[House Hearing, 113 Congress] [From the U.S. Government Publishing Office] . A REVIEW OF THE NATIONAL EARTHQUAKE HAZARDS REDUCTION PROGRAM ======================================================================= HEARING BEFORE THE SUBCOMMITTEE ON RESEARCH AND TECHNOLOGY COMMITTEE ON SCIENCE, SPACE, AND TECHNOLOGY HOUSE OF REPRESENTATIVES ONE HUNDRED THIRTEENTH CONGRESS SECOND SESSION __________ JULY 29, 2014 __________ Serial No. 113-88 __________ Printed for the use of the Committee on Science, Space, and Technology [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Available via the World Wide Web: http://science.house.gov _____________ U.S. GOVERNMENT PUBLISHING OFFICE 89-417PDF WASHINGTON : 2015 ________________________________________________________________________________ For sale by the Superintendent of Documents, U.S. Government Publishing Office, Internet:bookstore.gpo.gov. Phone:toll free (866)512-1800;DC area (202)512-1800 Fax:(202) 512-2104 Mail:Stop IDCC,Washington,DC 20402-001 COMMITTEE ON SCIENCE, SPACE, AND TECHNOLOGY HON. LAMAR S. SMITH, Texas, Chair DANA ROHRABACHER, California EDDIE BERNICE JOHNSON, Texas RALPH M. HALL, Texas ZOE LOFGREN, California F. JAMES SENSENBRENNER, JR., DANIEL LIPINSKI, Illinois Wisconsin DONNA F. EDWARDS, Maryland FRANK D. LUCAS, Oklahoma FREDERICA S. WILSON, Florida RANDY NEUGEBAUER, Texas SUZANNE BONAMICI, Oregon MICHAEL T. McCAUL, Texas ERIC SWALWELL, California PAUL C. BROUN, Georgia DAN MAFFEI, New York STEVEN M. PALAZZO, Mississippi ALAN GRAYSON, Florida MO BROOKS, Alabama JOSEPH KENNEDY III, Massachusetts RANDY HULTGREN, Illinois SCOTT PETERS, California LARRY BUCSHON, Indiana DEREK KILMER, Washington STEVE STOCKMAN, Texas AMI BERA, California BILL POSEY, Florida ELIZABETH ESTY, Connecticut CYNTHIA LUMMIS, Wyoming MARC VEASEY, Texas DAVID SCHWEIKERT, Arizona JULIA BROWNLEY, California THOMAS MASSIE, Kentucky ROBIN KELLY, Illinois KEVIN CRAMER, North Dakota KATHERINE CLARK, Massachusetts JIM BRIDENSTINE, Oklahoma RANDY WEBER, Texas CHRIS COLLINS, New York BILL JOHNSON, Ohio ------ Subcommittee on Research and Technology HON. LARRY BUCSHON, Indiana, Chair STEVEN M. PALAZZO, Mississippi DANIEL LIPINSKI, Illinois MO BROOKS, Alabama FEDERICA WILSON, Florida RANDY HULTGREN, Illinois ZOE LOFGREN, California STEVE STOCKMAN, Texas SCOTT PETERS, California CYNTHIA LUMMIS, Wyoming AMI BERA, California DAVID SCHWEIKERT, Arizona DEREK KILMER, Washington THOMAS MASSIE, Kentucky ELIZABETH ESTY, Connecticut JIM BRIDENSTINE, Oklahoma ROBIN KELLY, Illinois CHRIS COLLINS, New York EDDIE BERNICE JOHNSON, Texas BILL JOHNSON, Ohio LAMAR S. SMITH, Texas (II) C O N T E N T S July 29, 2014 Page Witness List..................................................... 2 Hearing Charter.................................................. 3 Opening Statements Statement by Representative Larry Bucshon, Chairman, Subcommittee on Research and Technology, Committee on Science, Space, and Technology, U.S. House of Representatives...................... 7 Written Statement............................................ 9 Statement by Representative Scott Peters, Subcommittee on Research and Technology, Committee on Science, Space, and Technology, U.S. House of Representatives...................... 10 Written Statement............................................ 12 Statement by Representative Eddie Bernice Johnson, Ranking Member, Committee on Science, Space, and Technology, U.S. House of Representatives............................................. 14 Written Statement............................................ 16 Witnesses: Panel I Dr. John R. Hayes, Jr., Director, National Earthquake Hazards Reduction Program, National Institute of Standards and Technology Oral Statement............................................... 18 Submitted Biography.......................................... 21 Dr. Pramod P. Khargonekar, Assistant Director, Directorate of Engineering, National Science Foundation Oral Statement............................................... 38 Written Statement............................................ 40 Dr. David Applegate, Associate Director for Natural Hazards, U.S. Geological Survey Oral Statement............................................... 48 Written Statement............................................ 50 Mr. Roy E. Wright, Deputy Associate Administrator for Mitigation, Federal Emergency Management Agency Oral Statement............................................... 58 Written Statement............................................ 60 Panel II Dr. Julio A. Ramirez, Professor of Civil Engineering, NEES Chief Officer and NEEScomm Center Director, George E. Brown Jr., Network for Earthquake Engineering Simulation (NEES), Purdue University Oral Statement............................................... 84 Submitted Biography.......................................... 86 Dr. William U. Savage, Consulting Seismologist, William Savage Consulting, LLC Oral Statement............................................... 98 Written Statement............................................ 100 Mr. Jonathon Monken, Director and Homeland Security Advisor, Illinois Emergency Management Agency Oral Statement............................................... 107 Written Statement............................................ 109 Dr. Andrew S. Whittaker, Professor and Chair, Director MCEER; Department of Civil, Structural and Environmental Engineering, University at Buffalo, State University of New York Oral Statement............................................... 115 Written Statement............................................ 117 Discussion....................................................... 57 Appendix I: Answers to Post-Hearing Questions Dr. Pramod P. Khargonekar, Assistant Director, Directorate of Engineering, National Science Foundation....................... 134 Mr. Roy E. Wright, Deputy Associate Administrator for Mitigation, Federal Emergency Management Agency............................ 144 Dr. Julio A. Ramirez, Professor of Civil Engineering, NEES Chief Officer and NEEScomm Center Director, George E. Brown Jr., Network for Earthquake Engineering Simulation (NEES), Purdue University..................................................... 149 Dr. William U. Savage, Consulting Seismologist, William Savage Consulting, LLC................................................ 152 Mr. Jonathon Monken, Director and Homeland Security Advisor, Illinois Emergency Management Agency........................... 154 Dr. Andrew S. Whittaker, Professor and Chair, Director MCEER; Department of Civil, Structural and Environmental Engineering, University at Buffalo, State University of New York............ 156 Appendix II: Additional Material for the Record Statement submitted by Representative Daniel Lipinski, Ranking Minority Member, Subcommittee on Research and Technology, Committee on Science, Space, and Technology, U.S. House of Representatives................................................ 160 Letters submitted by Representative Larry Bucshon, Chairman, Subcommittee on Research and Technology, Committee on Science, Space, and Technology, U.S. House of Representatives........... 162 Letter submitted by Mr. Jay Berger, Executive Director, Earthquake Engineering Research Institute...................... 166 A REVIEW OF THE NATIONAL EARTHQUAKE HAZARDS REDUCTION PROGRAM ---------- TUESDAY, JULY 29, 2014 House of Representatives, Subcommittee on Research and Technology, Committee on Science, Space, and Technology, Washington, D.C. The Subcommittee met, pursuant to call, at 10:04 a.m., in Room 2318 of the Rayburn House Office Building, Hon. Larry Bucshon [Chairman of the Subcommittee] presiding. [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Good morning. The Subcommittee on Research and Technology will come to order. Welcome to today's hearing entitled ``A Review of the National Earthquake Hazards Reduction Program.'' In front of you are packets containing the written testimony, biographies, and truth-in-testimony disclosures for today's witnesses. I recognize myself for five minutes now for an opening statement. Earthquakes present a potential hazard to every State in our Nation. The U.S. Geological Survey recently updated its National Seismic Hazards Maps with research identifying that in the next 50 years, 42 of our 50 states have a chance of experiencing damaging ground shaking from an earthquake. There are 16 States in the United States that have a high likelihood of experiencing damage because they have sustained earthquakes with a seismic magnitude of 6 or greater. My home State of Indiana is at risk of experiencing the effects of earthquakes stemming from the New Madrid fault. Earthquakes are unique among natural hazards because they strike without warning. The cascading nature of an earthquake can induce secondary effects such as landslides, liquefaction, and tsunamis. Earthquakes impact people and communities worldwide from the devastation of loss of life and property to the turmoil caused by the disruption of important services, including water, electricity, and other utilities or lifelines including roads and bridges. In 1977 the Congress passed the Earthquake Hazards Reduction Act establishing the National Earthquake Hazards Production Program, or NEHRP, as a long-term earthquake risk- reduction program for the United States. Four federal agencies contribute to NEHRP research and activities: the National Institute of Standards and Technology, the National Science Foundation, the United States Geological Survey, and the Federal Emergency Management Agency. Program activities are focused on supporting the development of earthquake hazard reduction measures, promoting the adoption of these measures by federal, state, and local governments, improving the understanding of earthquakes and their effects on people and infrastructure, and developing and maintaining the Advanced National Seismic System, the George E. Brown, Jr. Network for Earthquake Engineering Simulation, or NEES, and the Global Seismic Network. In Indiana, Purdue University leads the collaborative George E. Brown, Jr. Network for Earthquake Engineering Simulation, or NEES. The mission of NEES is ``to accelerate improvements in seismic design and performance by serving as an indispensable collaboratory for discovery and innovation.'' Support for research and activities that strengthen preparedness for, reduce the impact of, and aid in recovery from earthquakes will fortify the Nation's ability to respond to earthquake hazards. Today's hearing is a bipartisan effort to learn about NEHRP and understand the Nation's level of earthquake preparedness. We worked across the aisle to bring together two panels of experts who can shed light on these important issues. I look forward to hearing from all the witnesses on both of our panels to understand the work of the NEHRP agencies and how that work intersects with engineers, emergency managers, and lifeline experts. [The prepared statement of Mr. Bucshon follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. At this point I ask unanimous consent to put two letters in the record regarding the NEHRP program: a letter from the American Society of Civil Engineers and a letter from the BuildStrong Coalition. Without objection, so ordered. [The information appears in Appendix II:] Chairman Bucshon. At this point I now recognize the gentleman from California, Mr. Peters, for an opening statement. Mr. Peters. Thank you, Mr. Chairman. Thank you for holding this hearing today on the National Earthquake Hazards Reduction Program, or NEHRP, an unfortunate acronym for an important program. I want to thank witnesses on both panels for being here today. Though infrequent, earthquakes are unique among natural hazards in that they strike without warning. While areas like my home State of California, in addition to Oregon, Washington, and Alaska, are the most well-known for earthquakes, earthquakes are not a hazard confined to the West Coast. A 2011 earthquake here in Washington, D.C., caused over $200 million in damages, including damage to the Washington Monument and the Smithsonian, and it is estimated that 75 million Americans in 39 States are exposed to significant seismic risk and nearly all states in the United States have some level of risk. In an effort to mitigate the harmful impacts and better prepare for future earthquakes, Congress authorized the National Earthquake Hazards Reduction Program, an interagency program that includes the National Institute of Standards and Technology, the National Science Foundation, Federal Emergency Management Agency, and the United States Geological Survey. Since NEHRP was founded in 1977, we have learned a lot about how to prepare for, mitigate, and respond to a large- scale earthquake. Research programs, including ones at the University of California San Diego and San Diego State University, are underway to help us better understand earthquakes, develop safer building construction standards, and ensure that affected communities can respond to and recover from earthquakes as quickly as possible. But more work is needed. I am pleased we have representatives today from all four agencies here to testify about their activities to reduce the risks of life and property from earthquakes in the United States. I am also pleased that we will hear from outside stakeholders, both private sector and academic, about how the program is working and what if any changes are needed to improve its effectiveness. As my colleagues may know, the reauthorization of these risk-reduction programs is long overdue. The authorization for this program expired in 2009. Interagency programs like these improve our understanding of earthquakes and then turn that knowledge into mitigation and outreach activities that will save lives and reduce economic damages. While we can't prevent natural disasters, we can do more to lessen the cost to human life and property. Over the last two years the federal government has spent more than $136 billion, much of it off-budget, on relief for hurricanes, tornadoes, droughts, wildfires, and other extreme weather events. It is time that the government stops working in a reactive way to natural disasters and instead gets to work efficiently to get ahead of the issue and help States and localities find the best steps to prepare, plan for, and recover more quickly from these events. We know that for every $1 spent now in resiliency we can avoid at least $4 in future losses. It makes more sense to approach this by thinking how we can make our communities better prepared. If we are focused on reducing spending, let's do it in a way that saves us in the long run. Mr. Chairman, our goals are the same: to decrease the vulnerability of communities across the country including mine in San Diego. I look forward to working with my colleagues on both sides of the aisle on a bipartisan bill that would reauthorize the National Earthquake Hazards Reduction Program and welcome any comments from the witnesses about changes and updates that should be made to the authorization language. Thank you, Mr. Chairman, for holding the hearing. I look toward to hearing the testimony, and I yield back the balance of my time. [The prepared statement of Mr. Peters follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you, Mr. Peters. I now recognize the Ranking Member of the full Committee for a statement, Ms. Johnson. Ms. Johnson of Texas. Thank you very much, Mr. Chairman, for holding this important hearing on the National Earthquake Hazards Reduction Program, or NEHRP. I also want to thank the Chairman of the full committee, Mr. Smith, for agreeing to this hearing. Chairman Smith agreed to hold a hearing on NEHRP and work on the NEHRP reauthorization bill while we were discussing the National Windstorm Impact Reduction Program. This hearing is a good first step in fulfilling that agreement. I want to thank the Chairman and majority staff for working with my staff on putting together this hearing. Though infrequent, earthquakes are unique among natural hazards in that they strike with little or no warning. In 1964 Alaska was hit with a great earthquake that measured 9.2 in magnitude. That was the second-strongest earthquake in recorded history and resulted in significant damage from both the earthquake itself and the tsunamis that followed. California has numerous active faults that have produced large earthquakes in the last two decades, from 1971, the San Fernando earthquake to the 1989 Loma Prieta and the 1994 Northridge earthquakes. In fact, NEHRP was established in Congress in response to the 1964 Alaska and the 1971 San Fernando earthquakes. Since its creation, NEHRP has accomplished a great deal. It has improved our understanding of earthquake processes, improved our earthquake hazard and risk assessments, improved earthquake safety for new and existing buildings, and increased public awareness of earthquake risk and mitigation techniques. But more work is still needed, including improving the earthquake resilience of communities nationwide and developing cost-effective measures to reduce earthquake impacts on individuals, the built environment, and society. To ensure that this work is accomplished, we need to reauthorize NEHRP, which has not had Congressional authorization since 2009. That is why I am a cosponsor of H.R. 2132, the Natural Hazards Risk Reduction Act of 2013, which was introduced by Representative Wilson last May. H.R. 2132 would reauthorize NEHRP program, as well as the National Windstorm Impact Reduction Program, and would make changes to the Fire Research Program. This legislation is modeled after bipartisan legislation that passed the House by an overwhelming margin in the 111th Congress. And I am pleased that the windstorm program is reauthorized in a separate bill, H.R. 1786, that was introduced by Representative Neugebauer, and I supported that bill when it passed the House earlier this month. However, I do believe we need to take a multi-hazards approach to disaster mitigation. Taking a multi-hazards approach could create opportunities for synergy among the various research and mitigation activities. Further, a multi- hazard approach could help achieve the goal of producing communities that are resilient to any and all disasters. I hope that as we work on a NEHRP reauthorization bill we look for opportunities to create synergies and coordination across the hazards program. I want to thank the witnesses from both panels for being here today, and it is important to hear from you as we consider reauthorizing this important program. I look forward to your testimony. Thank you, Mr. Chairman. I yield back. [The prepared statement of Ms. Johnson follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you. Just as a sideline, I have been in three earthquakes myself: one in Southern California in the late '80s; one in Illinois, southern Illinois when I was a kid; and one in Evansville, Indiana, in about 2001. So it is a fairly--if you have never been in an earthquake, it is a fairly unique experience. At this point if there are Members who wish to submit additional opening statements, your statements will be added to the record. [The prepared statement of Mr. Lipinski appears in Appendix II:] Chairman Bucshon. At this time I would like to introduce our first panel of witnesses. Our first witness today is Dr. John Hayes, Jr. Dr. Hayes is the Director of the National Earthquake Hazards Reduction Program of the Engineering Laboratory at the National Institute of Standards and Technology. Our next witness is Dr. Pramod--I said this before and now I will get it correct--Khargonekar is the Assistant Director for the Directorate of Engineering at the National Science Foundation. Welcome. Our third witness is Dr. David Applegate. Dr. Applegate is the Associate Director for Natural Hazards at the U.S. Geological Survey. And our final witness on the first panel is Mr. Roy Wright. Mr. Wright serves as the Federal Emergency Management Agency's Deputy Associate Administrator for Mitigation. As our witnesses should know, spoken testimony is limited to five minutes each. I now recognize Dr. Hayes for five minutes to present his testimony. TESTIMONY OF DR. JOHN R. HAYES, JR., DIRECTOR, NATIONAL EARTHQUAKE HAZARDS REDUCTION PROGRAM, NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY Dr. Hayes. Chairman Bucshon, Congressman Peters, and other Members of the subcommittee, thank you for inviting me to testify as you review the National Earthquake Hazards Reduction Program, or NEHRP, for possible reauthorization. Mr. Peters, I can assure you that the acronym NEHRP grows on you after a while so it works. In your invitation to me you asked me to address several topics and I will try to address each one of those briefly in my testimony this morning. NIST fulfills two broad roles within NEHRP. First, NIST performs statutory lead agency duties, including supporting an Interagency Coordinating Committee and the Advisory Committee on Earthquake Hazard Reduction, drafting and updating NEHRP's strategic plans, submitting annual NEHRP reports to Congress, and fostering interagency coordination and cooperation. Second, NIST performs applied research related to earthquake engineering, including developing performance-based design tools, guidelines, and standards for practitioners who design buildings to resist earthquake effects. A 2003 applied Technology Council report identified a major earthquake engineering technology gap between performing basic research and developing earthquake-related provisions for national model building codes and standards. NIST bridges this gap with its Applied Earthquake Engineering Research Program. In 2008 the NEHRP agencies produced a NEHRP strategic plan which guides NIST's way forward. The National Research Council, or NRC, developed a 20-year action plan for improving U.S. earthquake resilience, and in the process endorsed the NEHRP strategic plan. The Building Seismic Safety Council, or BSSC, formulated recommendations for applied research that point NIST toward addressing the broad research directions that were set by the NRC plan. NIST research projects address issues identified by leading earthquake engineering practitioners and researchers, as well as the work that was suggested by BSSC in its plan. NIST's research includes significant interactions with the NEHRP partners and continuous engagement with other leading earthquake researchers and practitioners. Alongside FEMA and USGS, NIST participates in the technical committees that develop new building codes and standards. This provides direct access to practicing engineers' needs and facilitates the effective transfer of new knowledge gained through NIST's research back to the practitioners. NIST's work is subdivided into program elements that includes seismic design technical briefs, codes and standards support projects, structural and geotechnical engineering- related projects, and planning projects that support both NIST and NEHRP-wide activities. Since 2008 NIST has produced approximately 30 reports on these topics that are in widespread use by practitioners and researchers alike. Webinars have also been developed to inform practitioners in the United States and around the world about these tech briefs. Coordination among the NEHRP agencies fosters synergies that complement agency capabilities. FEMA and USGS work closely on earthquake hazards definitions, hazard mapping, and earthquake monitoring. NIST and FEMA work closely in fulfilling the respective roles for engineering research and implementation and NIST has formed a very special partnership that involves frequent exchanges of project information and in some instances direct collaboration on critical projects. FEMA, USGS, and NIST work closely with NSF-supported researchers to ensure effective transfer of basic research knowledge into NIST's research programs. In closing, I note that NEHRP was created to address the reality that earthquakes are inevitable and occur without warning. NIST has done much to minimize their consequences but much more needs to be done. The NEHRP agencies translate NIST's research results into actions to ensure that Americans are less threatened by the effects of devastating earthquakes. The NEHRP agencies fulfill unique but complementary roles in a partnership not duplicated elsewhere. It is also important that I note that the NEHRP family extends well beyond the four NEHRP program agencies to other federal agencies, state and local governments, nongovernmental professional organizations, model building codes and standard organizations, and earthquake professionals both in the private sector and academia. Without these dedicated professionals, the NEHRP agencies could not satisfy the statutory responsibilities. Thank you again for the opportunity to testify this morning. This concludes my remarks and I am happy to answer any questions that you may have. [The prepared statement of Dr. Hayes follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you, Dr. Hayes. I now recognize Dr. Khargonekar for his testimony. TESTIMONY OF DR. PRAMOD P. KHARGONEKAR, ASSISTANT DIRECTOR, DIRECTORATE OF ENGINEERING, NATIONAL SCIENCE FOUNDATION Dr. Khargonekar. Chairman Bucshon, Ranking Member Lipinski, and other distinguished Members of the Subcommittee, it is my pleasure to be able to testify before you today on the topic of National Science Foundation's activities in earthquake hazards reduction. I am Pramod Khargonekar, Assistant Director for Engineering at NSF. Since the start of NEHRP, NSF has supported a broad range of fundamental research in geosciences, engineering, and social sciences relevant to the understanding of the causes and impacts of earthquakes. The Foundation also provides support for education of new scientists and engineers, the integration of research and education, and outreach to professionals and the public. Today, I would very briefly like to outline NSF's NEHRP efforts related to facilities, research, and coordination. NSF funds three distributed multiuser national facilities that support critical fundamental research relevant to NEHRP. The George E. Brown, Jr. Network for Earthquake Engineering Simulation, or NEES, the Geodesy Advancing Geosciences and EarthScope, or GAGE, and the Seismological Facilities for the Advancement of Geoscience and EarthScope, or SAGE. NEES currently provides access to 14 earthquake simulation experimental facilities located in eight States. The NEES facilities include shake tables, large-scale labs, geotechnical centrifuges, field testing equipment, and a tsunami wave basin. NEES operations are currently supported through an award to Purdue University covering the fiscal years 2010 to 2014. Following 2014, NSF has updated its strategy for the future of NEES operations, which will include NSF support for multiple NEES awards managed under a single program. This strategy maintains the NSF commitment earthquake research and infrastructure while aligning it more strategically under a multi-hazards approach. The GAGE and SAGE facilities provide key data, instrumentation, and educational information and basic research and education in the Earth sciences. Of particular relevance to NEHRP, SAGE supports the Global Seismographic Network, GSN, a worldwide array of 153 permanent seismic stations funded by NSF and USGS with additional support from the Departments of Energy, State, and Defense. Complementing these facilities, NSF funds a wide range of fundamental research into the processes that drive and control earthquakes and into the impacts of earthquakes on the built environment. This includes individual investigative grants, research centers, and a variety of research collaborations. NSF also supports rapid response activities to gather data from disaster sites using its RAPID funding mechanism. In the response to recent earthquakes in New Zealand and Japan, NSF supported over 30 RAPID awards. Another research effort conducted in partnership by NSF and USGS is EarthScope, an Earth science program to explore the structure of North America and provide a framework of broad integrated studies. Scientists using EarthScope data are developing a comprehensive understanding of the structure, dynamics, and evolution of North America. NSF supports multiagency collaboration on NEHRP activities through a variety of matters. In addition to research collaboration, NSF actively contributes to the NEHRP Program Coordination Working Group and the Interagency Coordinating Committee. Finally, NSF staff regularly briefs the NEHRP Advisory Committee for earthquake hazards reduction and responds to recommendations for NSF. In closing, I would like to leave you with two quick examples of some recent achievements of NSF-funded grantees. NSF-funded researchers have discovered how to make underground water lines that bend and move rather than snap and rupture in an earthquake. The Cornell team found that medium and high density polyethylene pipelines remain intact even when the Earth liquefies and shifts. The City of Los Angeles is now installing these pipelines the in Elizabeth Tunnel, which provides half the city's water supply. The second example concerns ports. In 2005 NSF supported a research project led by Georgia Tech which examined the seismic vulnerability of ports. Project researchers found that a majority of the ports located in the areas of high seismic risk had either no or only informal seismic risk mitigation plans. Utilizing unique NEES facilities, the project team developed a new approach for assessing and managing seismic risk in container ports. Mr. Chairman, NEHRP is a strong and dynamic program at NSF and we hope to continue to support research, education, and facilities to mitigate the impacts of earthquake hazards. I thank the Subcommittee for considering priorities for reauthorization of the program and appreciate the opportunity to testify today. Thank you. [The prepared statement of Dr. Khargonekar follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you very much. I now recognize Dr. Applegate for his testimony. TESTIMONY OF DR. DAVID APPLEGATE, ASSOCIATE DIRECTOR FOR NATURAL HAZARDS, U.S. GEOLOGICAL SURVEY Dr. Applegate. Great. Well, thank you, Chairman Bucshon and Congressman Lipinski, other Members of the Subcommittee. I very much appreciate the invitation for the U.S. Geological Survey to testify at this hearing. The USGS is proud to be part of the NEHRP four-agency partnership effort. I think it has been highly successful and continues to make valuable contributions to the Nation's resilience to earthquakes. As Jack Hayes noted, NEHRP is predicated on the recognition that while earthquakes are inevitable, their consequences are not and there is much that we can do as a nation to improve public safety when it comes to earthquakes and related hazards. Within NEHRP, each agency performs a distinct and complementary role essential for the overall success of the program. The heart of this partnership is a broadly shared commitment to translate research results into implementation actions that can reduce earthquake losses. That commitment involves collaboration that goes well beyond the four NEHRP agencies to include other federal partners, plus state, tribal, and local governments, universities, nongovernmental organizations, and the private sector, as reflected in the second panel. Carrying out its role within NEHRP, the USGS strives to deliver the data and information tools that engineers and design professionals, emergency managers, government officials, and the public need to prevent earthquake hazards from becoming earthquake disasters. With its partners, the USGS provides rapid and authoritative information on earthquake size and location, shaking intensity, and potential impacts. We develop hazard assessment maps and related products, we support targeted research to improve our monitoring and assessment capabilities, and we build public awareness of earthquake hazards. When damaging earthquakes strike here in the United States or around the world, the USGS delivers a broad suite of information tools that are made possible by our Advanced National Seismic System and the worldwide coverage of the Global Seismographic Network, which is a program involving USGS, the National Science Foundation, and the Incorporated Research Institutions for Seismology. The ANSS consists of a national backbone network, regional networks that are operated by state and university partners, the USGS National Earthquake Information Center, and ground and structure-based instruments concentrated in high-hazard urban areas. With funding from Congress since 2000, USGS and its partners have installed more than 2,800 new and upgraded stations out of a total of 7,100 that are targeted in the ANSS plan for full implementation of the system. Investments in ANSS have greatly improved the information available for emergency responders, engineering performance studies, and long-term earthquake hazard assessments. Recent earthquakes in Colorado, Oklahoma, and Virginia, that last one felt up and down the East Coast, have underscored the national nature of earthquake risk. One of the most important achievements that NEHRP has made is the translation of research into national models of the location and expected severity of earthquake shaking within specified time periods. These models are in turn used to generate maps that are incorporated into the seismic safety elements of building codes and standards. As you noted in your opening statement, earlier this month the USGS released the latest update of the National Seismic Hazard Maps, the timing coordinated with the consequent release of the next generation of model building codes and seismic safety standards, a process that involves close collaboration among USGS, FEMA, the Building Seismic Safety Council, American Society of Civil Engineers, International Code Council, and other organizations. Complementing the national maps, urban seismic hazard maps provide more detailed information on local site conditions for use in engineering and planning, most recently delivered for Evansville, Indiana. Looking forward, the Administration's 2015 budget continues several initiatives that Congress supported in 2014. In particular, I wish to highlight Earthquake Early Warning, which we see as representing the next advance in public safety. Modern seismic networks can in favorable circumstances provide a minute or more of warning before the onset of strong shaking. In a number of countries around the world, operational earthquake early warning systems exist today. The USGS has supported research and development toward establishing such a capability in California, and the test system is now operating and delivering warnings to a small group of test users. Considerable additional testing and equipment deployment will be required to create a robust and reliable warning system, but we are on our way. In conclusion, USGS and the Department of the Interior strongly support reauthorization of NEHRP. It has proven to be a successful partnership that continues to make valuable contributions to the Nation's resilience to earthquake and other hazards. Thank you, Chairman, for the opportunity to provide the Subcommittee with the USGS views, and I would be pleased to answer any questions. [The prepared statement of Dr. Applegate follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you very much. I now recognize Mr. Wright for his testimony. TESTIMONY OF MR. ROY E. WRIGHT, DEPUTY ASSOCIATE ADMINISTRATOR FOR MITIGATION, FEDERAL EMERGENCY MANAGEMENT AGENCY Mr. Wright. Good morning, Chairman Bucshon, Ranking Member Lipinski, and Members of the Subcommittee. I thank you for having me here today. I am Roy Wright, the Deputy Associate Administrator for Mitigation within the Department of Homeland Security's Federal Emergency Management Agency. It is my pleasure to be here today to discuss the National Earthquake Hazards Reduction Program and FEMA's principal responsibilities within that program. I want to start by giving you my simple bottom line. By including science into building codes, conducting outreach, and advancing mitigation, the NEHRP funds enable state-level efforts to better prepare for earthquakes. These actions make the Nation more resilient and better able to address this threatening hazard. As others have said this morning, these are no-notice events and they can be catastrophic. And we share the view that while earthquakes may be inevitable, disasters caused by earthquakes are not. This really guides everything that we do. FEMA and our NEHRP partners have made significant progress in earthquake safety since NEHRP was established 37 years ago. Although changing demographics and economic conditions present challenges, the program is committed to building on our progress, developing practical solutions to reduce or eliminate the earthquake risk, and ensuring our nation's continued resilience. I would briefly like to talk with you this morning about two areas of our focus: building codes and education. In terms of building codes, NEHRP primarily works with the National Codes and Standards to promote implementation of research results. That is, we work with stakeholders to ensure the promotion of and use of those building codes so that we all can be safer. For example, FEMA worked with the International Code Council and other partners in the 2009 edition of the International Residential Code to develop updated provisions for braced sheer wall panels which help ensure the stability of a structure. As you can see from the maps on the screens, adoption of these codes strong in some areas of the country, particularly those where they are most likely to experience an earthquake. It is something we are proud of and we have worked hard with our partners to achieve, but there is more to do. There are still too many areas where the risk is high but adequate building codes have not yet been adopted. This leaves these communities vulnerable to the impacts of potential earthquakes. We still have much more that needs to be done and we are committed to educating these communities on best practices and the importance of earthquake hazard mitigation, which brings me to our second area of focus: education. FEMA develops and supports public education and awareness programs on earthquake loss reduction, sharing best practices, and encouraging mitigation. We pursue all of this of course to create resilience and help ensure the safety of our citizens. I would like to give you but one example of our work in this area. After we were approached by the City of San Francisco, FEMA commissioned a study to examine whether it was possible to retrofit only the first story of a weak-story building without altering the rest. So a weak-story building is a multistory wood-framed building where the first floor is much weaker than the upper stories due to a garage or a storefront opening. FEMA published its findings and created an electronic tool that allows an engineer to assess the strength of walls on the first floor and upper floors. Then the engineer can virtually strengthen these walls and recalculate the strength. The goal is to strengthen the first floor just enough so the entire building can withstand an earthquake. As a Nation, our architects, engineers, local officials, homeowners, and our federal partners, we all have an indispensable role to play in preparing for earthquakes and mitigating their impacts. The NEHRP has done a commendable job in identifying the hazards, communicating the risks, and researching how we can protect our citizens. As we look forward to reauthorization, more must be done. It is not enough to educate the public about what earthquakes can do. Until we are able to convince the public to take action to address that risk, we have not truly implemented this program. We must continue to work together across the whole community to move beyond understanding risks to making concrete steps to mitigate and strengthen our collective resilience. Thank you and I appreciate the opportunity to come before you this morning and I look forward to your questions. [The prepared statement of Mr. Wright follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you very much. I would like to thank the witnesses for their testimony. I am reminding the Members that Committee rules limit questioning to five minutes. The Chair at this point will open the round of questions. The Chair recognizes himself for five minutes. Dr. Hayes notes in his testimony that maintaining the serviceability of lifeline systems is critical to societal resilience. What research and development is being supported through NEHRP related to lifelines in a seismic event and what more needs to be done? I will address that to Dr. Khargonekar first. Dr. Khargonekar. Chairman Bucshon, that is a very, very important question. We are funding research in this area at a number of institutions across the research universities in the United States. I don't have a list of projects that we are funding, but just to go back to the example I gave about high density polyethylene pipes, this is a major impact of the kind of work that NSF has supported in this space. Chairman Bucshon. You might just--when you do have that list might just submit that for the record so we will have that in the Congressional record what you are doing. Anyone else have any other comments? Dr. Hayes, you mentioned this in your testimony. Dr. Hayes. Yes, sir. If I could just comment briefly, the NEHRP agencies are currently in the process of wrapping up a study with a contractor who is examining all of the issues related to lifelines research and implementation. That report should be out sometime within 60 to 90 days, and it outlines what NSF-supported researchers at the basic level need to do, what NIST needs to do at the applied level, the kinds of things that USGS needs to do, and the kinds of things that FEMA needs to do to implement lifelines safety efforts as well. And one of the key issues there is that lifelines are absolutely critical to societal resilience in any given community around the country, and one of the main findings so far has been that no matter whether it is an earthquake or some other hazard, the disruptions to lifelines are really critical and we hope the study will help point all of us in the future on what we should be doing in that area. Dr. Applegate. Just very briefly, one area that we have been working on is developing scenarios that sort of play out the impacts of events, trying to make the hazard real to people before they have to go through the catastrophic event. And lifelines have been a very important part of that, getting the operators together, getting their input, understanding what those consequences--those cascading consequences are going to be, and particularly in California and Southern California and now with the new focus on the Hayward Fault in the Bay Area, what those impacts--what can be done before the event to change those outcomes. Chairman Bucshon. Thank you. Mr. Wright, part of the preparedness puzzle is learning how to work together and forming a seamless response and recovery effort. Can you comment on the coordination between federal, state, and local stakeholders and their roles in earthquake response? You had some of that in your testimony, but kind of talk about that a little more, and how do NEHRP stakeholders coordinate efforts with emergency responders? Mr. Wright. Absolutely. It is FEMA's responsibility to look across all hazards and ensure that we are prepared for them. And as we look at these seismic elements, very specific investments have been made. In 2011 there was a national-level exercise that looked across the New Madrid area where we brought together the totality of the federal family, but particularly working with the state emergency managers as well as the state and locals. We do this across the West Coast. And there is a particular relationship we share with the USGS on this by which we are directed to ensure that the kind of warnings and insights that can be given to us from the USGS then move its way out. That helps from a response and from a recovery. Obviously you look at these larger earthquakes that played out in California, Loma Prieta, and Northridge where significant dollars were made available under the Disaster Relief Fund after the event. But collectively, it is that kind of integrated respond that we do, and it is a long-standing relationship, particularly between myself and Dr. Applegate and others across our agencies to make that happen as cooperation with the state and locals. Chairman Bucshon. Yeah, because I think that is critically important along with the lifelines. The last earthquake I was in I was on the 6th floor of the hospital in Evansville, Indiana, and nothing happened but if that was an area where a hospital lost access to water and power that couldn't be restored quickly, it is a big issue. I didn't think it was an earthquake and the patient did. She was an elderly lady and she said I think it is an earthquake. I said no, it can't be an earthquake. So I turned on the TV and sure enough, it was an earthquake. I now recognize Mr. Lipinski for five minutes. Mr. Lipinski. Thank you, Mr. Chairman. Thank you for holding this hearing. I am very hopeful that we can do a NEHRP reauthorization soon. It was good to hear all the testimony today. I want to thank Dr. Applegate for work USGS has done with my staff and with me. We have gone through a few conversations about an earthquake that I felt sitting at my kitchen table at home that was--we believe was induced by some quarrying activity and there is more work going on with that. But it was very helpful for me to be able to have those discussions to try to get at and understand what had happened there, so I thank you for-- thank USGS for that. I wanted to ask Dr. Khargonekar about social science research. You mentioned in your testimony of the involvement of social science research and NSF's efforts on earthquake research. How does social, behavioral, and economic research help with planning effective risk mitigation efforts and how does--how is SBE research integrated into NSF's NEHRP activities? Dr. Khargonekar. Congressman Lipinski, thank you very much for that question, which is evidently very important. If you think about resiliency, which is certainly one of the major objectives, people's behavior plays a huge role in terms of how we can achieve systems that can recover from a major disaster. NSF is funding a number of projects in that area out of the Directorate of Engineering. We have a program on Infrastructure Management and Extreme Events that funds social science type of research. For example, how do we communicate risk? How do people respond to those types of communications? And things are changing. I mean with the mobile phones and cellular technologies and so forth, people are getting their information in very different ways than used to be the case before. We are funding research into the next frontier that can allow us to leverage all the advances in technology and couple it to people's perception of risk, the reactions to risk, and those types of activities. So we believe this to be a very important part of the research program. It is no good to come up with technological solutions that people don't use for improved public safety and the safety of themselves and their property and so on and so forth. Mr. Lipinski. Thank you. And I wanted to--the next thing I want to address is building codes and address this to Dr. Hayes and Mr. Wright. We know that strong and modern building codes are often cited as the most effective tools for limiting the impact of earthquakes. How do model building codes in the United States compared to building codes in other countries such as Chile, Haiti, Japan, and New Zealand? And what have we--what lessons have we learned about the design of resilient structures from the recent earthquakes in these countries that I mentioned? So, Dr. Hayes, do you want to begin? Dr. Hayes. I think our current building codes are actually quite comparable to those that you would see in some of the countries you mentioned, particularly New Zealand and Japan. They are not identical. They have evolved in slightly different ways, but the earthquake professional community around the world is extremely close-knit and the provisions that are in one country will bear a striking resemblance quite often to provisions in another country. The NEHRP agencies study the earthquake events that occur in other countries to try to learn from them, particularly when the building codes in those countries lead to construction that is very similar to what we see in our country. And we are very conscious of the earthquake that occurred down in Chile that led to a lot of interest here in the United States and also the one in New Zealand that occurred in Christchurch. And in Christchurch, we haven't yet had a chance to study that much about it, but a couple of things that have leaped out at us about Christchurch is that the liquefaction that occurred in the area is very similar to liquefaction that could occur in many earthquake-prone areas in our country, particularly in the middle United States. And the older buildings in Christchurch that were severely damaged bear a striking resemblance to the kinds of brittle or non-ductile buildings that you would see in many cities in the United States, and I think there is a lesson there that we all carry that these older buildings are really something that really need to be looked at very carefully in the future as we look at how we make our society more resilient. In New Zealand also I think that there was a realization that a moderate earthquake which people had thought might happen could be much more damaging than perhaps it was expected to be in Christchurch. That was a devastating event there and the area has not fully recovered yet over two years later. It is still working on doing that. In Chile, their primary means of engineered construction was in reinforced concrete, and it turns out that in Chile they have adopted much of the American Concrete Institute's provisions for seismic design in our country, but not all, and we have been studying what happened down there to learn from what went well and what didn't go so well in their buildings and have produced a couple of reports on that already. Mr. Lipinski. End of my time but if the Chairman would allow Mr. Wright--do you have anything to add? Mr. Wright. Just briefly to build on that. I think that what we learned from the work we see in Japan and Chile, we work with the other agencies that are here after those events and in particular to see how those elements will perform. Again, we are on a three-year cycle with the building codes in this nation by which we are continuing to make sure that those are being updated. The 2015 ones have now been set, and we would look to the kinds of things that we will learn from Christchurch and Chile in terms of what it would mean to inform the next cycle. Mr. Lipinski. Thank you. Chairman Bucshon. Thank you. I will just--sure--Dr. Khargonekar, go ahead. Dr. Khargonekar. Well, In the spirit of the question, I would like to offer an example. We supported a RAPID response team in Hawaii and Oregon State to perform a high resolution survey of damaged coastline around Japan after the Tohoku Earthquake. Now, cutting long story short, they have collect data and their results are now being used by the committee working on Chapter 6 on tsunami loads and effects for ASCE 7 standards. So we think that that is a great example where we fund research to go collected data, do all the work, and it comes back in effect. So we think that once the ASCE 7 standards are adopted, it will improve the whole building code in that particular section. Thank you. Mr. Lipinski. Thank you. Chairman Bucshon. Thank you. I now recognize Mr. Johnson for his line of questioning. Mr. Johnson of Ohio. Thank you, Mr. Chairman. And I want to thank our panel for being with us today. You know, while your agencies are the four NEHRP agencies as defined in statute, I understand that other agencies such as NASA also conduct seismic or earthquake-related research and activities. Have there been any related earthquake-related collaborations that your agencies participated in with other agencies? And if so, what were those agencies and can you give us any idea of the work that was done to help us better prepare for earthquakes? Any of you? Dr. Applegate. I can start on that one. Yeah, absolutely. It is a very good point. There are many different agencies that are involved in the earthquake arena and we actually have a White House Subcommittee on Disaster Reduction that brings together all of those agencies looking at different hazards and it is a way to bring this partnership in and coordinate with the broader effort. With NASA, the USGS works very closely on, for example, SAR technology, Synthetic Aperture Radar, where you can use overlapping images to see change patterns. And so using that remote sensing technology that has been developed through NASA has been very valuable for understanding the damage patterns, for example, after events. We also work very closely with the U.S. Nuclear Regulatory Commission. Of course they have very specific concerns and issues as they ensure the safety of the Nation's nuclear power plants and they have supported some tremendous research looking at particularly some of these sort of very long-term--you know, the Black Swan type events and events in the eastern and central United States. So there are a number of other agencies that play a key role here. Mr. Johnson of Ohio. Okay. Thank you. Anybody else? Dr. Khargonekar. On the disaster recovery side of the problem, we work closely with other agencies such as Department of Transportation on developing plans on how one would recover from disasters. We have ongoing research projects and activities that bring together these communities. Mr. Johnson of Ohio. Okay. All right. Well, thank you. Shifting gears just a little bit, talking about earthquake hazard mitigation, what type of research in your opinion is needed to better understand and encourage people to adopt earthquake hazard mitigation measures? I mean what is our greatest weakness in terms of our current approach to earthquake mitigation? Mr. Wright. Well, I will start. It is--the country's understanding of risk is a very difficult thing to somehow pierce through. We see this across many of the natural hazards by which they may understand that there is a hazard that could affect them but they somehow believe that it won't necessarily impact them the day that it occurs, this kind of cognitive dissonance that sits there. And so it is that kind of partnership that goes towards that social science research that helps us get past those next kind of pieces. You look across the Nation and, as I was showing the map of it earlier, about--there are high seismic risks in parts of the country, yet the element that we know does the most to help mitigate that related to building codes, many have not chosen yet to adopt those. And so these elements are things we continue to collaborate, particularly with the National Science Foundation, but others as well in terms of how do we link what we know on the seismic side with the social science side? Mr. Johnson of Ohio. So it is kind of ``it is not likely to happen to me'' syndrome that we are dealing with? Mr. Wright. That is exactly the case. And we struggle with this across a whole range of hazards that we would deal with in an emergency management space, but these kind of no-notice events that happen on sort of a severe or catastrophic level on a far less frequent basis really allow people's attention to them to erode. Dr. Khargonekar. I would like to just add a few comments to what was stated. You know, one of the questions you may ask is what is the impact of having insurance on people's behavior in adoption of solutions? So we funded again collaborative research with colleagues in New Zealand because their situation is very similar to the United States' situation with respect to insurance, and we are funding research, we are collecting data from Christchurch to see what was the impact of having different kinds of insurance on people's behaviors and decisions, so it is sort of the social, behavioral science type of activity, and that complements what was said earlier. Mr. Johnson of Ohio. So do you have any examples of low- hanging fruit in overcoming that risk avoidance or lackadaisical attitude if you will? I guess that is a good way to phrase it. Any ideas on how we go about penetrating that? You talked about some of them but---- Mr. Wright. I think part of what we have found when we deal with these issues some of it happens from a grassroots perspective but local elected leaders and particularly the economic drivers in the community often are the kind of place by which they are able to provide the kind of leadership in a State--you look at--there are particular things that happen in some of the major industries that are in the Memphis area and how they began to really lean forward in this space and work with those local electives to pay more attention to this kind of risk. Mr. Johnson of Ohio. Okay. Well, thank you. Mr. Chairman, I yield back. Chairman Bucshon. Thank you. I would like to just comment on what you talked about briefly and I think in healthcare we are acutely aware of people's lack of understanding of statistical probability. I think it may start in grade school where we are not doing a good enough job for people, in all seriousness, understanding statistics, and that is very important. Without that understanding, you can't really figure out what the risk is so---- Mr. Wright. Without question. Chairman Bucshon. Yes. Mr. Collins, I recognize you for five minutes. Mr. Collins. Thank you, Mr. Chairman. I am kind of a private sector guy. I am new to Congress but I have spent decades in the private sector, and I always come to work and when I tour companies now, the first thing I look for on the wall is a vision statement. Why did you come to work today? And a mission statement, what are we going to try to accomplish? And I always talk about five-year strategic plan and so forth and so on, just very metric-driven and results- oriented. So I guess with half the money--Dr. Applegate, for NEHRP, more or less half of it going to your agency, and I know you are natural hazards so that is beyond just earthquakes, but a simple question. Is there an underlying vision statement and/or mission statement related to the work that we are doing on earthquakes that somebody would see when they come to work and say this is the Holy Grail? Or--and is there a strategic plan within your organization? And if so, are there like three things you could point to, ABC, that you accomplished last year and three more this year and three more next year, just kind of hard things? Dr. Applegate. Sure, absolutely. Working in the broader hazards mission of the USGS, and I oversaw these earthquake efforts previous to that, yes, you know why you get up in the morning and it is about making the American people safer. It is as simple as that. It is a public safety mission. We are trying to ensure that science is there to help people when the event strikes so that we are providing the situational awareness, where the shaking is most intense, what the emergency managers need to be able to respond, what the public needs to know. But the most important things we do are what happens before the event and that is what has been talked about a lot here. We use our seismic hazard assessments to bring everything that we know about the hazard both from the fundamental research coming through NSF, as well as the targeted research we do that feeds then into the building code process and helps to make people safer. So you have the one element is the monitoring, the situational awareness; the other is the assessment understanding so that you can build buildings that are going to be safe for people. And the third piece of it is education. It is just what we were talking about. How do you make these hazards real to people? And so we do a lot with our agency partners in the public preparedness arena, the shakeout events which now-- started in California but they now involve--I think we are up to about 38 of the States--FEMA has been a big supporter of this--to simply get people to participate in drop, cover, and hold drills and do one of the things to protect themselves. Jack would be the best to talk about the broader NEHRP strategic plan. Within USGS, we have nested our earthquake hazards program plan within that broader NEHRP strategy as well as within our broader natural hazards mission. Mr. Collins. Now, I would think early warning would go a long way. And I understand we have got a pilot program in California, but if there is probably anything that could truly save lives, you can't prevent the earthquake, but if somebody had even the one- or two-minute warning, it---- Dr. Applegate. Absolutely. I mean I think what we saw in the Japan, there are three key elements. I mean there were relatively low--from the magnitude 9 earthquake, giant earthquake that struck that country, relatively low fatalities from the earthquake shaking itself, probably in the order of maybe 100, 150. That reflects three things. One of them is building codes. They were--people were in buildings that did not collapse, and that is I think the first thing and the most important. Then it is that public awareness, that culture. The third thing is they have early warning and so people did receive the notice before the shaking event so they could get themselves safe. There are a lot of things that can be done even with just a few seconds. And so we are trying to move towards that for that very reason. Mr. Collins. Do you have a goal in mind there? Again, back to vision statements, is there a goal to have early warning at least in the most critical areas by date certain and is there a way to measure that? And---- Dr. Applegate. Yes. We have just recently issued an implementation plan for earthquake early warning for the West Coast, so the beginning phase is the pilot effort in California expanding up the West Coast. But in many ways the high hazard areas, for example, in the central United States where you are likely to have shaking experienced over very broad areas, you would actually get additional time before that shaking arrives, so less frequent events but the potential for damage over much broader areas. So, yes, absolutely, we have those plans in place. We would be very happy to share those. Mr. Collins. Yeah. No, thank you very much. It looks like my time is expired. I yield back, Mr. Chairman. Chairman Bucshon. Thank you. And at this point I would like to thank the witnesses for your valuable testimony. It is a very fascinating subject. The Members of the committee may have additional questions as we asked about the list of funding projects for you and we will ask you to respond to those in writing. The witnesses are excused, and at this point we will take a very short break prior to the next panel. Thank you very much. [Recess.] Chairman Bucshon. Thank you very much. Now, I will introduce our witnesses for our second panel. Our first witness of our second panel is Dr. Julio Ramirez. Dr. Ramirez is Professor of Civil Engineering, Chief Officer of the Network for Earthquake Engineering Simulation and NEEScomm Center Director at the George E. Brown, Jr. Network for Earthquake Engineering Simulation at Purdue University. And I have visited their facility; it is a great facility. Our second witness is Dr. William Savage, Manager of William Savage Consulting, LLC. He is also an Adjunct Professor in the Department of Geoscience and Department of Civil and Environmental Engineering and Construction at the University of Nevada Las Vegas. Our third witness is Mr. Jonathan Monken, Director of the Illinois Emergency Management Agency. Mr. Monken previously served as Acting Director of the Illinois State Police and possesses a distinguished military career having served in Kosovo and Iraq. Thank you for that service. It is much appreciated. Our final witness is Dr. Andrew Whittaker. Dr. Whittaker is Professor and Chair of the Department of Civil, Structural, and Environmental Engineering at the University at Buffalo, and the Director of MCEER. As our witnesses know, spoken testimony is limited to five minutes each, after which Members of the committee will ask questions for five minutes. Your written testimony will be included in the record of the hearing. I now recognize our first witness, Dr. Ramirez, for five minutes. TESTIMONY OF DR. JULIO A. RAMIREZ, PROFESSOR OF CIVIL ENGINEERING, NEES CHIEF OFFICER AND NEESCOMM CENTER DIRECTOR, GEORGE E. BROWN JR., NETWORK FOR EARTHQUAKE ENGINEERING SIMULATION (NEES), PURDUE UNIVERSITY Dr. Ramirez. Good morning and thank you for the opportunity, Chairman Bucshon, Congressman Lipinski, and distinguished Members of the panel, to testify before the Congress as you work to reauthorize the National Earthquake Hazards Reduction Program, NEHRP. I am Julio Ramirez, a Professor of Structural Engineering in the School of Civil Engineering of Purdue University in West Lafayette, Indiana, and the Chief Officer of the NSF-funded George E. Brown, Jr. Network for Earthquake Engineering Simulation, NEES. Existing vulnerable buildings and infrastructure assets are the number one seismic safety problem in the United States and the world today. Since the 1980s, I have been involved in the development of building codes and conducted research in earthquake safety of buildings and bridges. I have lead or participated in some eight reconnaissance missions starting with the earthquake of Northridge, California. The central purpose of these missions was to gather perishable data on the performance of bridges and buildings following major earthquakes to distill lessons to improve the seismic resilience of our society. The NEHRP vision is for a nation that is earthquake- resilient with regard to public safety, economic strength, and national security. NEHRP provides the critical support structure for seismic protection in the United States. The NSF provides the fundamental research arm of NEHRP supporting research in engineering, Earth, and the social sciences. To mitigate the earthquake risk by reducing the vulnerability of the built environment, the NSF-funded NEES originated in 2004 as a national multiuser research infrastructure, and its central mission aligns with the larger NEHRP national plan for earthquake risk reduction. May I have the first slide, please? [Slide.] Dr. Ramirez. NEES laboratories are used for research conducted or funded by the NSF, other government agencies, and by private industry. To date, more than 400 multiyear, multi- investigative projects have been completed or are in progress at NEES sites. These projects are yielding a wealth of valuable experimental data and continue to produce informational research and outcomes that impact the engineering practice from building models to design guidelines and codes. Information on the impact of NEES work is submitted with my written testimony as Reference 3, ``NEES, 2004-2014, A Decade of Earthquake Engineering Research.'' In this document there are--there is information regarding lifelines projects that have been funded by NSF and many other references as well. The human capital gain in this activity represented by the more than 2,000 graduate and undergraduate students that have participated in on-site of NEES researchers also supports the United States in retaining a competitive edge in the STEM areas. Many of the world's global challenges such as the mitigation of earthquake risk can best be met with a strong presence of engineers working in teams with social scientists and other experts, yet the number of U.S. engineering students is declining. Purdue University and our College of Engineering have taken a leadership role as part of a national call to graduate 10,000 more engineers per year enhancing our state and national capacity for innovation, economic growth, and solutions to global challenges. Next slide, please. [Slide.] Dr. Ramirez. Linking the NEES experimental facilities to its users in the community is the NEES cyber infrastructure. This unique system of IT resources enables researchers participating at the facilities or remotely to collect, view, process, and store data from NEES experiments and to conduct numerical simulations with access to key U.S. high-performance computing resources. At the heart of this system is NEEShub, a platform designed to facilitate information exchange and collaboration among earthquake engineering research and other stakeholders. NEEShub features the NEES Data Repository with over 2.5 million data files. This public repository is used to store and share data of research and research results. Final slide, please. [Slide.] Dr. Ramirez. Since the first release of NEEShub in August 2010 it has served tens of thousands of users of more than 200 countries. In conclusion, maintaining a balanced program supporting research and the Earth science, engineering, and social sciences is important. In achieving resilience of communities against earthquakes and tsunamis, engineering-related research is of the highest priority as it directly impacts the mitigation of the extent of damage to the built environment and can reduce the time needed for recovery. Thank you. [The prepared statement of Dr. Ramirez follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you very much. I recognize Dr. Savage for five minutes for his testimony. TESTIMONY OF DR. WILLIAM U. SAVAGE, CONSULTING SEISMOLOGIST, WILLIAM SAVAGE CONSULTING, LLC Dr. Savage. Thank you, Chairman Bucshon, Ranking Member Lipinski, and Members of the Subcommittee. I am speaking to you today on behalf of the Seismological Society of America, a scientific organization devoted to the advancement of seismology and the understanding of earthquakes for the benefit of society. I also am speaking specifically about lifelines and my experience there devolves from 15 years working for Pacific Gas and Electric Company in San Francisco in the late '80s until 2000. My written testimony addresses four pertinent questions that I was asked. Although there is not time this morning to cover all four, I would like to discuss the question asked about my views on the Nation's level of earthquake preparation and resiliency regarding lifelines, particularly the urban utility systems for electric power, natural gas, potable water, and wastewater. These systems are the underpinning of our modern society. To get to the essential point, I personally think that we actually do not know how resilient our urban utilities systems are in terms of their operability to deliver customer service after the next strong earthquake. Utility personnel may have opinions one way or another but they generally do not have a strong objective basis for a definitive statement. In my written testimony I briefly discussed four guideline documents prepared by FEMA's American Lifelines Alliance that use currently available information to provide guidance for conducting such assessments for the four types of urban utility systems. The guidance calls for systematic and quantitative consideration of the two key aspects of each assessment: first, specification of the local and regional earthquake hazards, both ground shaking and ground failures; and secondly, estimation of the expected performance of the utility system components given the hazard and the impact of the expected performance on customers. The American Lifelines Alliance guidelines can only go so far in giving a rigorous answer to questions about what would happen if this or that earthquake occurred. The next stage of lifeline resiliency assessment is calling for development of more refined hazard characterizations using advances in geotechnical and seismological modeling to estimate ground motions and ground failures. The U.S. Geological Survey is already engaged in research that is leading to such advances. Performance modeling of pipelines, substation equipment, overhead transmission structures, et cetera, is also advancing with NSF and NIST exploring research in these areas. Operating utilities and related professional organizations are evaluating the benefits of such advances and are likely to help fund them. These advances are necessary to achieve a high level of confidence in understanding the earthquake performance of lifeline components and thus the resiliency of utility operations. One of the mechanisms to pursue this goal is a reauthorized NEHRP program. Authorization of this valuable program provides continuity and stability for the NEHRP agencies. In closing, I should point out the obvious. There are two ways to find out if a utility lifeline is resilient to earthquakes. The first way is to invest in improved hazard characterizations and performance models for lifelines and plan to mitigate the unacceptable risks. The second way is to just wait and see what happens in the next damaging earthquake. Thank you for the opportunity to speak before you and I would be happy to answer any questions you may have. [The prepared statement of Dr. Savage follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Yeah, hopefully we can use the former in that to figure this out. I now recognize Mr. Monken for five minutes for his testimony. TESTIMONY OF MR. JONATHON MONKEN, DIRECTOR AND HOMELAND SECURITY ADVISOR, ILLINOIS EMERGENCY MANAGEMENT AGENCY Mr. Monken. Thank you very much, Chairman Bucshon, Ranking Member Lipinski. I very much appreciate the opportunity to be here to speak with all of you and represent the Illinois Emergency Management Agency, Governor Quinn, and the State of Illinois to discuss this incredibly important program of the National Earthquake Hazards Reduction Program. So it is a critical asset not just in our ability to work with the earthquake hazard but all hazards because it is really about that collaborative nature that the program is really founded under. My biggest concern right now with the program overall is that the collaborative nature in which it was founded to execute is something that we have kind of strayed from over the course of the past few years. And there is a variety of different reasons why that has happened, but right now, it comes at a time when the risk of this particular hazard, we are gaining a better understanding of it and we are certainly seeing both increased frequency of seismic activity and we are getting a better understanding of the severity of the potential threat. And that was mentioned earlier with the USGS's release of their updated earthquake hazard maps and some of the statistics that we see just from the last few years. So taken in context in Illinois and the central United States, that area of the country on average from 1981 to 2011 saw an average of 20 earthquakes per year. In the last three years we have seen a quintuple increase in the frequency of earthquakes to the tune of 100 earthquakes per year. So this in another itself is certainly concerning but it also highlights the importance of what we are talking about here. Now, it is a little-known fact that the most powerful earthquake in the continental United States in history actually happened in the central United States in 1811 and 1812 when a 7.7 magnitude earthquake struck and two aftershocks. If a comparable magnitude earthquake struck today in the same area, it would cause economic damage to the total of about $300 billion. Put into context, Hurricane Katrina, the most expensive U.S. disaster in history to date, was $106 billion. So there is a lot of progress that we can make in a lot of things that we have seen to make progress in this area in the emergency management community. A specific example is the CAPSTONE-14 exercise conducted in June of this year when we had an opportunity for 2,500 personnel in 20 States to participate in this four-day event. We beta-tested the first-ever multistate common operating picture sharing more than 13,000 real-time status updates of critical data from 440 counties and seven impacted states. Additionally, we launched the first National Resource Database with more than 500 mission-ready packaged asset deploying from 18 different states across the country. The tools and processes created for this exercise have fundamentally changed the way we plan for, respond to, and recover from disasters of all types. Additionally, we developed awareness campaigns such as the Great U.S. ShakeOut with millions of people participating across the country. We also improved school safety drills and created public service announcements to educate those in areas of the country where the threat still remains a relative unknown. Despite these successes, these efforts also served to identify gaps in our systems and capabilities, as well as the inherent weaknesses in our critical infrastructure and life- support systems. The problem in front of us now is, because of these issues, right now the track of NEHRP really threatens to not only lose some of the lessons that we have learned in recent years but really take us back to a time that predates the existence of the program. Some of these problems began with the expiration of the NEHRP authorization of 2009, as has been discussed extensively today, and the lack of reauthorization since then. This program absolutely deserves to be a legislative priority and balance should be restored in terms of how the program is governed and funded. While emergency management plays a significant role in earthquake preparation response and mitigation, only 1 of the 15 Members of the NEHRP Advisory Committee actually comes from the emergency management profession. From a funding perspective, emergency management is also grossly underrepresented, receiving less than seven percent of all funds allocated for this particular threat. To make matters worse, the state-level earthquake program managers are rapidly disappearing due to a decision by the Federal Emergency Management Agency pulling all state funding in Federal Fiscal Year 2013. The need for coordination between all levels of government has never been greater, and yet the program continues to lag behind at the federal level because of FEMA's NEHRP office being buried and fragmented within the agency. This disjointed approach makes it even more important for the earthquake consortia located throughout the State that perform that multistate coordination effort. Language related to consortia absolutely needs to be restored as part of the authorization recognizing these entities as critical in the process of multistate coordination for these particular threats and along regional lines. The most important change in research and development measures is a better integration of the components of the program. NEHRP was designed to be a hazard reduction program, not just hazard research and to conduct more targeted risk assessments based on joint evaluations from program participants. These assessments should be focused on more detailed impact analysis and sectors of critical infrastructure such as road and bridge networks, rail systems, potable and wastewater systems, voice and data communications in the national power grid to use the limited resources that we have on the most important projects first. I appreciate the time here today and I look forward to any questions that you might have. [The prepared statement of Mr. Monken follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you very much. I now recognize Dr. Whittaker for his testimony. TESTIMONY OF DR. ANDREW S. WHITTAKER, PROFESSOR AND CHAIR, DIRECTOR MCEER; DEPARTMENT OF CIVIL, STRUCTURAL AND ENVIRONMENTAL ENGINEERING, UNIVERSITY AT BUFFALO, STATE UNIVERSITY OF NEW YORK Dr. Whittaker. Chairman Bucshon, Ranking Member Lipinski, and other Members of the committee, good morning. My name is Andrew Whittaker and I am delighted to appear before you this morning. I am an academic structural engineer employed as a Professor of Civil Engineering in the Department of Civil, Structural, and Environmental Engineering at the University at Buffalo and I serve as the Director of the earthquake-focused center known by the acronym MCEER. Your letter of invitation asked me to respond to four specific items in my written testimony and I talk to only one of the four today for reasons of time. And the question is what are your recommendations for research and development measures in earthquake preparation and mitigation? The United States Geological Survey is building the Advanced National Seismic System, as identified previously by Dr. Applegate. Information from the instruments in the System will permit refinement in the mapping of the earthquake hazards, the development of improved ground motion prediction equations, and a much better understanding of how clusters of buildings respond to earthquakes. Importantly, the successful and complete deployment of the Advanced National Seismic System by the USGS will enable the Earthquake Early Warning System that was identified previously. ANSS is not being deployed at the speed originally envisioned and I recommend that ANSS be completed as quickly as possible and that its maintenance and use be adequately funded. Second, the National Science Foundation has operated the NEES collaboratory since 2004. As Professor Ramirez noted, the equipment sites within the collaboratory offer unique physical testing capabilities ranging from geotechnical centrifuges to earthquake simulators to a tsunami wave basin. University at Buffalo is home to one of these NEES equipment sites. Professor Ramirez identified the benefits of NEES that have found their way into our building standards and building codes already. The NEES collaboratory will end in September 2014 to be replaced by a smaller number of equipment sites with an expanded treatment of hazards. It is unclear what the impact on seismic risk reduction and earthquake resilience will be, but the momentum we have gained over the past decade will certainly be lost unless the National Science Foundation's support for earthquake engineering research is maintained at current levels or increased. Five subject areas deserving of future NEHRP resources are identified in my written testimony and these cut across the 18 elements of the National Research Council roadmap. I will focus here on three of the five. First, lifelines. Lifelines such as water, gas, and oil pipelines, power transmission systems, and rail lines and highways and bridges provide the core of resilience. Their failure or part thereof has led to significant cascading financial losses in past earthquakes and their unavailability after an earthquake dramatically slows response and recovery. The interdependency of lifelines and the regional and national economic and social impacts of their loss in the event of a major earthquake are not understood. Lifelines should be a focus of NEHRP because they substantially affect earthquake resilience and in my opinion have received far too little attention to date. Progress has been made in the domain of performance-based earthquake engineering through NSF funding, NEES research, and the FEMA-funded ATC-58 project. Additional work is needed to refine the tools and calculation procedures, address other types of buildings and structural systems, to better consider the effects of soil structure interaction, and to extend the products to non-building structures. Technology transfer and earthquake engineering has traditionally been accomplished by the promulgation of codes, standards, and guidelines. NEHRP has made many significant contributions to the standards, codes, and guidelines, and these efforts must be continued. In the past six years, NIST has sponsored the preparation of technical briefs that transform basic and applied research into practical guidance for design professionals, enabling them to fully leverage federal investments in NSF and USGS, and this activity must also continue. FEMA plays a critical role in implementing risk mitigation measures developed by its NEHRP agency partners and others, and I recommend that support for FEMA be substantially strengthened to enable effective implementation, which is the key to achieving resilience. In closing, continued support at NEHRP is vital because the risk our nation faces measured here in terms of economic loss, business interruption, dislocation of social fabric, and casualties grows by the day because mission-critical infrastructure, property, and population density are increasing in locations affected by earthquakes. Our nation will not become earthquake-resilient if the NEHRP agency partnership with the earthquake professional community is ended. Thank you for the opportunity to testify today. [The prepared statement of Dr. Whittaker follows:] [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Chairman Bucshon. Thank you very much for your testimony and thank all the witnesses. And be assured that your written testimony is critical to the committee even though we don't have a large number of Members here today. Your both spoken and written testimony is critical when we try to reauthorize these programs. So I wanted you to know that. Also, I thank Mr. Monken because this past winter I had two family Members stuck on I-57 for about 12 hours when you had that big snowstorm. But--I don't know if you were there then but--and your agency was very responsive trying to find out the status of my family. It was about ten below zero and there were accidents on 57 and people were stuck for a long time, so thank you. And I will take that personal privilege to thank your agency at this point. Mr. Monken. You are very welcome, sir. Chairman Bucshon. And I am going to remind the Members that the committee rules limit questioning to five minutes. The Chair at this point will recognize himself for five minutes. And I will direct this to Dr. Ramirez. And I say this a little tongue-in-cheek, are all the major problems in earthquake engineering solved and should we now focus on solving problems in response and recovery? Dr. Ramirez. Thank you, Chairman, for the question. To improve the resilience of our society, it is important not only to facilitate the road to recovery but also to limit the amount of damage that occurs after an event. And here is where mitigation plays a critical role not only in identifying the vulnerable infrastructure, assessing it properly, and then putting in place measures to upgrade its performance. Work is very much needed in that area and should be continued. Chairman Bucshon. And Purdue has--also to you, Dr. Ramirez, Purdue has pledged to increase the number of engineers graduated. How do undergraduate and graduate engineering students participate in the research funded by the National Science Foundation grant to Purdue and NEES, and how does that contribution to their success--how does that contribute to their success post-graduation? Dr. Ramirez. Thank you. The contribution is essential in the development of the conduct of the research. They do it at various levels. One of the most successful programs in NEES is the research experience for undergraduates. Since the program was instituted about eight years or so ago, close to 700 undergraduates have benefited from this experience. Of those, fully half of them have continued to do research as graduate students in the earthquake engineering field. Furthermore, in these last two years, graduates from the REU program have been now graduate students mentoring current REU students. The graduate students are the blood of the research that is conducted throughout NEES, fully including Ph.D.s and masters. Over 1,200 of them have gotten their degrees through Purdue. Of the Ph.D. students, 75 percent of them have gone into academia and are now many of them researchers in NEES as well. Chairman Bucshon. Thank you very much. And this would be for all witnesses. What is the greatest weakness in the current approach to earthquake mitigation? Anyone want to tackle the question? Mr. Monken. Mr. Monken. So, first off, I was in the emergency operations center all night. I didn't sleep until everyone made it out at about 5:00 a.m.---- Chairman Bucshon. You remember that, right? Mr. Monken. Every--absolutely. January 6 I will not forget. Chairman Bucshon. Yeah. Mr. Monken. I think for--when it comes to mitigation the hard part is the size of the elephant is enormous and trying to prioritize those efforts is where we run into significant issues. There is not enough funding in the world and there aren't enough programs in the world to address them all. And I think the untapped potential that exists with the Members of the NEHRP really comes down to a more targeted approach of risk assessment as we go through and identify the projects that are most critical. So when we look at those lifeline sources, that was articulated well by many of the witnesses here today, starting with some of those systems to be able to try and address some of the systemic weaknesses that exist within the systems I think will have the most significant impact in terms of loss of life and property. So that prioritization I think in mitigation is the biggest shortfall that we had today to make sure that we are making the best use of limited assets. Chairman Bucshon. How do we do that? How do we make that happen? Mr. Monken. I think with a greater integration when we look at things like the exercises that we conduct and a better integration with the private sector. So the last exercise we conducted was extremely valuable because we had 45 companies running parallel exercises simultaneously to give us a better and more detailed understanding of that 85 percent of all critical infrastructure that resides within the private sector. So they can help us prioritize some of their efforts and we can do a better assessment holistically if we see that better cross-section of the research community embedded within the exercise programs of emergency management as well. Chairman Bucshon. Anyone else have any comments? Dr. Savage. Dr. Savage. I think the uncertainty in the NEHRP organizations based on the lack of authorization of the program is a tremendous threat, and I think that action that you all are looking at is probably in the near term the most important thing that can be done. Chairman Bucshon. Thank you. Dr. Whittaker, you have---- Dr. Whittaker. Just a short comment. You asked what is the greatest weakness in risk mitigation? I would say not knowing our exposure. And in my written testimony I have an example of the ports of L.A. and Long Beach through which 40 percent of our nation's imports flow. The loss of those ports would have a catastrophic financial impact on our nation, not just Southern California but the impact would stretch all the way across the country. We just don't yet know what those impacts would be. We don't know the interdependency of the lifelines, and until we do, it will be difficult to develop cost-effective mitigation strategies. Chairman Bucshon. Thank you. I now recognize Mr. Lipinski. Mr. Lipinski. Thank you, I want to start off by thanking Dr. Ramirez for emphasizing the need for more training for more engineers in our country. We certainly need more engineers in our nation and we need more engineers in Congress also I think. Director Monken, I want to also thank you for your service to our nation and your service now to the State of Illinois. Obviously from what Chairman Bucshon was--the story he relayed, you are doing a good job there in some very tough times. One question I wanted to ask Director Monken, how is the-- how is your work with the federal government? Is there more that the federal government can be doing, in terms of coordinating with States? Is there anything that you would recommend? Mr. Monken. Yeah, I think there is a couple issues that are out there right now. One is that the National Earthquake Program is not treated similarly to other catastrophic hazards, specifically hurricane is an example. So the National Earthquake Program does not have a dedicated program manager; there is not an SES-level individual at FEMA dedicated to the earthquake program. It is currently housed in Mitigation, which is not obviously an unimportant component of what we are talking about. It is hugely important. However, it does not give--because of its presence in Mitigation, it doesn't give it full access to the capacity of FEMA as the hurricane program has in the response and recovery division in terms of access to funding, additional resources, things like that. And then as I mentioned in my testimony, the removal of funding directly to States to fund earthquake program managers at the state level being pulled in Fiscal Year 2013 has really created a situation now where we have very, very limited engagement. Right now, there are more FEMA regions that don't have an earthquake program manager than FEMA regions that do, and that is a huge problem because that is the point of coordination for emergency management nationally and it also underscores the importance of these consortia, the three earthquake consortia located throughout the United States that are region-specific. And they perform an incredible task of that state-to-state coordination and yet have not seen any changes in their funding or programmatic or policy-level support in the past 20 years. So the lack of emphasis on some of those grassroots coordinating programs I think has had a detrimental effect. Mr. Lipinski. And one other question I wanted to ask, as you notice a theme here, I am an engineer. I am also a social scientist. I have always asked about the social science aspects of--any issue that we are dealing with and the research and how you deal with the human element. So let me start with Director Monken. What kind of work do you do to try to ensure that people of the State of Illinois understand the risks from earthquakes? Is this a--do you find this to be a big problem? I know most people are going to think more about tornadoes than they do about earthquakes, but how does all of that come together? And what you do in terms of trying to make people aware of the risk and also to prepare them--so that they know what to do in case there is a major earthquake? Mr. Monken. Yes, sir. It is a great question and I think it is accurately highlighted as a significant issue. We have had 11 declared disasters in Illinois in the last five years, none of which were earthquakes, so that is really where a lot of the emphasis happened. But I think some of the public awareness campaigns that we have done, the areas where we have had specific success is certainly within schools and that is where Chairman Bucshon was right on. Elementary school students, these are the folks that actually retain this information for the rest of their lives. Adults have made up their minds for all intents and purposes. In trying to reach out to students and educate them on those threats, there is the educational component that exists with it and that extends through the development and training of engineers at all levels. All those levels of understanding are important. We also saw that our PSAs were actually generated by high school and college students in the States, so we actually put it to them to come up with public awareness campaigns, videos, and radio bits that were much more effective in actually reaching their peers instead of a government person like myself trying to relate to a 12-year-old and telling them why this is important. Have another one of their fellow students communicate that message to them. And the ShakeOut grew from just a handful of a few thousand people the first year to the annual competition between Illinois and Indiana to see who can get more people to participate and over 10 million people participating nationally last year, those are successes that really need to be reinforced. Mr. Lipinski. Thank you, and I appreciate all of the witnesses' comments on NEHRP, and again I emphasize that hopefully we will get reauthorization done. And I think all of your comments have--are very helpful to us as we work to move that forward. So I yield back. Chairman Bucshon. Thank you. I recognize Mr. Hultgren. Mr. Hultgren. Thank you, Chairman. Thank you so much, panel, for being here. I think this is really important for us to be able to hear how NEHRP affects practitioners, especially those at the state and local level, really on the ground, so I really thank you. And I especially want to thank Director Monken. So good to have you here. I appreciate your service to our country and to our State, and please say hi to your family back in St. Charles as well. Mr. Monken. Yes, sir. Will do. Mr. Hultgren. I am glad you are here. Director Monken, I wanted to address a couple questions to you first if I could. First, does NEHRP program--does the program produce actionable data for the emergency management community? If so, what types of data are produced, shared, and utilized, and how are technical guidance, behavior research, and other information produced by NEHRP agencies shared with local stakeholders? Mr. Monken. So the answer is yes and no. So there is actually an incredible amount of information and data that is generated from the entities that are represented here as witnesses today and many other folks who are not, but the hard part is turning information into intelligence, and the difference is whether or not it is actionable. And we have gotten a good partnership with U.S. Geological Survey. We had been able to use some of there what they call the PAGER program where people can actually report ground shake from their mobile phones to give us a clear picture of what is happening and to what extent the ground is shaking. Those things are all very, very important. What we want to do is tie it together in a more practical sense and have a more collaborative outreach between emergency management to make sure that those efforts are as integrated as possible to make sure that the time being spent on research is targeted to the areas with greatest impact in terms of lives and property saved and really trying to make sure that it is more of a user-defined system. So some of the information-sharing that we pilot-tested during the exercises here was unprecedented. Four hundred and forty counties in seven States have never shared data in any way, shape, or form in any disaster in U.S. history. I can't overstate the importance of that. But the research community absolutely needs to be integrated into that process to make sure that the models that are being generated and research are being compared and utilized to effectively execute the exercise. Mr. Hultgren. Is there an openness you think for that, first of all recognizing that the successes of the pilot program but then seeing potential hurdles and dealing with those hurdles? Is there an openness there? I guess how can we help? Mr. Monken. Yes, sir. Well, certainly the reauthorization of the program is hugely important and some of the changes I mentioned at FEMA I think would go a long way to making sure we are doing that, and then supporting the consortia because that is--CUSEC, the Central United States Earthquake Consortium that Illinois and Indiana are part of, was actually the organization that ran that exercise. It wasn't a federally led effort. So reinforcing that type of success is absolutely important. But I think it is fertile ground. Everybody wants the same thing when it comes down to it. The hard part is making sure, as I mentioned, the NEHRP Advisory Council out of 15 people only has one emergency manager on it. It is very difficult to understand local and state impact when they are not represented on that group that is consulting on how we should be guiding the program. So that is hugely important. But I think it is fertile ground to do it and I think the folks that are doing the research, they want that input; they want that interplay because it only makes their research more targeted and more effective just like we want access to that information to build our exercises around and then ultimately compare that to a real-world event. Mr. Hultgren. Dr. Monken, I wondered if you could address-- quickly, we touched on this a little bit--but if you could talk a little bit more about the state of research and development for hazard mitigation tools and products. These activities must meet the needs of state and local officials who must prepare their communities for disaster and help them respond. How well do NEHRP activities meet state and local needs and how could efforts be better aligned? We kind of touched on that already, but what are the lessons that can be drawn from the resilience demonstrated in responding to a moderate earthquake and in preparing for a great one? Mr. Monken. So I think the issues that we have seen that we have run into is in large part some of the state and local mitigation programs are very compartmentalized. So each of the programs or proposals are analyzed individually. So as we go through the FEMA process for spending mitigation dollars, each program is evaluated on its own merits without a great deal of consideration for the interconnectivity with corresponding projects in the same area of impact within the same scope of the hazard. So I think that component needs to be brought to bear in more detail, not to mention the fact that in many cases if it is the private sector that benefits specifically from it, so if it is a utility company that has a mitigation project they want to do, that is not something that we do within the federal mitigation program. So how do we coordinate their efforts to make sure that we don't build, as we like to say, cylinders of excellence or these individual silos that are--that have these pockets of competency that aren't really tied into the interconnectivity of these lifeline systems that are out there? So that is where the private sector outreach comes into play. So utility companies alone, there are 3,000 utility providers in the country, and trying to tie those folks together is difficult but they are willing participants to do it. And I think some of the issues are really known. If an earthquake like this hit the central United States, power would be out for 6 to 9 months, not days or weeks. Mr. Hultgren. Yeah. Well, my time is coming to a close. Thank you again, all of you, for being here. I appreciate your input on this important program. Thank you. I yield back. Chairman Bucshon. Thank you. At this point I will thank all the witnesses for your valuable testimony. Like I said, your written testimony--your spoken testimony is very important to the committee and for the Members for their questions. The Members of the committee may have additional questions for you and we will ask you to respond in writing. The record will remain open for two weeks for additional comments and written questions from Members. At this point the witnesses are excused and the hearing is adjourned. [Whereupon, at 11:49 a.m., the Subcommittee was adjourned.] Appendix I ---------- Answers to Post-Hearing Questions Answers to Post-Hearing Questions Responses by Dr. Pramod P. Khargonekar [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Responses by Mr. Roy E. Wright [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Responses by Dr. Julio A. Ramirez [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Responses by Dr. William U. Savage [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Responses by Mr. Jonathon Monken [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Responses by Dr. Andrew S. Whittaker [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Appendix II ---------- Additional Material for the Record Statement submitted by Subcommittee Ranking Member Daniel Lipinski [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Letters submitted by Subcommittee on Research and Technology Chairman Larry Bucshon [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT] Letter submitted by Mr. Jay Berger, Executive Director, Earthquake Engineering Research Institute [GRAPHIC(S) NOT AVAILABLE IN TIFF FORMAT]