HRSGs, Waste Heat Boilers & Aftermarket Services

Cansolv Technologies Inc. Alberta NOx and SOx Control Technologies Symposium April 9, Rick Birnbaum

Fluidized Bed Combustion Ashes of Municipal Solid Waste

Chapter 3 Coal-Based Electricity Generation

Coupling gasification and metallurgical applications

Comparison of a New Warm-Gas Desulfurization Process versus Traditional Scrubbers for a Commercial IGCC Power Plant

Carpet Waste Gasification:

Development of EAF Dust Recycling and Melting Technology Using the Coal-based FASTMELT Process

Westinghouse Plasma Gasification is the Next Generation of Energy from Waste Technology. USEA Annual Meeting May 30, 2013 Washington, DC

Swirl chamber for vitrification of fly ashes

Mercury Measurement and Control

Transcription:

Member State Perspectives PROMOTING HIGH- EFFICIENCY LOW-EMISSION COAL POWER PLANTS JAPAN

CURRENT COAL SITUATION Principles of Policy and Positioning of Coal in the Basic Energy Plan The Cabinet Council decided a new Strategic Energy Plan on April 11, 2014. Coal is reappraised as a base load fuel Enhancement of environmental compliance in coal Clean Coal Technology (1) Principles of the Energy Policy 3E + S Stable supply (Energy security) Cost reduction (Economic Efficiency) Environment Safety (2) Position of Coal Important energy source for the base load power supply Development of high efficiency technology (such as IGCC, etc) METI

COAL POLICY FRAMEWORK Coal will continue to be important part of energy source diversification in Japan. Coal Policy Ensuring sustainable supply of coal resources Promotion of coal utilization technologies Stabilization of energy demand / supply balance. <Acquisition of interests> <Enhancement of relationships with coal producing countries> <Moderation of coal demand/supply through utilization of low rank coal> Development promotion and overseas deployment of clean coal technologies <Efficiency improvement, CO2 reduction, utilization of low rank coal, etc. > <Contribution to CO2 reduction overseas through overseas deployment of clean coal technologies> Policy tools G to G policy dialogues Government supported programs, investment/liability assurance, ODA, yen loan, etc. by JBIC, NEXI Coal Gasification furnace Exhaust heat recovery boiler Gas turbine Steam turbine METI Exhaust gas

CLEANER COAL KEY CHALLENGES Coal Cleaning Washing Clean Coal Technology Environmental Protection Global Warming High Efficiency CO 2 Capture Biomass Co-combustion Low NOx Combustion Flue-gas Treatment PF Combustion Gasification De-SOx De-NOx Dust Removal SC, USC, A-USC IGCC, IGFC CCS

CLEANER COAL KEY CHALLENGES Coal Cleaning Washing Clean Coal Technology Environmental Protection Global Warming High Efficiency CO 2 Capture Biomass Co-combustion Low NOx Combustion Flue-gas Treatment PF Combustion Gasification De-SOx De-NOx Dust Removal SC, USC, A-USC IGCC, IGFC CCS

Coal Cleaning Gravity Concentration Using Dense Medium Coal (Light) 1.5g/cm 3 Mineral (Heavy) 2.5g/cm 3 1.8 g/cm 3 Dense Medium Heavy:>1.8 g/cm 3 M.M.

CLEANER COAL KEY CHALLENGES Coal Cleaning Washing Clean Coal Technology Environmental Protection Global Warming High Efficiency CO 2 Capture Biomass Co-combustion Low NOx Combustion Flue-gas Treatment PF Combustion Gasification De-SOx De-NOx Dust Removal SC, USC, A-USC IGCC, IGFC CCS

CLEANER COAL KEY CHALLENGES Components of Coal and Emissions Component Molecule Content(%) Emission Problems Countermeasures Carbon C 70-75 CO2 Global Warming High efficiency, CCS Hydrogen H2 around 5 Steam None Oxygen O2 around 8 Nitrogen Sulpher Ash Heavy metals N2 S SiO2, Fe2O3, Al2O3, etc. Hg, Cl, F, Cd, Se, Pb, etc. 0.2-3 0.1-5 15-50 Support combustion NOx SOx Fly ash Heavy metals None Problems torespiratory organ Problems torespiratory organ Problems torespiratory organ Health Problems De-NOx(SCR) De-SOx EP, Bag Filter, Cyclone Seperator Activated Carbon, Wet Scrubber

De-NOx Catalyst De-SOx Electrostatic Precipitator

Environmental Protection of Coal Fired Power Station

NOx and SOx emission levels in Power Generation by country Sulfur oxides Nitrogen oxides USA Canada UK France Germany Italy China Japan [Isogo]

World Highest Efficient Coal fired Power Station ---- Isogo No.2 600MW 600/620C USC (Japan) ----

CLEANER COAL KEY CHALLENGES Coal Cleaning Washing Clean Coal Technology Environmental Protection Global Warming High Efficiency CO 2 Capture Biomass Co-combustion Low NOx Combustion Flue-gas Treatment PF Combustion Gasification De-SOx De-NOx Dust Removal SC, USC, A-USC IGCC, IGFC CCS

High-Efficient Coal Fired Power Generation Pulverized Coal (USC) High Steam Temp: 620C IGCC (1500C Class Gas Turbine) Efficiency: HHV Basis IGFC Boiler Steam Turbine Gasifier Gross Efficiency :44% Gas Turbine Gross Efficiency :49% Steam Turbine Gasifier Fue lcel l Gas Turbine Gross Efficiency :60% Steam Turbine Net Efficiency :41 Commercialized Net Efficiency :46 Commercialized Net Efficiency :54 Under Development 14

CCS (CO 2 Injection Point)

Biomass Co-combustion

Amount and Utilization of Ash in Japan ROADBED MATERIAL 14000 Utilization of ash from power stations 100 Amount of ash (Thousand tonnes) 12000 10000 8000 6000 4000 2000 90 80 70 60 50 40 30 20 10 Percent of utilization(%) Total ash Utilized ash Percent of utilization ROADBED MATERIAL FOR ROAD WORK DAM CONCRETE 0 0 JCOAL Data Artificial Reef

AREAS FOR COOPERATION Coal should be used as a main fuel in the future. Non-OECD countries will use much more coal than OECD countries in the future. However, consideration should be paid to reduce air pollution and GHG emission in order to continue using coals. Now, Promotion of Clean Coal Technology is essential. Japan develops promotion and overseas deployment of clean coal technologies introduced here.

Thank you.