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Energy Innovation in the United States Energy Innovation in the United States Automotive Fuel Cells Applications Automotive Fuel Cells Applications Patrick Davis Fuel Cell Technology Team Leader Office of Hydrogen, Fuel Cells and Infrastructure Technologies Energy Efficiency and Renewable Energy U. S. Department of Energy UN/OECD Workshop on Fuel Cell Innovation September 29-30, 2003 Washington, D.C.

Davis - OECD. · PDF fileEnergy Innovation in the United States ... •Interagency Cooperation ... 3M – MEAs and production techniques 3M

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Energy Innovation in the United StatesEnergy Innovation in the United States

Automotive Fuel Cells ApplicationsAutomotive Fuel Cells Applications

Patrick DavisFuel Cell Technology Team Leader

Office of Hydrogen, Fuel Cells and Infrastructure Technologies

Energy Efficiency and Renewable EnergyU. S. Department of Energy

UN/OECD Workshop on Fuel Cell InnovationSeptember 29-30, 2003

Washington, D.C.

Oil Consumption Increasing:Energy Security and Emissions Issues

0

5

10

15

20

25

1970 1980 1990 2000 2010 2020 2030 2040 2050

-CAFE increases include light trucks

-Beyond 2020, EIA data extrapolated

Million barrels per day

ProjectedActual

Domestic Production

NHTSA Proposal

20% CAFE Increase

(=28.8 mpg)Transportation

Oil Use 40% CAFE Increase

(=33.6 mpg)

60% CAFE Increase

(=38.4 mpg)

Plus ANWR(Ref. EIA SR/O&G/2000-02,

and USGS Report 98-34)

Regulating fuel economy (CAFÉ) and drilling in the Arctic National Wildlife Refuge (ANWR) will help, but will not solve the problem.

VISIONMISSION

PLANNINGGOALS & TECHNICAL TARGETSPARTNERSHIP DEVELOPMENT

R&DTECHNICAL VALIDATION

Attacking the Problem

INDEPENDENT EVALUATION

Hydrogen Fuel Cells and Infrastructure Technologies Program

Mission Statement

The mission of the Hydrogen, Fuel Cells & Infrastructure Technologies Program is to research, develop, and validate fuel cells and hydrogen production, delivery, and storage technologies for transportation and stationary applications.

The Program supports EERE Strategic Goals: • Dramatically reduce dependence on foreign oil

• Promote the use of diverse, domestic, and sustainable energy resources

• Reduce carbon emissions from energy production and consumption• Increase the reliability and efficiency of electricity generation

CODES & STANDARDS

SAFETY

EDUCATION

DELIVERY

FUEL CELLS

STORAGE

PRODUCTIONTECHNOLOGYVALIDATION

CODES & STANDARDS

SYSTEMS INTEGRATION / ANALYSESSAFETY

EDUCATION

RESEARCH & DEVELOPMENT

Economy

Hydrogen, Fuel Cells, and Infrastructure Technologies Program

Hydrogen Storage

DELIVERY

FUEL CELLS

STORAGE

PRODUCTION TECHNOLOGYVALIDATION

CODES & STANDARDS

SYSTEMS INTEGRATION / ANALYSES

SAFETY

EDUCATION

RESEARCH & DEVELOPMENT

Economy

Structure

HFCIT Planning

www.eere.energy.gov/hydrogenandfuelcells

Draft Multi-year Research, Development and Demonstration Plan

•Introduction

•Program Benefits

•Technology Development and Management Approach

•Technical Plan

- Hydrogen Production

- Hydrogen Delivery

- Hydrogen Storage

- Fuel Cells

- Technology Validation

- Codes & Standards

- Safety

- Education

•Systems Integration & Analyses

www.eere.doe.gov/hydrogenandfuelcells

Fuel Cells TechnicalGoals & Objectives

Objectives • Develop a 60% efficient, durable, direct hydrogen fuel cell power system for

transportation at a cost of $45/kW (including hydrogen storage) by 2010. • Develop a 45% efficient reformer-based fuel cell power system for transportation

operating on clean hydrocarbon or alcohol based fuel that meets emissions standards, a start-up time of 30 seconds, and a projected manufactured cost of $45/kW by 2010.

• Develop a distributed generation PEM fuel cell system operating on natural gas or propane that achieves 40% electrical efficiency and 40,000 hours durability at $750/kW by 2010.

• Develop a fuel cell system for consumer electronics with an energy density of 1,000 W-h/L by 2010.

• Develop a fuel cell system for auxiliary power units (1-3kW) with a specific power of 150 W/kg and a power density of 150 W/L by 2010.

Goal : Develop and demonstrate fuel cell power system technologies for transportation, stationary, and portable applications.

Technical Targets: Over 100 Individual Technical Targets Established for the Fuel Cell Sub-Program

Innovation Drivers

• Federal Public Policy– National Energy Policy Act of 1992 – National Energy Policy of 2001– Energy Security – Environmental Benefits

• State’s Public Policy • Government R&D Funding• Regulatory Regimes

– 1990 California ZEV– Codes and Standards

• Markets– Public Benefits– Market Pull

• International Competition

Government Role in Driving Innovation

• Funding High-Risk, Long-Term Research

• Identification of Technical Targets and Barriers Through– Technical Workshops– Industry Partnerships

• Formal Review Process

Budget History

PEM Transportation Fuel Cell Funding$ Million

0

10

20

30

40

50

60

70

1992 1994 1996 1998 2000 2002 2004

2004 budget request

FY 2003 Budget Distribution (Estimated)

National Laboratories

38%

Universities8%

Small Businesses

29%

Large Businesses

25%

Public/Private Partnerships

• Industry-wide– FreedomCAR– Hydrogen Fuel Initiative

• Technical Working Group– High-Temperature Membrane Working Group– Non-Platinum Electrocatalyst Workshop

• Grants, cooperative agreements, and cost-shared contracts– Industry– Universities

• National laboratory partnerships– Crada’s– Work for Others– Intralab projects

Other Partnerships

•Interagency Cooperation•Environmental Protection Agency•Department of Transportation•Department of Defense•Office Science and Technology Policy•Inter-Agency Advanced Power Group

•International cooperation•European Community•International Energy Agency•International Partnership for a Hydrogen Economy•OECD Case Studies

•States•California Fuel Cell Partnership

Fuel Cell Partners

Industrial/University Partnerships

Fuel ProcessingCatalytica – Plate reformerNuvera – STAR fuel processorNuvera – Hi-Q fuel processorU. Of Michigan – MicrochannelUTRC – Hydrogen enhancementOhio State U. – H2 enhancementMcDermott – Autothermal

reformingTexaco Energy Systems –

reforming

Membranes & Electrodes3M – MEAs and production techniques3M – Improved cathodes and high-

temp MEAAtofina Chemicals – Membrane durabilityDeNora/DuPont – Advanced MEAsFuel Cell Energy – High-temp

membranePlug Power – High- temp membraneUTC Fuel Cells – Improved cathodes

and high-temp membraneSuperior Micropowders – Low Pt cathodeSWRI/Gore – Pilot production methods

Industrial/University Partnerships

Bipolar Plates/ComponentsPorvair – Low-cost, mass-produced

platesHoneywell - SensorsUTC Fuel Cells – SensorsEngelhard – Platinum recyclingIon Power – Platinum recycling

AnalysisTIAX – Costing, Pt cost and

availability, fuel effectsBreakthrough Technologies Inc –

Foreign transportation FC programs

Directed Technologies – Transportation FC costs

Battelle – Economic analysis

Systems IntegrationUTC Fuel CellsCaterpillar – EthanolGE HoneywellIdaTech – StationaryPlug Power - Stationary

Air/Water ManagementHoneywell – Turbocompressor,

water managementMechanology – TIVMUTC Fuel Cell – BlowersTIAX - Hybrid

HFCIT National Laboratory Priorities -PEMFC

SensorsImproved Cathodes

High-Temp Membrane

Durability Studies

Fuels Effects

Los AlamosSystems AnalysisFuel Proc Catalysts

Fast-Start Fuel Proc

Argonne

Hydrogen PurificationHydrogen Storage

SandiaSensorsHydrogen Storage

Lawrence Livermore

Microchannel Fuel Processing

Pacific NorthwestElectrocatalystsLawrence Berkeley

Vehicle Analysis

Hydrogen ProductionHydrogen Storage

Renewable Energy

Hydrogen Production

Stack Materials

Stack Components

Oak Ridge

Fuel ProcessingEnergy Technology

Low-Pt ElectrodesBrookhaven

PriorityLaboratoryPriorityLaboratory

• Interagency cooperation• Cooperative Research and Development

Agreements (CRADA) between Industry and National Laboratories

• Solicitation Teaming Requirements• Technical Workshops

• Case Studies– UTC Fuel Cells– General Motors/Los Alamos National Lab

DOE Role in Fostering Public/Private Partnerships

International Fuel Cells

GM Chevy S-10 Pick-Up(Gasoline)

Program/Partnership Evolution

January 9, 2002

May 16, 2001

January 28, 2003President Bush announces

September 29, 1993

January 1991

Program Timeline – Fuel Cells

1994-1997Focus: PEMFCs

Contracts: Ford, Chrysler, GM

Demonstration of record efficiency in 50-kW

hydrogen PEMFC system

World’s First 50-kW Gasoline PEMFC SystemStack Pt Content 2 g/kW (Reformate)

1997-2000Focus: Gasoline PEMFCs

Contracts: Developers

Low-Cost Bipolar PlateMEA Manufacturing Process

Projected System Cost $325/kW

2000-2004 Focus: R&D of materials,

components, manufacturing processes, enabling

technologies

1990-1994PAFC Bus Demos

Exploratory PEMFC Research

$27M

$60M

$110M

2004-2008

Pt target 0.2 g/kWSystem Cost Target $45/kW$148M

Spin-Offs: Fuel Processing Technology to Stationary Power, Fuel Cell Technology to Portable

Power

Stack Pt content 20 g/kW (Reformate)Projected System Cost $3,000/kW

25-50% Reductions in

Stack Size and Weight

Pt Content Reduced to

1/10 of 1990 Value

Led to Concept

Cars

2010-2015Commercialization

Decision

Industry ProjectsNational Lab/University

Projects

Technical Review ProcessTechnical Review Process

Quarterly Reviews, includingAnnual FreedomCARTech Team Review

Mid-Year Review by FreedomCAR Tech Team

Annual Merit Peer Review and Evaluation

Annual Progress Report(written)

Bi-annual National Academy of Sciences

Review

www.eere.energy.gov/hydrogenandfuelcells/

http://www.eere.energy.gov/hydrogenandfuelcells

Information Resources