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NISTIR 7161
The Role of the U.S.  National Innovation System in the Development of the  PEM Stationary Fuel Cell


VI. Conclusions

The following conclusions can be drawn from this study.

A. Drivers of Fuel Cell Innovation

Government

  • Early drivers of U.S. fuel cell innovation were the space and defense programs. Since the 1980s, the Department of Energy has been the primary source of funds for fuel cell research both in basic research and in financing prototypes and demonstration projects.
  • National laboratories, in particular Los Alamos in the early days, continue to drive innovation in fuel cell research. State programs such as the New York State Energy Research and Development Authority provide significant support through research grants and demonstration projects.
  • In November 2001, in response to recommendations within the National Energy Policy, DOE organized a meeting of 50 visionary business leaders and policymakers to formulate a National Hydrogen Vision. In March 2002, DOE followed up with a larger group of over 200 technical experts from industry, academia, and the national laboratories to develop a National Hydrogen Energy Roadmap. The Roadmap contains clear technical and commercial goals that must be met in order to achieve a hydrogen-based economy by 2030.
  • Starting in 1998, the Department of Commerce's Advanced Technology Program awarded the first of 25 fuel cell projects as fuel cell commercialization prospects improved. ATP provides cost-share funds for high-risk R&D projects with commercial potential, thereby bridging the funding gap between basic science and product development.

Environment and Deregulation

  • Fuel cells have been marketed as an emission-free technology. However, there are questions about using fuel cells as a means to reduce carbon emissions, particularly when one considers that the most economical methods for generating hydrogen produce carbon dioxide.
  • Deregulation of energy markets spurred utility companies to pursue alternative business strategies. Detroit Edison created Plug Power, a leading maker of stationary fuel cells, partially as a response to deregulation.
  • Long-term R&D by utility companies has dropped as a result of the decoupling of the power generation business from the power distribution business by utilities in many states.

Expenditures

  • Since the early 1980s, federal R&D expenditures on energy dropped in real terms from $6 billion in 1980 to $1.5 billion in 2001 (constant 1996 dollars).
  • This trend may be changing particularly in the area of fuel cells, which President Bush has specifically targeted for a $1.7 billion increase in funds available for research over the next five years.

B. Innovation in the Energy Sector: Knowledge Creation, Diffusion, and Exploitation

Knowledge Creation

  • A significant amount of fuel cell research is funded by government but conducted by private firms or universities.
  • Private firms aggressively patent in the United States . After averaging about 60 fuel cell patents a year from the early 1980s to the late 1990s, the number of fuel cell patents granted per year has recently almost doubled.
  • In 1999, universities conducted over $4.6 billion of R&D in the scientific disciplines related to fuel cells.

Market Structure

  • Fuel cell makers such as Plug Power, Ballard, and Nuvera fit the criteria of a small or medium-sized enterprise, but they need access to a large firm's capital and to their markets.
  • Since fuel cells are at a pre-commercialization stage, large firms such as automobile, utility, and energy companies pursue fuel cell opportunities with some firm-sponsored R&D but also through strategic alliances with the fuel cell makers.
  • U.S. fuel cell makers have strategic alliances with international firms to market their products and use them as partners for demonstration projects (e.g., Vaillant uses Plug Power fuel cells in a German demonstration project). The fuel cell makers include international firms in their strategic relationships with suppliers (e.g., Plug Power has teamed with Celanese to create a high-temperature membrane).

C. Public Policy for Innovation in Fuel Cells

Market Development

  • There are limited tax incentives for fuel cells at the federal and state levels. The fuel cell tax credits that are available are not large enough to affect the decision to purchase a fuel cell.
  • Government procurement of fuel cells has been limited to this point.
  •  At this stage of commercial development, demonstration programs appear to be the most effective method for government to spur the commercial development of fuel cells. The cost of fuel cells must be reduced before tax policy or government procurement can be justified as a means for spurring their introduction to the marketplace.

Public-Private Partnerships

  • In July 2003, DOE awarded a total of $96 million in 24 new awards in support of the president's FreedomCAR and Hydrogen Fuel Initiative. These new projects include research in advanced fuel cell technology for vehicles, buildings, and other applications. In particular, the projects on hydrogen storage technologies support DOE's priority to develop methods to safely store hydrogen to enable at least a 300-mile vehicle range - a critical requirement for successful vehicle commercialization. The recipients of these awards have pledged an additional $40 million in cost sharing, bringing the total value of these projects to $136 million.
  • ATP awarded three new fuel cell projects in September 2004, bringing the total number of fuel cell projects awarded by ATP since 1997 to 25. The recipients of these awards have pledged an additional $51.1 million in cost sharing, bringing the total value of these projects to $109.3 million.

Development of Standards

  • The National Institute of Standards and Technology, which develops standards and measurements for a broad range of products and technologies, will perform a vital public good function through its Residential Fuel Cell Test Facility. This program will provide purchasers with a realistic estimate of annual electrical energy output, thermal energy output, and fuel usage.
  • In addition to practical operating standards, a more long-term question involves safety issues involving both fuel cells and particularly hydrogen, which can be very dangerous. The role of government is extremely important.

Commercialization Prospects

  • The National Hydrogen Roadmap describes the period from 2003-15 as the technology development phase; decisions on commercialization may not occur until 2015. However, the prospect for commercialization of fuel cells for portable applications or backup systems appears to be much sooner, with some electronics firms talking about late 2004 or 2005.
  • The financial situation confronting fuel cell makers is precarious. Several firms have burn rates of less than a year. Their near-term survival depends on continued access to equity markets.

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Date created: March 29, 2005
Last updated: August 3, 2005

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