[House Hearing, 114 Congress]
[From the U.S. Government Publishing Office]
H.R. 4084, NUCLEAR ENERGY INNOVATION CAPABILITIES ACT
=======================================================================
HEARING
BEFORE THE
SUBCOMMITTEE ON ENERGY
COMMITTEE ON SCIENCE, SPACE, AND TECHNOLOGY
HOUSE OF REPRESENTATIVES
ONE HUNDRED FOURTEENTH CONGRESS
FIRST SESSION
__________
December 3, 2015
__________
Serial No. 114-53
__________
Printed for the use of the Committee on Science, Space, and Technology
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Available via the World Wide Web: http://science.house.gov
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COMMITTEE ON SCIENCE, SPACE, AND TECHNOLOGY
HON. LAMAR S. SMITH, Texas, Chair
FRANK D. LUCAS, Oklahoma EDDIE BERNICE JOHNSON, Texas
F. JAMES SENSENBRENNER, JR., ZOE LOFGREN, California
Wisconsin DANIEL LIPINSKI, Illinois
DANA ROHRABACHER, California DONNA F. EDWARDS, Maryland
RANDY NEUGEBAUER, Texas SUZANNE BONAMICI, Oregon
MICHAEL T. McCAUL, Texas ERIC SWALWELL, California
MO BROOKS, Alabama ALAN GRAYSON, Florida
RANDY HULTGREN, Illinois AMI BERA, California
BILL POSEY, Florida ELIZABETH H. ESTY, Connecticut
THOMAS MASSIE, Kentucky MARC A. VEASEY, Texas
JIM BRIDENSTINE, Oklahoma KATHERINE M. CLARK, Massachusetts
RANDY K. WEBER, Texas DON S. BEYER, JR., Virginia
BILL JOHNSON, Ohio ED PERLMUTTER, Colorado
JOHN R. MOOLENAAR, Michigan PAUL TONKO, New York
STEVE KNIGHT, California MARK TAKANO, California
BRIAN BABIN, Texas BILL FOSTER, Illinois
BRUCE WESTERMAN, Arkansas
BARBARA COMSTOCK, Virginia
GARY PALMER, Alabama
BARRY LOUDERMILK, Georgia
RALPH LEE ABRAHAM, Louisiana
DARIN LaHOOD, Illinois
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Subcommittee on Energy
HON. RANDY K. WEBER, Texas, Chair
DANA ROHRABACHER, California ALAN GRAYSON, Florida
RANDY NEUGEBAUER, Texas ERIC SWALWELL, California
MO BROOKS, Alabama MARC A. VEASEY, Texas
RANDY HULTGREN, Illinois DANIEL LIPINSKI, Illinois
THOMAS MASSIE, Kentucky KATHERINE M. CLARK, Massachusetts
STEPHAN KNIGHT, California ED PERLMUTTER, Colorado
BARBARA COMSTOCK, Virginia EDDIE BERNICE JOHNSON, Texas
BARRY LOUDERMILK, Georgia
LAMAR S. SMITH, Texas
C O N T E N T S
December 3, 2015
Page
Witness List..................................................... 2
Hearing Charter.................................................. 3
Opening Statements
Statement by Representative Randy K. Weber, Chairman,
Subcommittee on Energy, Committee on Science, Space, and
Technology, U.S. House of Representatives...................... 5
Written Statement............................................ 6
Statement by Representative Lamar S. Smith, Chairman, Committee
on Science, Space, and Technology, U.S. House of
Representatives................................................ 8
Written Statement............................................ 9
Statement by Representative Eddie Bernice Johnson, Ranking
Member, Committee on Science, Space, and Technology, U.S. House
of Representatives............................................. 21
Written Statement............................................ 22
Witnesses:
Mr. John Kotek, Acting Assistant Secretary, Office of Nuclear
Energy, U.S. Department of Energy
Oral Statement............................................... 11
Written Statement............................................ 14
Dr. Dale Klein, Associate Vice Chancellor for Research,
University of Texas
Oral Statement............................................... 23
Written Statement............................................ 25
Mr. Ray Rothrock, Partner Emeritus, Venrock
Oral Statement............................................... 31
Written Statement............................................ 34
Discussion....................................................... 50
Appendix I: Additional Material for the Record
Statement submitted by Representative Alan Grayson, Minority
Ranking Member, Subcommittee on Energy, Committee on Science,
Space, and Technology, U.S. House of Representatives........... 62
H.R. 4084, NUCLEAR ENERGY INNOVATION CAPABILITIES ACT
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THURSDAY, DECEMBER 3, 2015
House of Representatives,
Subcommittee on Energy
Committee on Science, Space, and Technology,
Washington, D.C.
The Subcommittee met, pursuant to call, at 10:07 a.m., in
Room 2318 of the Rayburn House Office Building, Hon. Randy
Weber [Chairman of the Subcommittee] presiding.
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Chairman Weber. The Subcommittee on Energy will come to
order.
Without objection, the Chair is authorized to declare
recesses of the Subcommittee at any time, and we expect votes
to be called just any minute.
Welcome to today's hearing entitled ``H.R. 4084, the
Nuclear Energy Innovation Capabilities Act.''
I am going to defer my opening statement. I know the
Chairman has graciously agreed to, and the Ranking Member has
also, to be put in the record. So good morning. I thank you all
for coming. And I would like to thank Ranking Member Johnson,
who's not here, and Chairman Smith for cosponsoring this bill
with me. It is an absolute honor to work with fellow Texans to
establish policies that keep America globally competitive,
support innovation in our economy, and actually promote
national security goals. And I would also like to think other
cosponsors from this Science Committee.
As the Energy Subcommittee's legislative business for 2015
draws to a close, we're going to be work with this stuff. You
can read the rest of my statement in the record.
[The prepared statement of Chairman Weber follows:]
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Chairman Weber. With that, I'm going to introduce the
witnesses. Our first witness today is Mr. John Kotek, Acting
Assistant Secretary for the Office of Nuclear Energy at the
DOE. Mr. Kotek previously served as the Principal Deputy
Assistant Secretary for the Office of Nuclear Energy. In
addition, Mr. Kotek--am I pronouncing that correct--okay--
received his bachelor's degree in nuclear engineering from the
University of Illinois and his MBA from the University of
Maryland.
I will now yield to the Chairman of the full Committee, Mr.
Smith, to introduce our second witness.
Chairman Smith. Thank you, Mr. Chairman.
Our second witness today is Dr. Dale Klein, Associate Vice
Chancellor for Research for the University of Texas System. In
2006, Dr. Klein joined the Nuclear Regulatory Commission and
was later appointed Chairman by President Bush, where he served
until 2010. As Chairman, Dr. Klein was the Principal Executive
Officer and Official Spokesman for the NRC. He was responsible
for the administrative, organizational and long-range planning,
budgetary, and personnel functions of the agency. Prior to
joining the NRC, Dr. Klein was the Assistant to the Secretary
of Defense for Nuclear, Chemical, and Biological Defense
programs. He also served as the Vice Chancellor for Special
Engineering Programs at the University of Texas and as a
Professor in the Department of Mechanical Engineering at the
University of Texas. Dr. Klein holds a Ph.D. in nuclear
engineering from the University of Missouri.
Dr. Klein, thank you for making the trip from Austin today.
We look forward to your testimony.
[The prepared statement of Chairman Smith follows:]
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Chairman Weber. Thank you, Chairman Smith.
Our final witness today is Mr. Ray Rothrock, Partner
Emeritus of Venrock. Mr. Rothrock has had a career in venture
capital spanning over 25 years, successfully investing in over
50 startup companies. Mr. Rothrock received his bachelor's
degree in nuclear engineering from Texas A&M, his master's
degree in nuclear engineering from MIT, and his MBA from
Harvard.
I now recognize Mr. Kotek for five minutes to present his
testimony.
TESTIMONY OF MR. JOHN KOTEK,
ACTING ASSISTANT SECRETARY,
OFFICE OF NUCLEAR ENERGY,
U.S. DEPARTMENT OF ENERGY
Mr. Kotek. Thank you, Chairman Weber, Ranking Member
Grayson, and Members of the Committee. Thank you for the
invitation to testify at today's hearing.
I appreciate the Committee's interest in research and
development of advanced nuclear energy technologies.
The Department of Energy does not have a position on the
legislation but it is consistent with much of the work
currently being done by DOE.
As has been noted before this Committee in the past,
nuclear energy continues to play a vital role in the
President's energy strategy for a sustainable, clean energy
future. Nuclear energy has provided nearly 20 percent of
electrical generation in the United States over the past two
decades and currently produces more than 60 percent of
America's carbon-free electricity.
As the United States leads the global transition to a low-
carbon economy, the continued development of new and advanced
nuclear energy technologies along with support for currently
operating nuclear power plants is an important component of our
clean energy strategy.
Because nuclear energy innovation is at the heart of
today's hearing, let me focus my oral remarks on DOE's research
and development programs for advanced reactor technologies.
Future-generation reactor systems may employ advanced
technologies and designs to improve performance beyond what is
currently available. More advanced reactor designs with
coolants other than light water, often referred to as
generation IV designs, may enable reactors to operate at higher
temperatures and with increased efficiencies. Continued R&D in
this area is essential for the long-term prospects of nuclear
energy.
Advanced reactor technologies considered in DOE's R&D
program reside at different technology maturity levels with R&D
efforts mainly focused on three advanced concepts: liquid
metal-cooled fast reactors, fluoride salt-cooled high-
temperature reactors, and high-temperature gas-cooled reactors.
DOE has also initiated studies on how to optimize the
integration of nuclear energy and variable renewable energy
sources through collaboration between my office and the Office
of Energy Efficiency and Renewable Energy. These studies will
not only examine integration of current light water reactor
technology, but also advanced reactor technologies that have
the potential to provide high-temperature process heat in
addition to electricity.
As noted in the proposed legislation, investments in the
infrastructure to support advancement of nuclear technology are
also critical. Research, development, and demonstration
programs are dependent on an infrastructure of experimental and
computational facilities, access to critical materials and
data, and highly trained scientists and engineers dedicated to
meeting the needs of the nation.
The proposed legislation identifies three specific
requirements for DOE to address in the areas of high-
performance computing and supportive research, a versatile
neutron source, and enabling nuclear energy innovation. NE
programs are currently working across these three critical
areas.
The Consortium for Advanced Simulation of Light Water
Reactors or CASL, a DOE Energy Innovation Hub centered at Oak
Ridge National Lab, was established to provide leading-edge
modeling and simulation capability to improve the performance
of currently operating reactors. This successful program has
now expanded beyond operating reactors to support modeling and
simulation for small modular reactors. Additionally, our
Nuclear Energy Advanced Modeling and Simulation program is
addressing modeling and simulation needs for nuclear fuels and
for advanced nuclear reactors. As these tools are developed and
integrated, NEAMS will be able to provide nuclear technology
designers with a truly predictive capability that spans from
the fuel pellets to the entire plant to better predict the
performance, reliability and economics of advanced nuclear
power plants.
With respect to a new versatile neutron source, DOE is
evaluating the potential need for a new research reactor
capability. To support the development of advanced reactor
technology options, the Department has undertaken a study to
determine the needs of the advanced nuclear reactor community
and to develop options, including the key features and timing
for a possible advanced test or demonstration reactor to
support research, development and demonstration, and eventual
commercialization of advanced reactor systems.
And finally, with respect to enabling nuclear energy
innovation, NE identified that improvements can be made to
accelerate the innovation of nuclear technologies. To further
enable this goal, NE launched the Gateway for Accelerated
Innovation in Nuclear, or GAIN, during last month's White House
Summit on Nuclear Energy. GAIN will provide the nuclear energy
community with a single point of access to the broad range of
resources, people, facilities, materials and data at our Idaho
National Lab and across the DOE complex. Focused research
opportunities and dedicated industry engagement will also be an
important component of GAIN, ensuring that DOE-sponsored
activities are impactful to companies working to realize the
full potential of nuclear energy.
Chairman Weber, Ranking Member Grayson and members of the
Committee, thank you again for inviting me to discuss this
legislation and the work that the Department and the Office of
Nuclear Energy are currently doing, and I'd be happy to answer
any questions.
[The prepared statement of Mr. Kotek follows:]
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Chairman Weber. Thank you, Mr. Kotek.
We have been joined by the Ranking Member of the Full
Committee, the gentlelady from Texas. You're now recognized for
your opening statement, Ms. Johnson.
Ms. Johnson. Thank you very much, and I apologize for being
late--I knew the vote was coming, and I thought this would
follow--on the Nuclear Energy Innovation Capabilities Act,
which I am very pleased to cosponsor with you, and I'd like to
thank our Acting Assistant Secretary for Nuclear Energy, Mr.
John Kotek, for agreeing to be here today on such short notice,
and I hope that our friends in the Senate will take away that
``Acting'' very soon.
As I have noted before, nuclear power plays a vital role in
providing our country with clean, reliable energy. I live in an
area where there's nuclear energy. Nationally, it produces
almost 20 percent of our total electric power and provides
almost nine percent of the electricity generated in our great
State of Texas, all with essentially no greenhouse gas
emissions.
But there currently are technical, economic, and policy
challenges that prevent nuclear energy from playing a larger
role in enabling our clean energy future. The Nuclear Energy
Innovation Capabilities Act takes several positive steps to
address these challenges. Implementing the provisions in this
bill will help accelerate the development of advanced nuclear
energy technologies that are safer, less expensive, more
efficient, and produce less waste than the current generation
of nuclear reactors.
I look forward to hearing from the distinguished panel that
we have here today on any improvements we can make to this
legislation to achieve these goals.
I'd like to express my appreciation for the process we
followed to put this bill together. Majority and Minority staff
worked closely together every step of the way, from engaging
stakeholders through the helping to craft and incorporate
suggested changes to bill language. This is a great example of
what we can achieve when we put politics aside and join forces
to address the challenges facing our nation's research
enterprise.
I thank all of you for being here, and I yield back, Mr.
Chairman. Thank you.
[The prepared statement of Ms. Johnson follows:]
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Chairman Weber. I want to thank the gentlelady from Texas,
and when we opened, I said that I really appreciated you and
Chairman Smith's cosponsoring and helping with this bill, so I
thank you very much.
Dr. Klein, you are recognized for five minutes.
TESTIMONY OF DR. DALE KLEIN,
ASSOCIATE VICE CHANCELLOR FOR RESEARCH,
UNIVERSITY OF TEXAS
Mr. Klein. Thank you. Chairman Smith, Chairman Weber,
Members of the Committee, it is a pleasure to appear before you
today along with my colleagues to discuss H.R. 4081.
As a former chairman of the Nuclear Regulatory Commission,
a Fellow of the American Nuclear Society, and a Research
Administrator at a major university, I applaud the committee
for introducing this legislation and I hope that it kick-starts
a broader effort by all the relevant committees of jurisdiction
to review and update federal nuclear energy policy.
While I currently serve as the Associate Vice Chancellor
for Research at The University of Texas System and serve on two
utility boards, my comments today represent my views, not those
of my employer nor the boards on which I serve.
In order to understand the importance of this legislation,
it's important to step back and appreciate the larger global
context. Currently, there are nearly 2 billion people who still
lack basic access to electricity, and many more whose current
access is unreliable. Add to that the increasing urbanization
of the developing world, with its attendant air quality issues,
and finally the need to significantly reduce global carbon
emissions, and you have what is perhaps the largest civilian
technology infrastructure challenge in world today.
One thing is clear: Any successful response to this
challenge will by necessity include a significant role in
nuclear energy, and if the United States wants to exert its
influence on safety, security, and non-proliferation under
which this global growth takes place, it must be a leader in
nuclear technology development.
H.R. 4084 is an important first step toward aligning
federal nuclear policies with today's realities, and if
enacted, I believe would create a more collaborative
relationship between the government and the public-private
sector to advance nuclear science and public innovation.
It is important to understand, however, that success will
require other policy changes that extend beyond the
jurisdiction of this committee. For instance, I believe it is
inconceivable that any nuclear technology can achieve
commercialization without the beneficial scrutiny of the
Nuclear Regulatory Commission. I know that many may question my
use of the word ``beneficial'' when you talk about the Nuclear
Regulatory Commission, however, its role in protecting the
public and the environment are fundamental to any successful
nuclear energy technology. The NRC remains the best agency to
address these requirements.
I should note that the Committee staff provided me with the
July 2015 testimony by NRC Chairman Burns and of Mr. Todd
Garvey, Legislative Attorney for the Congressional Research
Service, concerning the authority of the NRC to address
advanced reactor designs and licensing. After reading their
statements I was once again reminded why I became an engineer
and not a lawyer. But I believe that there was agreement that
the NRC has the authority and is fully capable of providing the
review and guidance needed to support innovative technologies.
The real question is how do you provide funds to the NRC in
order to carry out this activity.
My second point is more of a cautionary note directed to my
good friends at the Department of Energy where I encourage them
to view this opportunity to change their approach to managing
construction projects and public-private partnerships. I would
encourage the Committee to consider implementing guidance to
Section 7 that would direct the Department to identify
governance approaches in addition to contractual mechanisms
that would facilitate partnering with the private sector.
My last point is that most nuclear projects today involve
some level of international collaboration and foreign
involvement. While continued U.S. competitiveness is an
important issue, we must also recognize the benefits of
collaboration. Therefore, we must be mindful of the
restrictions and barriers that we have to international
collaborators. I would encourage the Committee to look at
activities that would remove barriers with no loss to our
national security goals.
I hope that this legislation will provide Congress and the
Administration a common ground to rebuild our national security
science and technology infrastructure and reinvigorate the
collaborative relationship between the government and the
private sector.
Thank you very much, and I look forward to your questions
[The prepared statement of Mr. Klein follows:]
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Chairman Weber. Thank you, Dr. Klein.
Mr. Rothrock, you're now recognized for five minutes to
tell us how to pay for this.
TESTIMONY OF MR. RAY ROTHROCK,
PARTNER EMERITUS, VENROCK
Mr. Rothrock. Well, let's start with some big checkbooks.
Good morning, Chairman Weber. Thank you very much for this
opportunity, Ranking Member Grayson, Chairman Smith, Ranking
Member Johnson and members of the Subcommittee. I really
appreciate you all introducing this bill H.R. 4084, Nuclear
Energy Innovation Capabilities Act. It's also nice to be among
a bunch of fellow Texans. I appreciate that.
This bill comes at a very important time in the history of
nuclear power and clean energy, and I'm delighted to share with
you today my experiences in the nuclear innovation ecosystem
that exist in the United States and how this bill fits in that
particular ecosystem.
My journey to this table, I think, started when I was asked
to testify how venture capital could assist in the Blue Ribbon
Commission on America's Nuclear Future some years ago, which
led to my co-producing the movie Pandora's Promise, which
ultimately led to a handful of citizens getting together and
addressing these problems.
So why nuclear power now? Well, it would be quite
irrelevant if not for the fact that there are over 40 nuclear
startups in North America now. Please cue the slide.
[Slide]
As we began our journal across the county in the last
several years, we discovered a very large group of startup
companies, over 40, backed by $1.6 billion of private capital,
not government capital, private capital. ThirdWay, based here
in Washington, documented this more completely and presented
this slide. The needs of these companies are all the same. They
need patient investors with deep pockets, modern computational
capability, nuclear-qualified laboratory space to prove their
designs, and ultimately the approval of the Nuclear Regulatory
Commission. The findings of these 40 startups was very exciting
to us and also was a surprise to virtually everyone we've
talked to, including people in the government.
So the entrepreneurs running these companies have all
concluded that there is a need for a new reactor design to
address many things that Ranking Member Johnson mentioned about
economics, for example. I live and work in the Silicon Valley
and have for nearly three decades, and I've witnessed from time
to time the way to solve a problem is to get many people
working on that problem, many innovators, and in the Silicon
Valley we call that many shots on goal. It provides not only
competition but it creates speed of solutions, and at the end
of the day, we all win. Many shots on goal require lots of
ideas, lots of innovators, lots of capital, and I would say
that with the 40 startups we have in the United States, we're
well on our way to having many shots on goal.
But they can't do it alone. It requires a partnership with
the government. For good and obvious reasons, nuclear
development by its very nature and by law requires the
government. None of these guys are going to succeed if they try
to do this in the Silicon Valley or in a laboratory in New
Mexico. It requires nuclear-qualified lab facilities, and this
bill talks about bringing some of that capability to them.
The national labs of our country are the finest in the
world. I visited many of them, and I've personally spoken to
their leaders who are eager to assist, so your bill is well
timed.
Also, I want to in the spirit of a good signal to this
community congratulate the Department of Energy, the White
House, at the White House, the GAIN program, which was just
referred to by Mr. Kotek, and all his staff was very well
received from the community, and I've met subsequently with
many of them. It's very compelling. It's very attractive to the
private sector. But I will add this. After nearly 30 years of
venture capital and having seen tens of thousands of business
plans with very ambitious goals, it is all in the execution,
and so I look forward to helping, whatever I can do to help the
Department of Energy execute the GAIN program.
There is one--well, I'll skip that. The second signal,
operating concepts of nuclear innovation facilities, so I
personally went out and surveyed as many of these folks as I
could subsequent to being invited to speak here, and a couple
of things to point out. This needs to be a very focused
program. It needs to operate pretty quickly, so I would
recommend a single point of contact for these private
companies. They should all submit a work plan that's approved
by whatever lab or whatever designated facility is created.
They need to be able to pay for it and they need to be able to
prove that they can pay for it, which requires teaming with the
investors. There is an issue with the way national laboratories
charge out some of their overhead. I've talked to several
national laboratory directors about this, and I'm sure we can
solve that problem, but I would recommend some sort of grant
that's a non-cash kind of a grant such as $1 of startup
capital, $2 of government capital, that gets into the
accounting of it all. I don't mean to get into the--their
details there but it's something that needs to get sorted out,
otherwise it'll just create more friction in the process.
Intellectual property should belong to the company. The
liability should be well understood as everyone goes into this.
Everyone needs to be safety-trained on health physics and other
safety issues. Information sharing and consultation is very
important, and I think embedding the NRC in the process will be
a very important element as well.
There's one question that comes to mind, and I'm nearly out
of time, but quickly, there is confusion or--well, there is
confusion out there. Can a startup company, even if they have
the permission to use the DOE facility, can they build a
reactor without the approval of the NRC on DOE property? This
is a legal issue that was asked and answered years ago, thought
resolved, but if you ask people in the system, they are very
confused by it.
So I just want to say in conclusion, I support this bill. I
hope this and many others that will follow will put the United
States back into leadership position that has been suggested
here.
I thank you for this opportunity to testify, and we need to
hurry. Thank you.
[The prepared statement of Mr. Rothrock follows:]
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Chairman Weber. We need to hurry about this bill, or about
voting?
Mr. Rothrock. Yes.
Chairman Weber. Both. Well, we appreciate that, Mr.
Rothrock, and we are going to recess. It'll probably take us
somewhere around 35, 45 minutes, and then we will be back.
We are recessed.
[Recess.]
Chairman Weber. Okay. We are reconvened, and if I can find
my place in my notes, we'll get started here. Thank you all for
waiting for us.
Okay. The Chair's going to recognize himself for five
minutes.
Mr. Kotek, you mentioned that the Office of Nuclear Energy
is working to address each of the major areas of H.R. 4084
including Section 7, which Mr. Rothrock actually referenced, to
enable the private sector to partner with national labs. Do you
see any major impediments for DOE to carry out the National
Reactor Innovation Center as basically described in Section 7
of the bill?
Mr. Kotek. Thank you for the question, Mr. Chairman. The
timing is actually quite interesting. I mentioned in my
testimony, we have the GAIN initiative that we just announced
last month. Through that, we're trying, I think, to address
some of the things that you're getting at in your bill in terms
of providing better access for companies and innovators to the
set of tools, capabilities, codes, facilities, et cetera that
exist at our national laboratories. So that I think gets at
part of it.
Another thing that has been raised with us is the
possibility of building privately funded reactors facilities at
DOE laboratories, and we're engaged in a process right now
where we're working through just what would the specifics of an
agreement like that be, and so at this point I can't say for
certain that we've got these particular obstacles, but as we go
through that process of working through what it would take for
a private company to be able to build on a DOE site, I would
suggest that we continue to work with your staff to communicate
what issues may have arisen and figure out what the resolutions
to those things might be.
Chairman Weber. But you don't see any stumbling blocks to
trying to establish this kind of cooperative effort to----
Mr. Kotek. I think broadly speaking, no, and we're--we've
been listening, frankly, to you and to folks like Mr. Rothrock
and some of the innovators in nuclear to try to address just
the types of challenges you folks are working to address.
Chairman Weber. And you see the need, right?
Mr. Kotek. Oh, absolutely.
Chairman Weber. Good.
Mr. Kotek. Yes, and that was really part of the motivation.
I mean, a lot of the credit for the GAIN initiative comes from
this larger conversation we've been having again with your
folks in the drafting of this bill but also with Mr. Rothrock
and others who want to innovate nuclear and want to get better
access to our capabilities.
Chairman Weber. Good.
And Mr. Rothrock, a question for you. In your testimony,
you also pointed out that the U.S. government oversight of
nuclear energy R&D is required by law, and that advanced
nuclear startup companies will need some degree of partnership
from the federal government, and I think it was you who said,
was it one dollar of private money and two dollards of--did you
have that backwards? No, that's not the question. So how do you
envision the National Reactor Innovation Center and Section 7
of this bill, 4084? How do you envision that center assisting
with this effort?
Mr. Rothrock. Thank you. I envision it assisting very
hands-on. There is--and there is already an existing example,
the Mojave Air and Space Port in Mojave, California, 27 private
companies, $3 billion of private investment on an old military
base run by private enterprise but under the auspices of the
FAA. It's not exactly what we're talking about here because at
a facility like the national lab, you have people, skilled
workers. You have the machines to turn the equipment, to build
the equipment, to monitor the safety of it and the health
physics. That's what we need. You know, getting a permit to
create even a subcritical pile at a facility other than a
national lab would be impossible in this country.
So I see it being very direct, hands-on, in the lab with
the private-company people and the laboratory people working
hand in hand to demonstrate whatever it is they're trying to
prove or show, and then also have the NRC embedded in that
process too so they will not be surprised by something that's
discovered.
Chairman Weber. Well, that's a good point. We're going to
go there with Dr. Klein here in just a second.
Mr. Rothrock. Okay.
Chairman Weber. But the point is that if this were a
transportation bill or if this was infrastructure, a building,
for example, we would call this a public-private partnership.
Mr. Rothrock. Exactly.
Chairman Weber. And so kind of along those same lines.
And Dr. Klein, moving to you, as former Chairman of the
NRC, what R&D capabilities do you think would be necessary for
the NRC to help, as Mr. Rothrock just lined out, timely license
and advanced reactor design?
Mr. Klein. Well, thank you, Mr. Chairman, for the question.
One of the challenges that the NRC has is, they need data
to make their safety analysis, so that's why this bill is so
important to provide the nuclear infrastructure, to provide
data for which the NRC can then make a safety case, and I worry
about our country losing its nuclear infrastructure and
leadership.
Chairman Weber. I do too.
Mr. Klein. I'll give you a specific example. I've been
asked by Terra Power to help guide them on some nuclear
licensing activities for their design that Bill Gates is
partially supporting. So Terra Power is a design for a fast
reactor, and the fuel elements will be in there for longer than
we've ever had this done before. So obviously for any kind of
licensing, whether it's in China or in the United States, you
need some data. In order for Terra Power to do some fuel-
quality studies, the only place they could go to do that work
is the BOR-60 reactor in Russia, and I think that's a sad state
of our nuclear leadership that we do not have the capabilities
to do some of those science studies in the United States.
Chairman Weber. Well, and I appreciate you saying that. So
if the NRC was actually involved from the very get-go in
watching this data get compiled, would that help in two ways?
Would the validity of the data and timeliness so you don't have
to go back and reevaluate?
Mr. Klein. Right. It would be very beneficial for the NRC
to be involved early and often. The NRC has a very good
technical staff, and I think they can make decisions, but
getting the data and understanding the quality of the data is
necessary.
Chairman Weber. And of course, going back to my discussion
with Mr. Rothrock, I would point out that actually the funding
for the NRC is actually a public-private partnership in some
sense of the word. So thank for you that.
And I'm going to yield to Mr. Grayson.
Mr. Grayson. Thank you, Mr. Chairman.
Mr. Rothrock, your testimony focused on shots on goal, the
idea that if you let a thousand flowers bloom, some of them
will actually bloom, and you also gave us a map that showed
startup companies all over the country, dozens of them,
focusing on developing fission concepts. How many shots on goal
do we have funded by the federal government now in terms of
fusion research, making fusion research work, making it
economical and a net producer of energy? How many?
Mr. Rothrock. There are seven that were on that map that
are fusion specifically, and there are two that I'm aware of
that are privately financed. The rest are government.
Mr. Grayson. Okay. And historically, what are the main
investments that we've made in fusion research over time?
Mr. Rothrock. Well, there's the ITER project in France,
which we've been contributing to, and there is the NIF facility
at Livermore, which is a national ignition facility. Those are
the two main ones that I'm aware of. There may be some smaller
experiments in laboratories and universities but that's it
primarily.
Mr. Grayson. How much of federal funding for fusion goes to
merit-based review of potential proposals that are innovative
and high risk, high reward?
Mr. Rothrock. I don't know.
Mr. Grayson. Is it a large percentage or a small
percentage?
Mr. Rothrock. Probably--it's probably a small percentage.
Mr. Grayson. Do you think it should be more?
Mr. Rothrock. Absolutely.
Mr. Grayson. Why?
Mr. Rothrock. I think we should double our R&D budget
everywhere on this topic.
Mr. Grayson. Tell me why. Why do you say that?
Mr. Rothrock. Because just as you opened with the notion of
many shots on goal, you've got to have a lot of ideas tested in
the earliest days to find out if they have merit and then they
will eventually move forward. If they do have merit, they can
seek private funding like many fission projects have and a few
fusion projects have and receive that funding.
Mr. Grayson. Mr. Kotek, what do you think?
Mr. Kotek. Thank you, sir. My office, of course, doesn't
fund the fusion energy research in DOE. That's a different part
of the organization, so I'm not intimately familiar with the
funding.
With respect to your specific question about how much goes
to innovative concepts, while I don't know off the top of my
head, I can certainly work with my colleagues to get you an
answer on that.
Mr. Grayson. Dr. Klein, do you want to weigh in on this?
Mr. Klein. Anything that enhances U.S. leadership in
nuclear technology is money well spent. If you look at one of
the programs that actually was funded by DOE that was a game
changer was the genome project and so the Atomic Energy Act was
what let them do that funding, and so we've all seen the
results of that. I think the federal government has a
responsibility to do high-risk research that then can be turned
over to the private sector for innovation.
Mr. Grayson. All right. Back to you, Mr. Rothrock. I
understand that there was a milestone reached by Tri Alpha
Energy recently and that you're familiar with that. Can you
explain that, please?
Mr. Rothrock. Sure. For fusion reaction to occur, you need
to contain the hot plasma and you need to have it at a
sufficient temperature that the nuclei will combine. Their
milestone event was the containment of plasma at will in a
controlled environment, and that is a huge milestone in the
plasma universe.
Mr. Grayson. So tell us what the next step would be.
Mr. Rothrock. To take that same plasma and heat it up to
the point where it will ignite and the nuclei will combine,
creating the fusion process.
Mr. Grayson. Is there a timeline for that?
Mr. Rothrock. Yes, probably 5, six years from now.
Mr. Grayson. Why so long?
Mr. Rothrock. Well, we have--it takes about a year and a
half to build the machine and another year and a half to run
the data and then probably another year and a half to get it
vetted by the world science community. Part of Tri Alpha's
efforts recently has been to get the data out into the science
world to have it vetted and confirmed that it is in fact good.
Mr. Grayson. All right. Let's suppose that happens and it
works. What does that mean for the world? What does that mean
for America and the world?
Mr. Rothrock. Well, it's extraordinary. In Tri Alpha's
case, it is a fuel cycle that doesn't produce any neutrons so
it is basically the radiation of a hospital, which means you
can build very large, high-density electric power plants
without the neutron radiation issue that you face with a
fission plant. It would be extraordinary.
Mr. Grayson. Is that because of the fuel?
Mr. Rothrock. Fuel cycle.
Mr. Grayson. Do you want to explain that?
Mr. Rothrock. The fuel cycle of Tri Alpha is a proton boron
reaction, which produces three alpha particles, which are
helium with no neutrons. So it uses the soft X-rays to convert
to heat to make steam to make electricity. The other fusion
cycles, DT, that are being pursued at NIF and other places
produce neutrons, and neutrons are very--they make everything
radioactive.
Mr. Grayson. The deuterium tritium cycle?
Mr. Rothrock. DT cycle, yes, sir.
Mr. Grayson. Okay. Mr. Kotek, do you want to address the
idea of what it would mean for America and the world if we had
a successful fusion program?
Mr. Kotek. Well, certainly as part of the Administration's
all-of-the-above energy strategy, we're pursuing fusion
research in a wide range of non-emitting technologies, and so
any advancements that would make more non-emitting technologies
available in the commercial marketplace would be a great thing.
Mr. Grayson. All right. Dr. Klein?
Mr. Klein. I think if we can make commercial fusion, it'll
be a game changer. The question will be, can we do it
economically and what are the technical issues to overcome.
Mr. Grayson. What do you mean by ``game changer''?
Mr. Klein. It would be providing electricity to the public
at hopefully a reasonable cost with less radiation involved,
and an abundant fuel supply.
Mr. Grayson. All right. I'll yield back. Thanks.
[The prepared statement of Mr. Grayson appears in Appendix
II]
Chairman Weber. I thank the gentleman for yielding back.
Let's see. Mr. Loudermilk from Georgia, you're recognized
for five minutes.
Mr. Loudermilk. Thank you, Mr. Chairman, and to the
witnesses, thank you for bearing with us during the craziness
getting down to vote, and I appreciate you being here. Being
from Georgia with the new standards that are coming, if they
continue to promulgate, which hopefully they don't, but if they
do, we're looking at losing a lot of our coal-fired plants and
so we're going to rely more heavily on nuclear, which we do
have the first nuclear new reactors going in at Plant Vogtle,
which I visited a few months ago with Chairman Weber.
But Dr. Klein, you brought up something that's very
interesting to me. I chair the Oversight Subcommittee, and so
efficiency and management of these projects is very important,
and you brought up in your written testimony, you alluded to it
in your verbal testimony, that DOE project managers as compared
to the private sector equivalents have little incentive to
control project costs, which of course overruns can hinder the
advancement of future projects, also because of the lack of
funds, and we all want to be very efficient, and I agree with
you on that, but on the other hand, in a previous hearing
regarding nuclear research and development in the testimony was
that there's in some cases too much regulation and that stifles
innovation, and so I wondered if you could just opine on where
is that balance? What are some of the specifics that you would
like for us to implement in Section 7 to strike that balance?
And I agree with you, too much regulation or too little
oversight can cause waste, too much regulation causes waste as
well. If you would, sir?
Mr. Klein. Sure. Thank you.
As a recovering regulator from the NRC, one of the things
that I think makes the NRC a better regulator is having to deal
with the back-fit rule where you do have to make a risk-benefit
choice. I think something like a risk-benefit back-fit rule
would help DOE and their project management.
You know, regulators always tend to be conservative. If
five guards are good, 10 are even better, so why not do it. So
there needs to be a check and balance, and I think on DOE, if
they had the incentive to do like a back-fit rule, to do a
risk-benefit analysis on the regulatory changes I think it
would help the American people.
Mr. Loudermilk. Thank you.
Mr. Kotek, would you or Mr. Rothrock also like to weigh in
on this at any stage if you have anything to add?
Mr. Rothrock. Sure. With regard to the regulation of the--
getting through the design cycle and review, an issue that all
the startup companies that I've interviewed face is that it
takes a lot of money, a long time, and it's not predictable. We
have in our government FAA, FDA. They're very dangerous
processes, things that can be scary technologically, but we
have processes in place to get those through to a point where
the public--where they're safe for the public to use and they
benefit the public. That system does not exist at the Nuclear
Regulatory Commission, and it needs to be addressed, and some
of us are working with various people. Chairman Burns is well
aware of this. I've spoken to him personally about it. But it
is something very important to build a risk-based analysis,
technology-neutral analysis rather than prescriptive work.
Mr. Loudermilk. Mr. Kotek?
Mr. Kotek. Thanks. With respect to that particular issue of
regulation, one of the things that we're doing in our
organization is working with the Nuclear Regulatory Commission
to help them as they prepare to receive applications for
advanced reactors. So they've got extensive experience dealing
with water-cooled reactor technologies but not really with
molten salt or metals, et cetera, or gas-cooled reactors. And
so we've been working with them over the last several years to
develop generic design criteria that could be used in the
licensing of advanced reactor types, holding workshops with
them, had a very successful one back in September. We'll hold
another one early next year to try and help them understand
what are the issues that they're going to have to confront as
they start receiving some of these advanced reactor designs,
and we found that the NRC to be a very willing participant in
those discussions under the leadership of Chairman Burns.
Mr. Loudermilk. Mr. Chairman, with that, I yield back my
remaining 30 seconds.
Chairman Weber. I thank the gentleman, and my good friend
from Texas, Mr. Veasey, is recognized.
Mr. Veasey. Thank you, Mr. Chairman.
I wanted to just ask you to describe the difference between
the process here for bringing a reactor online versus, let's
say, in France. I've always heard that sometimes it may be
easier in that part of Europe to bring a reactor on to the
market versus in America. Can you kind of explain the
differences?
Mr. Klein. That's a very good question. One of the
challenges that we have in the United States is, we have a lot
of vendors and a lot of different utilities. France has the
advantage of having one vendor, government-owned, one utility,
countryowned, and so therefore they have a standardized plant,
and what they do is, they will wait ten years before they'll
come out with a new model. So all the advances that they will
make, they will bucket those until they come out with their
next model. So really, the France technology is developed out
of Westinghouse's technology so it's originally rooted in U.S.
technology but their standardized plants, one vendor, makes
their licensing more simple. I think in the United States, we
could do it just as fast once we get the standardized reactors
through the design certification and the building process like
we're doing for Vogtle 3 and 4.
Mr. Veasey. So there's no safety issue at all with them
bringing them on faster? Because I know that some people will
say no, if you bring them on faster, maybe you're giving up
safety but you're saying that there's no safety at all, it's
just the process is what's different?
Mr. Klein. Yeah, it's a preapproved standardized process,
no compromises on safety, so their reactors are as safe as
ours.
Mr. Veasey. You know, one of the--you know, we have a
nuclear power plant in the part of Texas that I'm from. I live
in Fort Worth, and we have one down in Comanche Peak not too
far away, and, you know, one of the issues that always comes up
is storage of nuclear waste, and of course, you know, you can
store on site or move it to a secondary location but of course
moving that to a secondary location has always been, you know,
controversial whether it's, you know, Yucca, West Texas. Like
what do you think are the long-term solutions for dealing with
that problem of nuclear waste?
Mr. Klein. Well, I visited Comanche Peak several times.
That's a very nice facility, safely run. One of my most
frustrating activities I had as Chairman of the NRC was the
pulling of the Yucca Mountain license application. My job as
Chairman was to determine whether it was safe or not. We had a
staff of 150 that were marking that technical determination,
and they never had the opportunity to finish that. That
application was over 8,000 pages, referenced over a million
pages of other additional data, and so my frustration part was
that as the NRC, as the regulatory body to make the safety
analysis of that case, we never had that opportunity. So that's
one issue.
At-reactor storage is safe. Having a centralized storage is
safe. But we really need as a Nation to move towards a
permanent disposition program. It's not a safety issue, it's a
political issue.
Mr. Veasey. So for instance, like how could a plant like,
let's say, Comanche Peak or another plant around the country
safely store spent fuel?
Mr. Klein. You can safely store dry cask storage for over a
hundred years so it's not a near-term issue, but it is one in
which I think as a Nation we need to progress towards a
permanent strategy, and right now we don't have one as a
Nation.
Mr. Veasey. Thank you. Dr. Klein, thank you. I appreciate
it.
Mr. Chairman, I yield back my time.
Chairman Weber. I thank the gentleman.
The gentleman from California is recognized for five
minutes.
Mr. Rohrabacher. Thank you very much, Mr. Chairman, and I'd
like to congratulate you, Mr. Chairman, as well as the Chairman
of the full Committee on moving forward with this bill, and
it's a very significant issue that we have to deal with, and I
don't think we've dealt with it, and we've let ourselves get
behind. I was just over in France where they of course get most
of their electricity from nuclear energy, and they made those--
they made certain technology decisions earlier on that gave
them that capability, and they have not had the ups and downs
and the problems with being dependent on energy from another
country.
About the issues we were just discussing, in terms of
storage, do we not have the technological capability now of
building nuclear reactors that will not have this leftover
waste? And in fact, I've been told by several major companies
that it is now within our capability to build nuclear power
plants that actually eat the waste that we've had from the past
ones. Why are we focused at all on building anything that has
leftover waste problem when we have the capability to do
something else? The gentleman is shaking his head. Go right
ahead.
Mr. Rothrock. Yes, we do have that capability. There are a
number of advanced reactors in design today by startup
companies that I showed earlier that would like to burn up all
the spent fuel. There is an enormous amount of energy stored in
those pools at these existing reactors, and the site already
exists, the fuel pool is there. Why wouldn't we build a reactor
just to consume all that fuel?
Mr. Rohrabacher. How much would it cost--I mean, I was here
earlier for--sorry, we had to go out and vote and all these
other things. How much would it cost--I noted the billion and a
half dollars that's being invested in the private sector in
this whole goal. How much would it cost to build one of these?
I know about five or six different, you know, high temperature
gas-cooled reactor, pebble-based reactor and thorium reactors.
They've all been--I like them all. I'm not--I don't have an
expert in these like you fellows do. I didn't have to tell
which is best. But why are we not--first of all, how much would
it cost to build a prototype of one of those small modular
reactors that does not have the waste problem?
Mr. Rothrock. Boy, I need to be careful here, but we've
done that estimate at the company Transatomic and we think it's
about five years and $300 million we could demonstrate that
capability.
Mr. Rohrabacher. So five years and $300 million. Would we
have a prototype then or just demonstrating the----
Mr. Rothrock. Demonstrating the ability to burn spent fuel
and to consume it.
Mr. Rohrabacher. Mr. Chairman, again, if we're going to
have a future in nuclear energy, let's not build light water
reactors that add more waste and can't handle the major problem
that we have when we have the capability of moving forward, but
again, building a couple--500 million bucks or something like
that to build that prototype, that maybe--is there a way we can
facilitate those people in the private sector to move forward
with that type of expenditure?
Mr. Rothrock. We've had numerous conversations with Idaho
National Lab about putting that prototype there, what it would
cost, what it would take. Mr. Kotek's department is well aware
of some of these ideas. These are early conversations. But we
think it's quite doable.
Mr. Kotek. Yeah, and Congressman, if I could add to that,
we certainly are in discussion, have been made aware of
companies that are interested in potentially working with the
Department of Energy to build prototypes, for example, on DOE
sites. We're going through the process now of understanding
just what would the contractual relationship need to look like.
With respect to----
Mr. Rohrabacher. What--yes. Go ahead.
Mr. Kotek. With respect to the question about waste, I do
think it's important to note that you never make all of the
waste go away, even if you have a full recycle system where
you're recovering all the uranium, plutonium, what we call
minor actinide elements, you still have some very long-lived
wastes that are left, and so we will always need some sort of a
long-term waste isolation capability to support nuclear.
Mr. Rohrabacher. Yes, but not at the scale.
Mr. Kotek. I understand. I just wanted to make--I felt I
needed to make that clarification.
Mr. Rohrabacher. If it was--if the scale was smaller, this
would not be as great a challenge by definition, and look, we
need to move forward, not base--again, light water reactors,
they've been around since before I was born. We don't need to
move forward and facilitate the production of nuclear reactors
based on that when we have other options. I mean, I understand
even--is it Lockheed now that has a possibility of a fusion
reactor, small fusion reactor? Is that-- has anybody looked at
that?
Mr. Rothrock. They do. It's an experiment at this point,
and it's very small.
Mr. Rohrabacher. Right. And is that real? Is that----
Mr. Rothrock. I don't know. I've not----
Mr. Rohrabacher. Any comments on it? Is it just some kind
of a dream that isn't attached to reality there?
Again, there's--we have some new weapon systems right now
that we need small modular nuclear reactor in order to make
those weapon systems work, and I sure hope that's one part of
the formula but the other part of the formula is, our grid. The
grid is vulnerable, and if we can have small modular nuclear
reactors, we can take the public off the grid. We can have--
each community can have their small reactor and you're not
going to have this vulnerability that we have now with some
solar surge or some nuclear explosion up in the atmosphere. We
need to move forward in a rational way, and I'm afraid that
we're moving forward with big companies now that basically want
to build what they've already built, and I hope that's not the
case.
Thank you very much, Mr. Chairman. Thank you for leading
the fight to put this bill through and get this passed.
Chairman Weber. I thank the gentleman. Does that mean
you've signed on to our bill?
Mr. Rohrabacher. I think I already have.
Chairman Weber. All right. Thank you. I appreciate that.
I want to thank the witnesses for their valuable testimony
and the members for their questions. The record shall remain
open for two weeks for additional comments and written
questions from the members.
This hearing is adjourned.
[Whereupon, at 12:10 p.m., the Subcommittee was adjourned.]
Appendix I
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Additional Material for the Record
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