[House Hearing, 109 Congress] [From the U.S. Government Publishing Office] NEW TECHNOLOGIES IN RAILROAD SAFETY AND SECURITY ======================================================================= (109-15) HEARING BEFORE THE SUBCOMMITTEE ON RAILROADS OF THE COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE HOUSE OF REPRESENTATIVES ONE HUNDRED NINTH CONGRESS FIRST SESSION __________ APRIL 28, 2005 __________ Printed for the use of the Committee on Transportation and Infrastructure _____ U.S. GOVERNMENT PRINTING OFFICE 21-704 WASHINGTON : 2006 _________________________________________________________________ For sale by the Superintendent of Documents, U.S. Government Printing Office Internet: bookstore.gpo.gov Phone: toll free (866) 512-1800; DC area (202) 512-1800 Fax: (202) 512-2250 Mail: Stop SSOP, Washington, DC 20402-0001 COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE DON YOUNG, Alaska, Chairman THOMAS E. PETRI, Wisconsin, Vice- JAMES L. OBERSTAR, Minnesota Chair NICK J. RAHALL, II, West Virginia SHERWOOD L. BOEHLERT, New York PETER A. DeFAZIO, Oregon HOWARD COBLE, North Carolina JERRY F. COSTELLO, Illinois JOHN J. DUNCAN, Jr., Tennessee ELEANOR HOLMES NORTON, District of WAYNE T. GILCHREST, Maryland Columbia JOHN L. MICA, Florida JERROLD NADLER, New York PETER HOEKSTRA, Michigan ROBERT MENENDEZ, New Jersey VERNON J. EHLERS, Michigan CORRINE BROWN, Florida SPENCER BACHUS, Alabama BOB FILNER, California STEVEN C. LaTOURETTE, Ohio EDDIE BERNICE JOHNSON, Texas SUE W. KELLY, New York GENE TAYLOR, Mississippi RICHARD H. BAKER, Louisiana JUANITA MILLENDER-McDONALD, ROBERT W. NEY, Ohio California FRANK A. LoBIONDO, New Jersey ELIJAH E. CUMMINGS, Maryland JERRY MORAN, Kansas EARL BLUMENAUER, Oregon GARY G. MILLER, California ELLEN O. TAUSCHER, California ROBIN HAYES, North Carolina BILL PASCRELL, Jr., New Jersey ROB SIMMONS, Connecticut LEONARD L. BOSWELL, Iowa HENRY E. BROWN, Jr., South Carolina TIM HOLDEN, Pennsylvania TIMOTHY V. JOHNSON, Illinois BRIAN BAIRD, Washington TODD RUSSELL PLATTS, Pennsylvania SHELLEY BERKLEY, Nevada SAM GRAVES, Missouri JIM MATHESON, Utah MARK R. KENNEDY, Minnesota MICHAEL M. HONDA, California BILL SHUSTER, Pennsylvania RICK LARSEN, Washington JOHN BOOZMAN, Arkansas MICHAEL E. CAPUANO, Massachusetts JIM GERLACH, Pennsylvania ANTHONY D. WEINER, New York MARIO DIAZ-BALART, Florida JULIA CARSON, Indiana JON C. PORTER, Nevada TIMOTHY H. BISHOP, New York TOM OSBORNE, Nebraska MICHAEL H. MICHAUD, Maine KENNY MARCHANT, Texas LINCOLN DAVIS, Tennessee MICHAEL E. SODREL, Indiana BEN CHANDLER, Kentucky CHARLES W. DENT, Pennsylvania BRIAN HIGGINS, New York TED POE, Texas RUSS CARNAHAN, Missouri DAVID G. REICHERT, Washington ALLYSON Y. SCHWARTZ, Pennsylvania CONNIE MACK, Florida JOHN T. SALAZAR, Colorado JOHN R. `RANDY' KUHL, Jr., New York LUIS G. FORTUNO, Puerto Rico LYNN A. WESTMORELAND, Georgia CHARLES W. BOUSTANY, Jr., Louisiana VACANCY (ii) SUBCOMMITTEE ON RAILROADS STEVEN C. LaTOURETTE, Ohio, Chairman THOMAS E. PETRI, Wisconsin SHERWOOD L. BOEHLERT, New York CORRINE BROWN, Florida JOHN L. MICA, Florida NICK J. RAHALL II, West Virginia SPENCER BACHUS, Alabama JERROLD NADLER, New York JERRY MORAN, Kansas ROBERT MENENDEZ, New Jersey GARY G. MILLER, California BOB FILNER, California ROB SIMMONS, Connecticut ELIJAH E. CUMMINGS, Maryland TODD RUSSELL PLATTS, Pennsylvania EARL BLUMENAUER, Oregon SAM GRAVES, Missouri LEONARD L. BOSWELL, Iowa JON PORTER, Nevada JULIA CARSON, Indiana TOM OSBORNE, Nebraska PETER A. DeFAZIO, Oregon MICHAEL E. SODREL, Indiana JERRY F. COSTELLO, Illinois LYNN A. WESTMORELAND, Georgia, EDDIE BERNICE JOHNSON, Texas Vice-Chair JAMES L. OBERSTAR, Minnesota DON YOUNG, Alaska (ex officio) (ex officio) (iii) CONTENTS TESTIMONY Page Chipkevich, Robert J., Director of Railroads, Pipelines, and Hazardous Materials Investigation Department, National Transportation Safety Board.................................... 8 Collins, Daniel M., President, Operation Respond Institute, accompanied by James Boone, Vice President, and Gerald Lynch, Executive Director of Regional Information Sharing System...... 145 Hamberger, Edward R., President, Association of American Railroads...................................................... 131 Hill, Jeremy, Senior Vice President, Union Switch and Signal Company........................................................ 145 Pickett, William D., President, Brotherhood of Railroad Signalmen...................................................... 131 Rader, Thomas, President, Colorado Railcar Manufacturing........ 145 Samuels, Dr. John, Vice President, Operation Planning Support, Norfolk Southern............................................... 131 Strang, Jo, Deputy Associate Administrator for Railroad Development, Federal Railroad Administration................... 8 PREPARED STATEMENTS SUBMITTED BY MEMBERS OF CONGRESS Costello, Hon. Jerry F., of Illinois............................. 180 Johnson, Hon. Eddie Bernice, of Texas............................ 206 Menendez, Hon. Robert, of New Jersey............................. 209 Oberstar, Hon. James L., of Minnesota............................ 212 PREPARED STATEMENTS SUBMITTED BY WITNESSES Chipkevich, Robert J............................................ 156 Collins, Daniel M............................................... 168 Hamberger, Edward R............................................. 182 Hill, Jeremy.................................................... 194 Pickett, William D.............................................. 209 Rader, Thomas................................................... 219 Samuels, Dr. John............................................... 231 Strang, Jo...................................................... 244 SUBMISSIONS FOR THE RECORD Chipkevich, Robert J., Director of Railroads, Pipelines, and Hazardous Materials Investigation Department, National Transportation Safety Board, response to a question from Rep. Menendez, National Transportation Safety Board public hearings. 75 Samuels, John, Vice President, Operation Planning Support, Norfolk Southern, response to a question from Rep. Menendez, type of laser.................................................. 143 Strang, Jo, Deputy Associate Administrator for Railroad Development, Federal Railroad Administration: Response to a question from Rep. Menendez, Accident/Incident Details...................................................... 14 Response to a question from Rep. Menendez, Cirumstances in other Incidents for 2004, and type person involved by decending frequency.......................................... 21 Response to a question from Rep. Menendez, Positive Train Control...................................................... 71,73 Response to a question from Rep. Miller of California, crashworthiness research on tables in passenger cars......... 83 Response to a question from Rep. Johnson, rail infrastructure.. 118 Response to a question from Delegate Norton DHS and rail security..................................................... 123 Response to a question fred Rep. Sodrel, rail passenger fatalities................................................... 129 ADDITION TO THE RECORD Ohio Rail Development Commission, James Seney, Executive Director, statement............................................ 256 NEW TECHNOLOGIES IN RAILROAD SAFETY AND SECURITY ---------- Thursday, April 28, 2005 House of Representatives, Committee on Transportation, Subcommittee on Railroads and Infrastructure, Washington, D.C. The subcommittee met, pursuant to call, at 10:05 a.m., in Room 2167, Rayburn House Office Building, Hon. Steve LaTourette [chairman of the subcommittee] presiding. Mr. LaTourette. Good morning. The hearing of the Railroad Subcommittee will come to order. I want to welcome all of our members and our witnesses here today, the first meeting of the Railroad Subcommittee in this Congress, and especially the new members of our Subcommittee that I want to speak briefly about, and hopefully they will join us a little bit later. On the Republican side, our new Vice Chair is Lynn Westmoreland of Georgia. Lynn, I understand, has quite a background in contracting and construction, and I am sure he is going to be a valuable resource to the Subcommittee as we move forward with our discussion of rail in America. Next, Mike Sodrel of Indiana. I am told that Mike's family started in the transportation and logistics business back in 1867. So it looks like Mr. Sodrel has transportation in his blood, and I know that he is also going to be a great asset to the Subcommittee and we welcome him aboard. Also joining us as a new member is Tom Osborne of Nebraska. The sports fans in the audience will probably recognize Tom. Before coming to Congress, he played professional football for the Washington Redskins and San Francisco 49ers, and of course he also served as head coach of the Nebraska Cornhuskers for 25 years, where he enjoyed winning seasons every year. We are happy to have Tom with us as well. Today's hearing is on the subject of new technologies in railroad safety and security. According to data published by the Federal Railroad Administration, railroad safety has improved significantly over the past two decades. The latest statistics show that the overall accident rate has decreased 16 percent between 2000 and 2003. The rate of employee injuries has declined nearly 21 percent during that same period, and railroad employees have an injury rate lower than many other heavy industries. Working on the railroad is a difficult and often physically demanding job, and so I want to give credit to our railroad employees who strive to make safety a top priority. Today we are going to hear testimony about new technologies in railroad safety, some of which are already yielding benefits to railroad employees, freight carriers, and the traveling public. In particular, we want to hear about some of the new technologies being developed by the FRA such as Positive Train Control and the signal systems being developed in Europe by Union Switch and Signal. I would be grateful to hear any comments regarding these technologies from the fellows in the front lines, the Brotherhood of Railroad Signalmen. This hearing is not just about infrastructure, it is about rail transportation. I have heard several positive comments regarding a new generation of self-propelled railcars, and hope that we will hear details from Colorado Railcar. A couple of housekeeping items before I yield to our distinguished Ranking Member. I want to ask unanimous consent to allow all members to have 30 days to revise and extend their remarks and to permit the submission of additional statements and materials by the witnesses. So ordered, without objection. And then I am also advised that later during the hearing Ms. Norton of the District of Columbia may join us. Although a member of the full Committee, she is not a member of the Subcommittee, and would ask unanimous consent that she be permitted to participate in today's hearing. Without objection, so ordered. And lastly, our distinguished Ranking Member, our regular distinguished Ranking Member, Ms. Brown of Florida is unavoidably detained in other parts of the world and will not be with us today. But we are lucky and honored to have with us Mr. Menendez from New Jersey to fill in ably for her. At this time it is my pleasure to yield to you for any comments you may wish to make. Mr. Menendez. Thank you, Mr. Chairman. I am happy to sit in for our distinguished Ranking Member who, as you said, is unavoidably detained. I am happy to be a member of the Rail Subcommittee in this session of Congress. However, I am not terribly happy about the status of rail safety and security in this country. I know our witnesses are here today to talk about new technologies that will make our trains safer and more secure, and I look forward to hearing what they have to say. But I would also like to see this Subcommittee hold a hearing on rail safety oversight, particularly in light of a number of recent accidents and the series of Pulitzer Prize winning articles in the New York Times last year regarding the cozy relationship between the Federal Railroad Administration and Union Pacific. An Inspector General report from December brought to light a number of disturbing questions about FRA's regulatory oversight process and whether that process is sufficient to ensure public safety. I think this Subcommittee is exactly the right place to address that, but I think we are long overdue since we have not had a true rail safety oversight hearing in almost three years. However, that is for another day. Today, we are here to discuss how technology can better protect the people that work, ride, or live alongside our Nation's railways. This is an extremely important issue for me since my district is tightly packed with freight and passenger rail lines, including the Northeast corridor. If you add in subways, light rail, and commuter railroads, there are millions of people on the rails everyday in this country and we have not been spending nearly enough to ensure their safety. That is why I introduced the Rail and Public Transportation Security Act earlier this year, which provides over $10 billion to address critical operating and capital needs for Amtrak, freight rail, and public transportation security, including $300 million for research, development, and field testing of new technologies. In addition, my bill includes a welded rail and tank car safety improvement program that was developed in response to the derailment in Minot. The recent tragedy in South Carolina also shows us how seriously we need to take tank car safety and how we have to make a serious Federal commitment in order to protect people from both accidental and malicious disasters. I am amazed that the Federal Government has not made this investment already. Rail systems are extremely vulnerable to terrorists attack, as shown by last year's attacks in Madrid. In fact, since September 11, there have been over five times as many attacks on public transportation targets than on airplanes. I would ask my colleagues to imagine what we would have done, what action we would have taken if the Madrid train bombings had occurred in our homeland on our soil. What immediate investments would we be ready to make? What urgent action would we be willing to take? The new technologies we will hear about today are a first step towards that action, but we need to do more and we need to do it sooner rather than later. I thank the witnesses for being here today. Thank you, Mr. Chairman, for holding this hearing. Mr. LaTourette. I thank the gentleman very much. We have been joined by some additional members at this time. I see the distinguished Chairman of the Aviation Subcommittee, Mr. Mica of Florida, has joined us and he has also brought guests, which we thank you very much for swelling the audience. It would be my pleasure to yield to you, Mr. Mica, for any observations you would like to make. Mr. Mica. Thank you, Mr. Chairman. I appreciate your recognizing my guests. I have students from the Geneva Academy in Central Florida in the 7th congressional district, and several other voting age constituents, and I am always pleased to see them here and welcome them. But I want to also thank you, Mr. Chairman, for holding this hearing today, and also for your focus on new technologies and railroad safety and security issues. I think you have a great list of panelists. The rail industry is facing some very serious challenges. I spoke with a group yesterday and liability is certainly one of the challenges that they face, along with others. But also providing new systems for safety which will provide less exposure for accidents and for the challenges that they face in providing a cost-effective alternative to paving over our country and providing a good means of moving commodity, freight, and other goods through our communities. There are also challenges we know now by attempts to move hazardous and other materials through some of our communities. We need to find ways to assist them to move those much-needed items through our communities, including even basic things like chlorine which we rely on for safe water supplies to our local municipalities and other water systems that need those chemicals. So we face a number of challenges. I think this hearing will enlighten us as to what the Federal Railroad Administration and others have done to come up with new safety techniques. We will also hear recommendations I think that are necessary from the industry. Finally, I am excited, I think you have got some folks from Colorado Railcar. I have taken a great interest in getting the United States into producing technologies that will take some of the cars off of our roads or at least give us some alternatives, and actually manufacture once again in the United States some of the essential equipment for the future. So, again, I thank you. I look forward to hearing from the panelists. And I again welcome our guests. Mr. LaTourette. I thank the gentleman. Ms. Johnson of Texas, any remarks? Ms. Johnson. Thank you very much, Mr. Chairman, Ranking Member, for holding this hearing. It is my first one on this Subcommittee and it is an important one to me because, as we know, our Nation's transportation system is the backbone of our economy and our way of life. Every day various modes within the Nation's transportation system transports millions of people and tons of goods throughout the country. So critically important to this equation is the role of secure freight and passenger rail systems. While the tragic events of September 11, 2001 have forced us to take a hard look at how we secure our various modes of transportation, rail security remains a significant challenge. According to GAO, a number of positive steps have been taken by rail stakeholders to bolster the Nation's rail security since that time, such as performing risk assessments, emergency drills, and developing security plans. However, one only needs to turn to the news or pick up a local newspaper to realize that our Nation's rail systems still remain extremely vulnerable to the possibility of terrorist attacks that could jeopardize countless lives and cause serious economic disruption. For example, on June 28th of last year two freight trains carrying chlorine gas collided in my State killing three people. Only one of the dead was aboard; the others died as a result of gas drifting over a residential neighborhood over a mile away. Further, we must never forget the horrific Madrid train bombings last year that left 200 commuters dead and 1,500 wounded. These incidents and countless others highlight the unique challenges and risks associated with the rail system. So while I am heartened by GAO's findings, more work remains to be done, particularly in resources invested toward surface transportation concerns. I feel strongly that as policymakers we must revive our resolve to approach rail security challenges with a sense of urgency. To do otherwise only serves to further compromise the safety of the American public. According to the Mineta Institute, globally, surface transportation systems were the target of more than 195 terrorist attacks from the 1997 through the year 2000. As I close, I want to thank our witnesses that have come before us to testify this morning. I look forward to your testimony. I am particularly interested in learning more about the latest security innovations, the level of coordination among rail stakeholders, and what we as a body may do to further assist them to help bolster freight and passenger security efforts. So thank you again, Mr. Chairman, for this hearing. Mr. LaTourette. I thank the gentlelady very much. In a moment I will yield to Mr. Miller, Westmoreland, and Osborne for comments they would like to make. But I see we have been lucky enough to be joined by the distinguished Ranking Member of the full Committee. And so this must be an important hearing if Mr. Oberstar is here. Mr. Oberstar, I would yield to you for any observations you would like to make. Mr. Oberstar. Mr. Chairman, all of your hearings are important ones. But when it comes to safety, whether in rail, or aviation, or highways, maritime, it gets my attention. And it is a very promising initiative on your part to explore in the context of a hearing new technologies that may improve both safety and security. But I think to deal with the issue fully, we need to go beyond technology. We have seen in recent years there is an increase in rail accidents, not an alarming increase, but an increase that gets my attention and that of the National Transportation Safety Board and the Federal Railroad Administration. There were over 3,100 accidents in 2004. That was up from just under 3,000 in 2003, 2,700 accidents in 2002. The trend is in the wrong direction. And then we had the catastrophic accident in Graniteville, South Carolina, that the NTSB said was a result of improperly lined switches. The IG at the Department of Transportation said that the trend of rail safety data indicates improperly lined switches are the second leading cause of rail accidents and the principal cause of accidents resulting from human error. Technology helps, technology is vitally important, but in the end, people make these decisions. Properly trained people, properly experienced people can avoid accidents with the right technology. The IG Report in February of this year on Safety Findings and Recommendations at the FRA show that serious safety problems have been present for all four of our major railroads, and that despite an increase in the civil penalties that FRA has assessed on those railroads. But the IG also highlights prior audit report recommendations that the Federal Railroad Administration has failed to implement. The IG's 2002 report recommended that FRA make greater use of inspection results developed in the Safety Assurance and Compliance program. Now the RSAC was initiated many years ago, almost a decade ago. It initially had good results. But if the recommendations from RSAC are not implemented, then they do not do any good, there is not a life- saving benefit. Now I am very encouraged that at the outset of your tenure as Chairman of the Subcommittee you are putting this spotlight on safety. I hope that it will not be a momentary event, that this will be followed up with further inquiries suggested by the information we will receive in the course of today's hearing. I have read the testimony in advance. If my time permits, I will have some questions about various elements. Just recently, for example, the problems with Acela, the rotor brakes that have demonstrated slim, spider-like cracks that have migrated into major failures raise questions about the underlying technology--was the metal cast properly, at the proper temperature, was it cooled properly in the sequential cooling that is necessary to ensure that bubbles do not develop in the interior of the casting. I am reminded of the disaster of United Airlines DC-10 over Iowa, when the rotor in the tail engine, the titanium block into which the fan blades are inserted, catastrophically failed. One hundred and ten people lost their lives. It was a miracle that pilot was able to bring that aircraft down; it had lost all hydraulics. That was because of a number of failures that started with the casting of that titanium block. Now, we have 131 rotors in the Acela that have failed, for a combination of reasons perhaps going back to the original design specifications, but also the subsequent inspection and perhaps over-ambitious five-year life schedule for those rotor brakes, and perhaps also, as some are suggesting, our design specification of a railcar that is twice as heavy as European railcars where this technology originated. If our Federal Railroad Administration is not being vigilant on these matters and is not looking at these matters in depth and is not following up on them, then this Committee has a responsibility to do it. And you have made a good start today, Mr. Chairman, and I thank you very much. Mr. LaTourette. I thank the gentleman very much. I would tell the distinguished Ranking Member it is our intention to have a rather vigorous schedule of hearings, working with you and Ms. Brown and Chairman Young, and the Acela rotor issue will be the subject of a hearing occurring on May the 11th and we will explore that issue in detail. Mr. Miller, anything you care to say? Mr. Miller. Thank you, Mr. Chairman. Rail safety is extremely important in my district because of the increase in California we are going to experience in freight movement. My district seems to be the largest gateway for trade in the country. We have both the Long Beach and the L.A. harbors that all those ships are coming into each year, and about $250 billion worth of cargo either comes through my district or most of my district via train or truck. It is very problematic. We are looking by 2020 at about two and a half to three times the amount of trains we experience today will be basically impacting our districts. We have a tremendous problem with at-grade crossings. Most of my communities, which really surprised me, over the last eight or ten years have pretty much been up in arms and trying to be proactive about the issue of the amount of impact that they face trying to cross those at- grade crossings, whether it is trucks trying to deliver goods, or people trying to get back and forth to work or take their kids to school. Rail safety is becoming a huge issue. We just recently, on January 26th, in Glendale had a Metrolink train that slammed into an SUV killing 11 people. It also clipped a northbound Metrolink train, which could have been very disastrous. In April of 2002, we had 3 people killed and 260 people were injured in Placentia, in my district, when a freight train missed a light and ran into a commuter train. And in June 2003 we had a runaway train in Commerce that went through my district and it destroyed six houses. It was a miracle that nobody really was injured in that accident. But what that has done is brought an acute awareness of the situation we face in California. Rail safety is absolutely something that has to be addressed. In California, about $802 billion worth of goods are shipped from our State each year. That is either going on a truck or most of it is going on a train, especially through the central part of the United States. So we have a challenge with increased freight movement and we need to be ready to deal with the issue as it increases, and safety is something that is paramount. I trust that our economy is going to continue to grow, that nothing will happen to that. And if it does, and I believe it will, we are also going to be increasing the amount of freight and goods that are going to be moved. So I am looking forward to the testimony today, and I am glad you are here. Welcome. Mr. LaTourette. I thank you, Mr. Miller. Coach Osborne and Mr. Sodrel, you missed the glowing introductions I gave of you at the beginning of this hearing. We would like to get to the witnesses, but if there are brief comments you would like to make. Mr. Osborne, first to you? Mr. Sodrel? Mr. Sodrel. I would just like to thank the witnesses for coming here today. I spent my professional life in highway transportation, so I will be getting an education on rail, although I have a brother-in-law, retired UTU conductor and several friends who were engineers that started out on the old Louisville-Nashville railroad years ago. So I thank the witnesses for being here, and I thank you, Mr. Chairman. Mr. LaTourette. I thank the gentleman. Today's hearing is comprised of three panels. The first panel has Ms. Jo Strang, the Deputy Associate Administrator for Railroad Development at the Federal Railroad Administration, and also Bob Chipkevich, who is the Director of Railroads, Pipelines, and Hazardous Materials Investigations Department at the National Transportation Safety Board. We thank both of you for coming. We have received your written observations and we look forward to your testimony. Ms. Strang, welcome. We will start with you. TESTIMONY OF JO STRANG, DEPUTY ASSOCIATE ADMINISTRATOR FOR RAILROAD DEVELOPMENT, FEDERAL RAILROAD ADMINISTRATION; BOB CHIPKEVICH, DIRECTOR OF RAILROADS, PIPELINES, AND HAZARDOUS MATERIALS INVESTIGATION DEPARTMENT, NATIONAL TRANSPORTATION SAFETY BOARD Ms. Strang. Thank you. Mr. Chairman and members of the Subcommittee, I very much appreciate the opportunity to appear before you today, on behalf of Secretary Mineta and Acting Administrator Robert Jamison, on the subject of new technologies in railroad safety. I would appreciate your submitting my full statement for the record; I plan to summarize it. I supervise the Federal Railroad Administration's research, development, and demonstration efforts, so I pay a great deal of attention to new technologies in safety. Prior to this, I supervised the National Transportation Safety Board's rail and rail transit accident investigations, so I am familiar with the consequences of railroad safety problems. Safety is our top priority, and the promise that technology holds to improve safety is compelling. Recent statistics show that the industry as a whole is getting safer, but the spate of recent accidents shows that we still have room to improve, and we must accelerate the rate of progress. In general, the safety trends on the Nation's railroads are favorable. The data for calendar year 2004 show that since 2003 total rail accidents and incidents are down slightly, and employee casualties are down about 8 percent. However, not all trends are positive. Improvements in the rate of train accidents have slowed, and bad accidents continue to occur. FRA is committed to improving this record, and we are focusing on ways to prevent, eliminate, or minimize the harm resulting from train accidents. I will focus my testimony on new technologies that hold great promise to improve rail safety. Track defects accounted for 34 percent of derailments over the last five years. FRA has an active research program for developing and deploying enhanced track inspection systems as a preventative approach to reducing track accidents. I will describe some of the key systems that FRA is currently developing. This is a picture of a crack in a joint bar. First, is an automated joint bar inspection system. Current joint bar inspection practices rely mostly on visual inspection and, in a few cases, hand mapping with ultrasonic probes. These methods are time-intensive and prone to human error. FRA is developing an automated photo inspection system that will identify cracks in joint bars. This is a picture of the completed joint bar inspection system. Our initial tests showed that a prototype system mounted to a rail vehicle and operated at 30 miles per hour was able to detect all cracked bars identified by visual inspection, as well as additional cracks undetected by the human eye. Internal rail defects due to fatigue remain a serious problem which has been exacerbated by recent trends in increasing freight axle loads. Internal defects can be identified only by specialized ultrasonic or induction measurement cars that still cannot be operated at more than 10 miles per hour. Defects in the web or the base of the rail are also extremely difficult to detect. So far I have only talked about the parts of the rail you can see. But we also need a way to inspect the subgrade, or the part beneath the track. FRA has identified ground-penetrating radar as a promising technology for finding poor track conditions that are hidden below the surface, and is working on developing a prototype system which will produce quantitative indices of track subsurface conditions. Once the prototype is completed, it will be installed on FRA's T-18 car for field testing in the spring of 2006. Collisions and overspeed derailments must also be prevented. PTC is an advanced train control technology that can prevent train collisions with automatic brake applications. It also provides for automatic compliance with speed restrictions and enhanced protection of roadway workers. FRA's final rule enabling Positive Train Control became effective in March 2005. The rule is a performance standard for a system railroads may choose to install, but does not require it to be installed. FRA is promoting the implementation of PTC by sponsoring development of technologies through partnerships with States and railroads, and by helping to provide NDGPS, a satellite-based navigation aid. FRA is also working on projects in Illinois, Michigan, Wisconsin, and Alaska. A significant challenge for FRA and the railroads in developing all such systems is to lower the cost of implementation. A fundamental technology for enabling the implementation of PTC systems is a network of reference stations that monitors GPS and transmits correction signals to an unlimited number of users, known as the Nationwide Differential Global Positioning System, or NDGPS. Any NDGPS receiver can then use these signals to improve the accuracy and integrity of GPS. When complete, there will be dual coverage throughout the United States to ensure the signals are always available. GPS has an accuracy of about 36 meters. Since parallel railroad tracks are only 4 meters apart, GPS accuracy does not meet our needs. Basic NDGPS improves the accuracy to 1 to 2 meters. Similarly, the GPS system takes two to four hours to recognize that a satellite is out of tolerance and to notify the users. This is referred to as ``time-to-alarm integrity.'' Basic NDGPS improves the time-to-alarm integrity to six seconds. So, if a GPS satellite malfunctions, the NDGPS system eliminates the bad satellite from the position solution within six seconds, preventing any disruption to railroad operations. While we are trying to find ways to protect against derailments and collisions, we also need to protect train occupants now. In contrast to European and Asian rail systems, traffic on the U.S. rail system is dominated by private freight traffic. FRA continues to address the crashworthiness of passenger equipment and passenger and crew protection through our crash test program. Computer models have been developed to simulate a variety of passenger rail car crash scenarios. These models, combined with the results of crash tests and field investigations of passenger train accidents, are being used to develop strategies for increasing occupant protection. FRA is now testing components of structural crash worthiness for passenger rail equipment. We have completed both designs and test of the crush zone design for coaches. The results from the impact tests show that crash energy management design has superior performance over conventional equipment design. I would like to show a few videos now. The first one is a single car impact test. The first clip you will see is conventional equipment with no modification. [Video presentation.] Ms. Strang. You can see the result of the impact. Clearly, there would be loss of survival of space. The car was crushed severely. In the next clip, you will see a crash energy modified system which FRA has developed. By using design components to modify the energy, survival space remains much better preserved. [Video presentation.] Ms. Strang. The next video will show two cars coupled together and using crash energy management. In a conventional train-to-train coupling, the lateral forces force the train out of alignment and you get the typical accordion type of derailment that you have seen. This keeps the train cars in line with each other so that they are less likely to derail. [Video presentation.] Ms. Strang. You could see at the end, this is an overhead, how the cars remained together instead of being out of alignment. The next video is a train-to-train collision. We have planned another test in February, we hope, of this year that will have all crash energy modified cars, and we will be able to see what will happen. [Video presentation.] Ms. Strang. I would like to invite anybody on this Committee if you would like to see the next crash test. I would also like to point out that Metrolink, a commuter railroad in California, is working with us to deploy crash energy management systems in their next purchase. FRA is also actively addressing the crash worthiness of freight locomotives. Participants include the passenger and freight railroads, rail labor organizations, and locomotive builders. I have additional videos if time permits. Thank you, and I will be happy to answer your questions. Mr. LaTourette. I thank you very much. I think, before we go to Mr. Chipkevich, one of us did have a question. That second train-to-train, was it 30 miles an hour? Ms. Strang. It was 26.4. Mr. LaTourette. It was 26.4. Thank you very much. It is now my pleasure, Mr. Chipkevich, to ask you for your observations. Just again, without objection, all of the witnesses full statements will be made part of the record of this hearing and I would ask you to summarize your remarks as best you can. Thank you. Mr. Chipkevich. Thank you. Thank you, Chairman LaTourette and members of the Subcommittee. I want to thank you for the opportunity to testify today on behalf of the National Transportation Safety Board on an important rail safety issue, Positive Train Control. The NTSB has been investigating train collision and over- speed accidents for over 35 years and issued our first recommendation related to this issue after a 1969 head-on collision between two Penn Central commuter passenger trains in Darien, Connecticut. The Safety Board in 1970 recommended that the Federal Railroad Administration study the feasibility of requiring a form of automatic train control at points where passenger trains are required to meet other trains. Since 1970, the Safety Board has issued numerous safety recommendations related to positive train separation. Our most recent safety recommendation was issued in 2001, following a collision between three Conrail freight trains in Bryan, Ohio. The trains were operating in fog, when a faster moving train missed a signal and hit the rear-end of a train that had slowed because of the poor visibility. A third train, coming in the opposite direction, struck the two derailed trains. The Safety Board has recommended that the FRA facilitate actions necessary for the development and implementation of Positive Train Control systems that include collision avoidance, and require implementation of Positive Train Control systems on main line tracks, establishing priority requirements for high-risk corridors such as those where commuter and intercity passenger trains operate. This safety recommendation was reiterated to the FRA after a Burlington Northern Santa Fe freight train collided head-on with a Metrolink passenger train in Placentia, California in 2002. In the past six years, NTSB has investigated 38 accidents where Positive Train Control is a safety issue. Causal factors have been attributed to train crew mistakes and failure to operate trains in accordance with operating rules. Human factor causes have included fatigue, sleep-apnea, use of medication, reduced visibility, and distractions such as cell phone use. Further, FRA accident data show that for 2003 and 2004 human factor causes to head-on, rear-end, and side collision accidents were about 91 percent. NTSB is currently investigating five accidents involving freight train collisions. As a result of a collision between two trains in Macdona, Texas, on June 28, 2004, a tank car filled with chlorine was breached, resulting in three fatalities and a significant public evacuation. NTSB will examine whether Positive Train Control could have prevented the Macdona accident and another accident that occurred in Graniteville, South Carolina, on January 6, 2005. After the Graniteville accident, a switch on the main track was found in the open position to a siding. As a result of this accident, a tank car filled with chlorine was breached, resulting in nine fatalities. Progress on Positive Train Control has been slow. This safety issue has been on the NTSB's list of Most Wanted Transportation Safety Improvements since 1990. Notwithstanding the slow progress on Positive Train Control, the FRA has issued standards to address modern electronic systems and emerging technology in the signal and train control arena. The final rule should provide safety-critical standards that equipment must meet for use in Positive Train Control systems, but it will not provide interoperability standards that need to be addressed when equipment operated by different railroads is used on the same track. The FRA, the Association of American Railroads, and the Illinois Department of Transportation are funding the North American Joint Positive Train Control Project to help address equipment and operational issues that occur when different railroads use the same track. Positive Train Control systems can prevent human factor caused accidents, and the NTSB will continue to urge implementation of PTC systems through our accident investigations and the attention of our list of Most Wanted Transportation Safety Improvements. Thank you for the opportunity to testify. Mr. LaTourette. I thank you very much for not only your testimony, but summing it up before the red light came on. That was very nice of you. I appreciate that. Ms. Strang, I think you answered this question in your testimony, but I just want to be clear. When you were talking about Positive Train Control systems, the rulemaking that the FRA is currently undergoing, it is my understanding that you said the rulemaking would make those systems optional and the intention is not to make them mandatory at this time. Ms. Strang. That is correct. The rule was published on March 7, 2005, as a final rule. It is an operational standard, if you will. It just sets the conditions and requirements for Positive Train Control systems, but it does not mandate it. Mr. LaTourette. Ms. Strang also, the passenger survivability in a crash is influenced by a number of factors-- standees in a coach, for instance, can become projectile, harming or killing other passengers; the location of the crash also matters as to whether it is in an urban center where medical attention is more readily available or a rural setting. Is the FRA considering all of those factors as you look at passenger survivability? Ms. Strang. Yes. Actually, in 1999 we issued comprehensive standards on passenger crashworthiness that included emergency preparedness and egress types of standards, so that we would have available windows and doors that function well in an emergency and people can exit. We continue to work on passenger crashworthiness and survivability through the American Public Transportation Association, their passenger requirements group, that sets the industry standards for public transit. These can then be incorporated into the next revision of the passenger crashworthiness rule. Mr. LaTourette. It is my understanding, though, that your rulemaking may not include an examination of interior materials such as padding, is that right? Ms. Strang. No. We have done fire testing, and we have also done injury testing at tables. Mr. LaTourette. Right. That was one of my questions I think, the whole issue of whether Ms. Strang. Actually, table design is important. We have done tests where we took different types of tables and looked at how their edges were and how they were fixed. They are popular with commuters. Mr. LaTourette. Mr. Menendez, in his opening remarks, correctly called upon the issue of tank car safety. Can you tell us a little bit about what the FRA is doing relative to tank cars? Ms. Strang. Sure, I would be delighted to. FRA is currently undertaking tank car research that resulted from the Minot, North Dakota, accident in 2002. We are working with the Volpe National Transportation Systems Center and the AAR Tank Car Committee to do several things. One, we have to understand how tank cars fail when they are in a derailment. So we are doing a three-phase model that includes a physics model, a kinematics model, using finite element analysis, and then we will validate the model. Once we have a better understanding of how tank cars fail in derailments and collisions, we will be able to address the structural concerns through design. Mr. LaTourette. Later in the hearing when Mr. Pickett testifies, he expresses concern that the visual inspection of the track is sometimes conducted at too high of speeds. During your testimony, I think I wrote down that it was your feeling that 30 miles an hour was a safe speed. I believe in his testimony, I think he is proposing a limit of 15 miles an hour. Could you share your view on that? Ms. Strang. Certainly. The 30 miles per hour was with a high-speed automatic photographic system, not a human eye. I do not believe the human eye is designed to detect small cracks at 30 miles an hour. Mr. LaTourette. And so what about his observation that he will make later that 15 miles an hour is more appropriate? Ms. Strang. It seems reasonable to me. But I am not on the regulatory side of things. Mr. LaTourette. Okay. Thank you very much. Mr. Menendez? Mr. Menendez. Thank you, Mr. Chairman. Ms. Strang, in your testimony you say that the data for 2004 shows that the total accidents and incidents are down 3.9 percent from 2003. However, the data that I have seen from the FRA website, which is the same data that Mr. Oberstar referred to in his statement, show that the total number of accidents is increasing. It showed that highway-rail incidents also increased from 2003 to 2004, and that the only other statistic that improved is something labeled ``other incidents.'' Ms. Strang. It depends on which--there are a lot of different categories. Mr. Menendez. I have not gotten to my question yet. Ms. Strang. Oh, I am sorry. Mr. Menendez. So my question is, if we extracted out the accident category alone, what would the number be? Ms. Strang. I do not have that number with me, but I can provide it to you. I do know that collisions have increased. But the total train accident/incident rate has decreased. But I will provide those to you. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.001 [GRAPHIC] [TIFF OMITTED] 21704.002 [GRAPHIC] [TIFF OMITTED] 21704.003 [GRAPHIC] [TIFF OMITTED] 21704.004 [GRAPHIC] [TIFF OMITTED] 21704.005 [GRAPHIC] [TIFF OMITTED] 21704.006 Mr. Menendez. Would you extract the accident category alone and then let the Committee know? Ms. Strang. Absolutely. Mr. Menendez. Thank you. What is the ``other incidents`` category? Ms. Strang. Other incidents are things like cows on the track, or an object that is there. It is not something that is normal. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.007 [GRAPHIC] [TIFF OMITTED] 21704.008 [GRAPHIC] [TIFF OMITTED] 21704.009 [GRAPHIC] [TIFF OMITTED] 21704.010 [GRAPHIC] [TIFF OMITTED] 21704.011 [GRAPHIC] [TIFF OMITTED] 21704.012 [GRAPHIC] [TIFF OMITTED] 21704.013 [GRAPHIC] [TIFF OMITTED] 21704.014 [GRAPHIC] [TIFF OMITTED] 21704.015 [GRAPHIC] [TIFF OMITTED] 21704.016 [GRAPHIC] [TIFF OMITTED] 21704.017 [GRAPHIC] [TIFF OMITTED] 21704.018 [GRAPHIC] [TIFF OMITTED] 21704.019 [GRAPHIC] [TIFF OMITTED] 21704.020 [GRAPHIC] [TIFF OMITTED] 21704.021 [GRAPHIC] [TIFF OMITTED] 21704.022 [GRAPHIC] [TIFF OMITTED] 21704.023 [GRAPHIC] [TIFF OMITTED] 21704.024 [GRAPHIC] [TIFF OMITTED] 21704.025 [GRAPHIC] [TIFF OMITTED] 21704.026 [GRAPHIC] [TIFF OMITTED] 21704.027 [GRAPHIC] [TIFF OMITTED] 21704.028 [GRAPHIC] [TIFF OMITTED] 21704.029 [GRAPHIC] [TIFF OMITTED] 21704.030 [GRAPHIC] [TIFF OMITTED] 21704.031 [GRAPHIC] [TIFF OMITTED] 21704.032 [GRAPHIC] [TIFF OMITTED] 21704.033 [GRAPHIC] [TIFF OMITTED] 21704.034 [GRAPHIC] [TIFF OMITTED] 21704.035 [GRAPHIC] [TIFF OMITTED] 21704.036 [GRAPHIC] [TIFF OMITTED] 21704.037 [GRAPHIC] [TIFF OMITTED] 21704.038 [GRAPHIC] [TIFF OMITTED] 21704.039 [GRAPHIC] [TIFF OMITTED] 21704.040 [GRAPHIC] [TIFF OMITTED] 21704.041 [GRAPHIC] [TIFF OMITTED] 21704.042 [GRAPHIC] [TIFF OMITTED] 21704.043 [GRAPHIC] [TIFF OMITTED] 21704.044 [GRAPHIC] [TIFF OMITTED] 21704.045 [GRAPHIC] [TIFF OMITTED] 21704.046 [GRAPHIC] [TIFF OMITTED] 21704.047 [GRAPHIC] [TIFF OMITTED] 21704.048 [GRAPHIC] [TIFF OMITTED] 21704.049 [GRAPHIC] [TIFF OMITTED] 21704.050 [GRAPHIC] [TIFF OMITTED] 21704.051 [GRAPHIC] [TIFF OMITTED] 21704.052 [GRAPHIC] [TIFF OMITTED] 21704.053 [GRAPHIC] [TIFF OMITTED] 21704.054 [GRAPHIC] [TIFF OMITTED] 21704.055 Mr. Menendez. Okay. Positive Train Control has been on the NTSB's list of Most Wanted Transportation Safety Improvements since 1990. Why did it take the FRA 15 years to issue a final rule on PTC? Ms. Strang. That is a very good question. And since I am not on the regulatory side of things, I cannot answer. But I can have somebody provide the answer to you for the record. Mr. Menendez. If you would, I would appreciate it. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.056 Mr. Menendez. Since you are not on the regulatory side, you are going to give me the same answer to one of my other questions, but I am going to ask it so that you get me an answer. You cite human factors as one of the causes at the very outset of your testimony. So I would also like to know when you have investigated 38 railroad accidents where PTC could have prevented or mitigated an accident, despite that it will save lives, the rule that you issued in March is voluntary and not a requisite for railroads. I would like to get an answer as to why the regulators did not insist on something that can be life-saving at the end of the day and dramatically reduce the number of incidents. So if you would get that for us as well. Ms. Strang. Yes, sir. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.057 Mr. Menendez. Do you know about dark territory, is that something you can answer? Ms. Strang. I know what it is. Mr. Menendez. Okay. What can you answer for me? Ms. Strang. I can answer questions about technology. Mr. Menendez. Technology, okay. Let me move on to something else then. Mr. Chipkevich, when an accident occurs it is critical that the community, the railroad industry, its workers, and in some cases the victims are provided timely and accurate information identifying what caused the accident and what measures parties involved in the accident should take to prevent similar accidents from occurring in the future. How long does it take the NTSB to conduct an accident investigation? And why did it take you over two years to investigate and issue recommendations on the deadly accident in North Dakota? Why did it take you over three years to investigate and issue recommendations on the CSX freight tunnel derailment and fire in the Howard Street tunnel? Mr. Chipkevich. It is primarily the workload and the staff resources that we have had to be able to address and do the accident investigations. There was significant work in the Howard Street tunnel accident investigation we did because there was no clear-cut cause that we could identify for that accident. So we did extensive testing and additional work that did take an extended period of time in that particular accident. Mr. Menendez. So, in other words, if you had a greater staffing capability, we would truncate the time and get the results quicker, and we would get action, hopefully, quicker on that? Mr. Chipkevich. Yes, sir, that would help. Mr. Menendez. How many hearings has the NTSB held since 2000, public hearings? Mr. Chipkevich. I can provide that for the record. We held a public hearing, we finished the last two days on the Macdona accident where we had a board of inquiry taking testimony from 12 witnesses. We had also had a public hearing in the rail area on the Minot accident investigation. But I would certainly be glad to provide that information. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.058 [GRAPHIC] [TIFF OMITTED] 21704.059 [GRAPHIC] [TIFF OMITTED] 21704.060 [GRAPHIC] [TIFF OMITTED] 21704.061 [GRAPHIC] [TIFF OMITTED] 21704.062 [GRAPHIC] [TIFF OMITTED] 21704.063 Mr. Menendez. My information is it is only one. Now you have had some things called symposiums, but those are not public hearings. I would like to know the number so that we can respond to it in the future. Thank you, Mr. Chairman. Mr. LaTourette. I thank the gentleman. Mr. Miller? Mr. Miller. Thank you, Mr. Chairman. Ms. Strang, where does the FRA stand on the use of control coaches after the recent fatal crash of Metrolink? Would it not be safer to use a locomotive on the front of the train? I understand that Amtrak has even converted some old locomotives into control cars. They removed the diesel motor and use the space to basically carry baggage. A working locomotive is placed at the other end of the train to power it. Is this not a safer setup than lightweight control cars? Ms. Strang. That is a good question. Actually, we are conducting a study on that now. There is some debate over the Glendale incident, whether or not it could have been made worse by a locomotive because they are heavier and it adds mass to the crash. Those are all things that we are considering carefully, and we should be publishing a study by the end of the year. Mr. Miller. Okay. Can you give us some more details concerning what the FRA is doing on tank car safety. Ms. Strang. Actually, we have several things we are doing on tank car safety. One of them deals with emergency responders and making sure that they get emergency response information as quickly as possible. We are working through the emergency responder community, Railinc Operation Respond, and others to provide better communications infrastructure to get information to emergency responders that is accurate as quickly as we can, because the first several minutes of the emergency response are very critical. We are looking at tank car research that I talked about on the kinematics modeling, where we will be looking at tank car design to make tank cars more puncture-resistant and less likely to have any kind of failure during a collision or derailment. We are also looking at a spray-on coating that is known as "Dragon Shield" that has got the capability of self-sealing if it gets punctured, and it also adds impact resistance. Mr. Miller. They have recently included tables in passenger cars. I know you did a study on that. I have heard that really is dangerous and that it creates a less safe situation. What is your finding on that? Ms. Strang. It can be. The way that the table is fastened to the floor and the edges of the table, and whether or not they are resistant or flexible, really make a difference. So we have done tests on table configurations and expect to have standards and recommendations on how tables should be affixed. Tables are very popular with commuters. They like them a lot. So most commuter railroads like to have them. Mr. Miller. When are your studies going to be released, do you have any idea on that? Ms. Strang. We have conducted the tests on the tables, and I believe a report will be coming out later this year. But I can get back to you with the expected date. 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Thank you. I yield back, Mr. Chairman. Mr. LaTourette. I thank you. Ms. Johnson? Ms. Johnson. Thank you very much. In the accident in South Carolina, it raised a number of questions about Dark Territory. Has there been some technology that has been used to maybe deal with Dark Territory? Ms. Strang. Actually, there have been several things. First of all, we issued something called a broad agency announcement, which is a funding mechanism, looking for people to come to us with proposals on how to cure this problem. So we are looking for ways that we can make sure that switches are in the correct position even in dark territory and that appropriate alerts can be given to the train crews and others. Ms. Johnson. You indicated that most of the accidents are caused by human factors. Can you name others that have been prominently noted? Ms. Strang. I am sorry. I am not sure I understand your question. Ms. Johnson. You indicated that most of the accidents are caused by human factors. Has there been some observation that makes the human factors more common, and if so, has there been the application of any technology that can solve that, or are you still looking? Ms. Strang. There are technical solutions to human factor accidents. As Mr. Chipkevich mentioned, Positive Train Control is one of them. Basically, if you are relying on a person that does not have a redundant backup system, technology is probably going to provide the best solution. So we are looking at ways to improve switch position indicators, because that is the second-leading cause of accidents, and also track inspection information that can be gathered through better technologies. Track causes are the second-leading cause of train accidents. Ms. Johnson. What is the infrastructure like with the rails, tracks? Ms. Strang. Well, do you mean how much is there? Ms. Johnson. Well, what is the age? Do they need some type of attention or repair or change? Ms. Strang. Okay. The railroad has been around for a long time, 180 years, so there are various ages of track and rail components throughout the system. Railroads have made a lot of efforts to improve the strength, or the poundage, of the rail, going up to a heavier weight, up to 136 pounds, as they have increased axle loads. And it is a combination, I believe probably Dr. Samuels will talk about it a little more, that it is a combination of heavy axle loads and heavy rail that are needed to provide safe transportation. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.099 Ms. Johnson. I am curious, because it seems to me that we are hearing more and more about rail accidents, and I was trying to see if there was a way in which to focus in on the common cause and if there was some technology or an improvement of the infrastructure or whatever to see if they could be avoided. Ms. Strang. I think there is. I believe some of the things we discussed today will go towards reducing those accidents as soon as we can get them deployed and out in use. Ms. Johnson. Thank you very much. Mr. LaTourette. I thank the gentlelady. Ms. Strang, before I yield to Mr. Graves, for the benefit of the record and maybe some in the audience, could you just tell us what Dark Territory is. Ms. Strang. Dark territory is territory on a railroad that does not have a signal system, so you usually rely on track warrants or a paper system to control the operation of the train. Mr. LaTourette. Thank you very much. Mr. Graves? Mr. Graves. Thank you, Mr. Chairman. What I am curious about, and you barely touched on it in your written testimony with some of the private initiatives being undertaken, I am interested in the electronic train management system, which is an overlay system that the BNSF is in the middle of. Can you talk to me about an overlay system, how that works? Can you also tell me how involved you are in that, and also where we are in that process as far as development goes? Ms. Strang. Sure. Okay. There are a number of efforts underway in the private sector. BNSF has the ETMS, or Electronic Train Management Systems; CSX is using Communications-Based Train Management, CBTM; the Alaska Railroad is pursuing another system. In the private sector, not a government partnership like the North American Joint Positive Train Control Program, BNSF's project is the furthest along. An overlay system is a non-vital system that uses a communications base to control trains. It has an office segment, a communications part, equipment on the locomotive, and wayside detectors. BNSF's project is 130 miles in Illinois, I think it is around Beardstown. They began their project a couple of years ago; right now, they are at phase two of a three-phase test. So they are running trains with the train control system turned on under a waiver from FRA. FRA has been involved in helping them test in all phases of it. We actually have a test monitor that is out there riding trains with them all the time. We are also doing a human-machine interface study with them, where we are looking at the human aspect of their interface with the system. Mr. Graves. What do you mean by non-vital, you said non- vital? Ms. Strang. "Non-vital" means that it is an overlay. The existing train control components are all still there: they are not taken away. Mr. Graves. Talk to me about cost. Are these not a little bit less complex? Ms. Strang. They are less costly than a vital system in some ways; they are new. Because you do not have a vital system, some of the testing requirements are a little bit less, and the component communications part of it costs much less. Mr. Graves. But there are, and I guess what I was getting at as much as anything else, there are a lot of things out there besides just what you all are doing, that the private industry is doing a lot to try to alleviate some of their accidents and doing some of the things that are going on, too. Ms. Strang. That is correct. Mr. Graves. So there is a pretty heavy initiative going on? Ms. Strang. That is correct. Mr. Graves. Thank you. Mr. LaTourette. Thank you, Mr. Graves. Ms. Norton? Ms. Norton. Thank you very much, Mr. Chairman. I appreciate the opportunity to sit with this Subcommittee. Of course, I am a member of the full Committee. I am sure that all of you are aware that as we speak there is a hearing going on which I think really says a great deal to us, should send a message to us about Federal inaction post-9/ 11 on rail and freight. The District of Columbia, one jurisdiction, unable to see any action by the Federal Government, but also seeing freight carrying hazardous substances going within four blocks of the Capitol of the United States and throughout heavily congested neighborhoods, took action on its own and passed a law and said you have got to reroute that stuff. The Railroad Administration said, well, we do when there is a big event in the District of Columbia such as on the Mall. But of course when Congress is in session and the rest of that is going on, we had no evidence that had been done. Some of us tried to get hearings. We wrote to Secretary Ridge and tried to get information. No information. The judge indicated that perhaps this thing could be negotiated and the information could be shared with the District and they would be able to understand that something had been done. The Government did not want to do that. So the judge looked at it and the judge must have said the equivalent of is this it, because here you had a Federal District Court judge ruling against the railroad in this instance, although everybody thought it was a slam dunk on interstate commerce grounds. The judge found when there is a gap in the law and the Federal Government sits there and takes no action, then it must mean that a local jurisdiction can move. Many of us in the Congress had thought that the better way would be to look at dangerous freight traveling throughout the United States and to try to look at all the options to try to in fact see what could be done. And as far as I can tell, the Railway Administration, the Department of Homeland Security have taken no action whatsoever. This is post-9/11, when everybody is rushing to take action to shore up various modes of transportation. We are talking about the transportation that most people use--rail, and of light rail, subways, and the rest. Yesterday at the markup of the Homeland Security Authorization, there were two provisions--one was report language, and one was a provision actually added. One had to do with passenger trains, to say, that would require DHS, presumably you to do what can only be called the basics, to take what you have learned, and I know that there is great deal of consultation and work that has been done with the railroads, and disseminate what best practices should be post-9/11. And the other was something that of course we have already done with air travel, and that is to take what you know and disseminate it to operators of trains so that they know how to prepare employees and the public to understand what to look for. Now here we are four years after 9/11 and we are asking part of our Government that regulates trains to do these basics. On freight, there is probably going to be report language on matters like pre-notification, for example, of local jurisdictions when hazardous substances come through. Our own Fire Department here in the District of Columbia, you would think that if you did not notify anybody you would be notifying the EMSes, said, when the council bill was being shepherded through, he did not have a clue as to what was coming through so that he could at least be alerted in case something happened. There may be language on setting protocols for effective communication between the authorities and operators, training for employees so that they know what to do, the kind of training that has taken place with respect to air travel. I simply would like your response about the inaction of DHS on trains, especially freight and passenger, especially when compared with a great deal of action that has been taken within DHS, TSA, et cetera, with air travel, and especially considering large numbers of people who use rail travel and the extent to which our country is dependent upon the transport of dangerous toxic substances. No one wants to stop it from happening, but, again, unrebutted testimony that one car right here in the national capital, one car successfully attacked could emit gases that would travel 14 miles throughout the entire region, causing 100,000 deaths within a half hour if the wind is going in the right direction. That is what caused a local jurisdiction to move. And you are going to see, if there is continued Federal inaction, you are going to see people popping up all over the United States saying I am not going to sit here and wait for something to happen. So I would simply like to take this opportunity to get your response to what has happened here in the District of Columbia, and to ask you what you intend to do to begin to take the kind of action for trains and freight post 9/11 that we have seen in air travel. Ms. Strang. Thank you. We are not part of the Department of Homeland Security or the Transportation Security Administration that has the lead in this effort. We are taking numerous steps to make--- Ms. Norton. Is this the Railway Administration? Ms. Strang. This is the Federal Railroad Administration. Ms. Norton. Well, the Federal Railroad Administration has a very heavy lead in what I am asking you about. Ms. Strang. We do, but it is through the Toxic Inhalation Hazard Project that is managed by the Office of Safety. I will be very happy to get a response for you from them. It is not something that I have expertise in. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.100 [GRAPHIC] [TIFF OMITTED] 21704.101 [GRAPHIC] [TIFF OMITTED] 21704.102 [GRAPHIC] [TIFF OMITTED] 21704.103 Ms. Norton. Mr. Chairman, I just want to say in closing, you see the answer was, duh. When I think Mr. Quinn was Chair of this Subcommittee, the Railway Administration was before us and I sat in on a hearing. This was before South Carolina. And in the process of examining someone like yourself from the Railway Administration, I asked the Chairman if before the end of the year he would agree that the Railway Administration would provide a plan, particularly given the considerable work they had already done, to the Chairman. Then Chairman Quinn went on record and said I want it, and I want it before the end of the year. And Mr. Chairman, as you take over the chairmanship of this Subcommittee, I want you to know that no such plan has come forward. I think it is a clear and present danger to our country. And I think, frankly, that what is happening on freight and passenger travel is more of a security risk today than what we might expect on air travel, because we at least have begun to take preventative actions there and we see no consistent preventative action on the part of the Railway Administration and others who should be involved. Thank you very much, Mr. Chairman. Mr. LaTourette. I thank the gentlelady very much. I will check with the staff as to what that status was last year and be happy to follow up with the FRA. Just a couple of observations. On a personal level, my fear has always been when we create these parallel universes, that is, a Federal Rail Administration and a Department of Homeland Security that seems to be like an octopus, we have several poorly funded agencies all running around in different directions rather than dealing with what I consider, and I know the gentlelady when she was the distinguished Ranking Member of our last Subcommittee assignment, consider an all-hazards approach. You also get silly regulations, such as the folks that thought up why do we not take off the hazardous material warning labels on tanker cars, so that nobody knows, especially the firefighter who is first on the scene, that he or she is actually there to clean up chlorine, so that we can trick the terrorist. I think that is an example of something stupid. And lastly, I hope that the District of Columbia's action is not replicated across the country. I have difficulty finding out why the judge was able to find it not at odds with the commerce clause, and we can have an honest disagreement about that. But I think the gentlelady's points are well taken, that we have spent a lot of time making sure that terrorists cannot take over airplanes, we have spent precious little time dealing with train travel in this country. There is a vote on. Mr. Sodrel, do you think that you have less than five minutes of questions, or should we recess and come back? It is your pleasure. Mr. Sodrel. We are about to vote. I guess I could ask the questions and get answers in writing, if necessary. Mr. LaTourette. If that is suitable with you. And that brings up something Mr. Menendez has asked me to do as well, and that is ask unanimous consent that all members of the Subcommittee have the same 30 days which we had under the previous unanimous consent request to submit additional questions to this and the remaining panels, and we would appreciate the answers when you can get them to us. Thank you very much. That being said, there is a vote on the House floor. We will stand in recess and return immediately after the vote. [Recess.] Mr. LaTourette. We are going to bring the Subcommittee back into order. The good news is I think this vote we just had on the House floor may be the last for a while. There seems to be a problem with the vote count on the Budget Resolution. So I think we are good to go for not only the rest of this panel, but also the other two panels. So, hopefully, we will not be interrupted. Before we left, Mr. Sodrel, you were kind enough to say that you might want to submit the questions. But we have held the first panel back, so fire away. Mr. Sodrel. Thank you, Mr. Chairman. You know, in the highway industry we have statistics that we use on accidents. There are accidents, incidents, then there are DOT reportable accidents. DOT reportable would be ones where the vehicle is towed, it cannot be driven away on its own; you have an injury or a fatality. I have heard that the accidents are up, and I have heard that the accidents are down on the railroad. So my question is, how many deaths do you have per passenger mile traveled on railroads? How does that compare with intercity motorcoach, or air travel, or private automobile, or some other standard where you have deaths per passenger mile? Do we know? And if we do not, if you can get the answer, I would appreciate it. Ms. Strang. I think I do. I just need to look to see if I have got it. Mr. Sodrel. I just occurs to me, we kill somewhere north of 40,000 people a year in automobiles. It seems to me that railroad travel Ms. Strang. Over the past five years, there have been 22 passenger fatalities. So the rate is very low. But I will have to get back to you with the actual rate per million passenger miles. [The information received follows:] [GRAPHIC] [TIFF OMITTED] 21704.104 [GRAPHIC] [TIFF OMITTED] 21704.105 Mr. Sodrel. Thank you. Thank you, Mr. Chairman. Mr. LaTourette. I thank you very much. And again, subject to the questions that Mr. Menendez had where you were going to supply some additional information, and also the unanimous consent request we made a little bit earlier, there may be additional questions coming your way from other members of the Subcommittee or from members of the Subcommittee that were here. We would appreciate your timely response. Also, when Ms. Norton was here, we will follow up at a staff level here on the Subcommittee relative to what Mr. Quinn may have asked of the FRA during the last Congress. But if you could sort of poke around the agency and if you can figure out what it is he was looking for and let us know, we would appreciate that as well. So we thank you, and you go with our thanks. It is now time to hear from our second panel. Our second panel is comprised of Mr. Edward Hamberger, who is the President of the Association of American Railroads; Dr. John Samuels, who is the Vice President of Operation Planning Support for Norfolk Southern; and Mr. William Pickett, who is the President of the Brotherhood of Railroad Signalmen. I thank you all for coming. We have received all of your written testimony. If you could summarize your testimony to the best of your ability, we would appreciate that. Mr. Hamberger, you are on. TESTIMONY OF EDWARD R. HAMBERGER, PRESIDENT, ASSOCIATION OF AMERICAN RAILROADS; JOHN SAMUELS, VICE PRESIDENT, OPERATION PLANNING SUPPORT, NORFOLK SOUTHERN; WILLIAM D. PICKETT, PRESIDENT, BROTHERHOOD OF RAILROAD SIGNALMEN Mr. Hamberger. Thank you, Mr. Chairman. I appreciate the opportunity to participate in your first hearing as Chairman of the Railroad Subcommittee. And I would like to echo Mr. Oberstar's opening comments, that it is indeed very appropriate that the first hearing focus on railroad safety and security. I would like to make a few brief opening remarks and then transfer my time to Dr. Samuels to go into a little bit more detail on some of the new technologies emerging. I would like to also thank the Committee for the leadership and vision it has shown during the reauthorization of TEA-21. There is no more vexing safety problem faced by railroads than that posed by grade crossing accidents and trespassers. We would like to thank the Committee for its strong support for increased funding for the Section 130 Grade Crossing Safety Program, and we ask you to continue to demonstrate such support in conference with the Senate. Nothing is more important to the Nation's freight railroad than the safety of their employees, customers, and the communities in which we operate. That is demonstrated by the scope and intensity of the industry's safety efforts. These efforts have resulted in dramatic improvements in railroad safety. Since 1980 the train accident rate has been reduced by 65 percent, and the employee casualty rate has declined by 78 percent. Last year, 2004, in fact was the safest in history in terms of both the number of employee casualties and the employee casualty rate. Let me try to address Congressman Sodrel's comments and Mr. Oberstar's. Mr. Oberstar is, in fact, correct that the absolute number of accidents has gone up in 2004 over 2003, but the rate of accidents, the rate as measured in million train miles, has gone down slightly. Similarly, while the number of highway-rail incidents has gone up, the incident rate, as measured in terms of million train miles, is the lowest on record, and that rate does not take into account the fact that highway traffic has also been increasing. We work continuously to improve all aspects of rail safety, including that related to hazardous materials. Railroads move about 1.8 million carloads of hazardous material annually, and 99.998 percent reach their destination without a release due to an accident. Rail hazmat accident rates are down 90 percent since 1980. We work continuously to assist communities in preparing emergency response plans, we provide emergency training for emergency responders, work with tank car owners, users, and builders to improve tank car safety, and work with rail labor to try to identify ways to improving operating safety. The source of much of our past success and a critical foundation for future gains is the implementation of new and improved technology. The industry funds an extensive research and testing program centered at the Transportation Technology Center in Pueblo, Colorado, which we operate under contract to the FRA. It is widely considered to be the finest rail research and test facility in the world, and the crash tests that you saw the tapes of from Ms. Strang's testimony were actually performed at Pueblo at TTCI. And I would echo her invitation to this Subcommittee to visit Pueblo either independently or as part of the next crash test in February. Let me now turn over two minutes and fifty-three seconds to Dr. John Samuels to testify on behalf of the AAR about some of the advances in rail technology. He is senior Vice President, Operations Planning and Support with Norfolk Southern, and just as importantly, serves as Chairman of the industry's Railway Technology Working Committee. Mr. LaTourette. Dr. Samuels, thank you very much for coming. The last time I saw you you gave a presentation that included coefficient of frictions and yaws and things like that. Maybe if you could dumb it down for me today, I would appreciate it very much. [Laughter.] Mr. LaTourette. But thank you for coming. Mr. Samuels. Thank you, Mr. Chairman. It is a privilege to be here today with you. I would like to talk a little bit about the science behind safety in railroading. Those of us in the scientific community that have dedicated our lifetime to making railroads safer for everyone appreciate the time we are going to have to talk to you about some of our advanced technologies. Time does not permit me to cover the wide variety of things we are doing, and I echo what Ed said, but I certainly would personally love to be out at TTCI when you and your Committee visit TTCI to be able to take you through all the good things that we are doing in terms of improving railroad safety. Let me start at the beginning, though, for today. The first slide I want to show you is a slide that shows the wheel-rail interface. You might think it is interesting that I would show this slide. But in my mind this is the most important slide to understand if you want to understand the foundations of safety on railroading. You can see from this slide, which is a cross-sectional view of a wheel-rail interface, the red area is the wheel, the blue area is the rail. You notice it is labeled ``vertical force'' and ``lateral force.'' There are two major forces that we must contend with and control in railroading to control the safety of the environment, and that is those two forces. You will see from this slide also that we have above rail programs called Advanced Technology Safety Initiative, ATSI, which is from this interface upward into the railcar, including the wheel set and the suspension system, and then we have a similar set of initiatives from the rail down, which is called Performance Based Track Standards. Today, I am going to give you a view of the most advanced technologies we are working with and the reasons why we are working with those. I bring to your attention first this cross-section of a piece of rail. What we really have at this interface is this rail in interfacing with the wheel does so, and I am going to put just a dime on the top of the rail surface here. All the stresses generated by the railcar go through an area the size of a dime. And in railroading today the stresses that go through there is 36,000 pounds per wheel set, on average. So we put the weight of approximately seven large SUVs through that dime into the rail infrastructure. And through the life of the assets, both the wheel and the rail, what we need to do is to control, believe it or not, that contact patch. One of the challenges of engineering science in railroading is to make sure that patch, when it starts out with new wheels and new rails and is the size of a dime, stays the size of a dime. Because if that contact patch varies or gets smaller, the stress goes up exponentially that is transmitted from the wheel to the rail. It is very important to do that. Now you see this cross-sectional rail. When we wear a rail out the ultimate wear-out rate depends on the strength of the rail and the entire track system. But this is a piece of rail that is at the condemning limit and is worn out. You can see that the geometry of the head is very much different than a brand new piece of rail. In a rail's life between brand new and this condition, we continuously monitor the rail and we look for things that will cause that rail to fail. And I am going to cover some of the latest technologies both from a rail standpoint and a wheel standpoint. On the next slide I would like to show you what we are trying to prevent. This slide is a picture of a fractured wheel. So let us talk about the wheel up for just a moment. This is a fractured wheel set. This is a real wheel that broke on our railroad. We did a complete metallurgical analysis of this wheel and it turns out in the metallurgical analysis that a small crack initiated at a defect in the casting. This wheel was about 12 years old when this occurred. So these wheels can stay out a great length of time before a crack initiates. There is a whole body of science on crack initiation and growth. In this particular case, the crack over time perpetuated to the point where the stress at the wheel-rail interface that was transmitted up into the wheel caused the crack to grow to a point where the wheel failed. One of the sciences we are trying to look at is, and it has been brought to your attention here, that many of these cracks that first initiate and grow cannot be seen by the human eye. And so no matter how hard you inspect these from a human standpoint, you cannot find them. So I want to tell you a little bit about the science we are using to get to the vital few areas where the human being really does not help that much any more and we have to use science. On the next slide, I portray for you the latest in laser acoustic testing. Now, let us keep it simple, like you said. What we have here is the diagram and in the upper left is a cross-section of a wheel. The little rectangle above it is a laser. It is a similar image on the right-hand side except you can see the little piece of a crack there that is growing at the surface of the wheel. The principle involved here is very simple: if these cracks grow and perpetuate through the wheel and ultimately fail, how can we find the crack before the failure occurs. What we do is we hit the wheel with a laser, the laser creates a mechanical pulse through the wheel. The image down below on the left shows a very strong return signal to the transducer, which says that the wheel is sound. The image on the right down below shows that the initial pulsing of the wheel with the laser was dispersed, significantly increasing that there is a crack in the wheel. So we are using this technology, which is brand new, by the way, to look at better ways of finding cracks in the wheel. On the next slide is our demonstration project at TTCI. To impinge the laser on the wheel and then to get the reflected sound, you have to follow the wheel as the railcar rolls by the transducer. So we have actually built a prototype system where we have a carriage that does the laser impingement and follows with the transducers as the wheel rolls over the rail, because we cannot find these things productively and efficiently unless we do it dynamically as the car rolls. And so we are working on this technology. While we are still speaking about the wheel, let us talk about this patch the size of a dime. If a wheel wears non- uniformly, that patch can get very small at the contact point. Now the picture on the right shows a wheel that is worn to what we call a hollow. That is a natural phenomena, the wheel is softer than the rail. And so in railroading the wheel does prematurely wear out. But what we need is technologies that will allow us to watch the wheel wear-out and pick the wheel off the car and remove before any accident occurs because of that geometry. The picture in the lower left-hand side shows a hollow wheel riding on a rail. If you look closely, you can notice that when the wheel is hollowed only a piece of the wheel contacts the rail. That creates a contact patch that is about one-quarter of the size of a dime, which increases the stress state of the railroad and can cause potential damage and failure of components. Now, how do we find hollow wheels? If we put human beings under the rail cars when they are stationary, it is very labor intensive and, quite frankly, in all kinds of weather and conditions it is very difficult to do. We are using new technology here. In the left-hand picture in this chart you see a bunch of lasers and laser cameras. In the lower right-hand picture with the red diagnostics, you see that what we do is we shine a laser on a wheel on a train going 50 miles an hour over this detector. The laser image is captured on cameras digitally and we rotate that image in three dimensional space, and within milliseconds we do a complete dimensional check of the wheel while the train is going over the detector at 50 miles an hour. And this development is now being put in place on railroads and will be used to watch wheels as they wear out. We also have, on the next slide, a train going over what we call a wheel impact detector. This is some transducers in the track that measure the vertical force that the wheel exerts on the track all around its circumference. We can pick out heavy hitting wheels that cause excessive stresses and route those cars to the car shop for wheel removal before they do damage or cause a derailment. Also on this slide you can see some boxes there in the lower left-hand side. That is an acoustical detector. While we are checking the vertical impact load of the wheel, we can also check whether the bearing is going bad. Right now on the railroad every 20 miles we have an infrared detector that looks at heat for a bearing going bad. Sometimes that is too late. And so what we try and do is find bearings before they fail. This is an acoustical detection system. Here is the frequency which we have correlated to defects in the wheel. And so we will just play one of these to show you what it sounds like. [Audio presentation.] Mr. Samuels. Now, if you have not heard that lately, that is a cupsball on the wheel. That says that the wheel bearing has a fretted surface that is beginning to fail. We can find through these sounds, believe it or not, bearings that are on their way to failure but nowhere near failing. And so we can take them out of service early. On the next slide what I am showing you is that we have now put these detectors I have told you about into a network of detectors in the United States. All railroads have a standard detector design. We have deployed these detectors nationwide and we are in the process of gathering all this data and putting it into one computer and accumulating it by rail car, by wheel, by axle. And so what we have in the next two to three years is we will have a system in place to actually watch rail cars wear out over their lifetime, understand the stresses that they cause at the wheel-rail interface, that contact patch, and control those forces. Finally, I would just like to talk about one thing above the topper rail. If you look at the wheel rail interface, a lot of the forces that are transmitted, are transmitted on curves. I will show you the worn rail, and this comes from a curve, because the geometry is very different. We have recently developed top of rail lubrication, which is an inert material that is put on the top of the rail. As you can see on the upper right hand side, you only put a mono-layer of this lubricant on the rail. It changes the coefficient of friction, and Mr. Chairman, you said, I love coefficient of friction, as you know. It actually has been found to cut the lateral forces on curves by 40 percent. That is being perfected. The next slide is just some data that shows you that in taking gauge widening on the rail, the actual spreading of the rails, which can cause derailments if it is not controlled, in actually looking at that, we have data over a year's period to show that when you lubricate the top of rail and change the coefficient of friction, we have actually gauge widening that has occurred on a very severe curve and in coal territory in West Virginia. Then finally, I would just like to say that we are multiplying the scientific effect of these various detectors, by taking what we learn from this laser acoustics in the wheel that I just showed you, and we are looking at rail, as you see here. Here, this rail has a vertical split or crack in it. A human being inspecting the track could not find this crack. But what we are doing is, we are perfecting that laser acoustics, so we can run down the track and find that accurately, every time. That is just some of the advance science that we are using to improve railroad safety. Thank you very much. Mr. LaTourette. Dr. Samuels, thank you very much, that was a very good use of Mr. Hamberger's two minutes and 54 seconds. [Laughter.] Mr. LaTourette. Mr. Pickett, thank you for coming, and we look forward to hearing from you. Mr. Pickett. Thank you, Mr. Chairman and members of the Committee. It is an honor for me to testify today on new technology and rail safety. It is a subject that is of great concern to this country and to all of our the employees on the Nation's railroads. Throughout our entire existence, the BRS and other rail unions have dedicated themselves to making the railroad work place safer, not for just rail workers, but also for the public at large. The rail industry is moving more freight with fewer employees than at any time in the history of railroading. Through mergers and the railroad management's never-ending quest to eliminate workers, railroad staffing levels are at an all-time low, and in some crafts, the numbers continue to drop. Those railroad employees that are left are working longer hours, and for many days at a long stretch at a time. A 12 to 16 hour day is not unusual for a railroad worker, and in many cases, it is the norm. On March 7th of this year, the Federal Railroad Administration issued the Final Rule for the Development and Use of Processor-Based Signal and Train Control Systems. With this Final Rule, FRA is issuing a performance standard for the development and use of processor-based signal and train control systems. The rule also covers system which interact with highway-rail grade crossing warning devices. I want to say personally that this change is a great step in rail technology. Signal systems currently in use today are designed to protect the safety and integrity of the railroad's operations on a section of track that provides for broken rail protection, track defects, track obstructions, proper switch and derail alignment protection, route integrity protection, and protection against train collisions. Signal systems are designed to mitigate the dangers caused by human error and acts of vandalism or terrorism. Clearly, it is in the best interest of the railroad and the local residents to have the protection of a signal system. A good example of the benefits of a signal system can be seen when we look back to January 6th of this year. The derailment that many of us have talked about today happened in Graniteville, South Carolina, which the preliminary investigation has indicated was a result of an improperly aligned switch. Nine people died, 318 needed medical attention, and 5,400 residents within a one mile radius of the crash site were forced to evacuate. The segment of the track where the accident occurred was called Dark Territory. A basic signal system would have prevented this accident. A switch monitoring device would have noted that the hand throw switch was not properly aligned, and the train would have had a stop signal. The BRS does not believe that improper planning by the railroads and their failure to properly maintain a signal system can be reasons for the FRA to grant a waiver request to increase the amount of non-signal territory in our Nation's railroads. Positive train control systems are just one facet of the signaling revolution that is occurring. Many current signal systems benefit from the changing technology. We must work to ensure that any new technology that the railroad industry contemplates to implement, that the proper risk analyst and proper steps are taken to make sure that the new devices introduced do not create more new hazards than we eliminate. The rail unions consider it equally important to provide advanced training and education to improve the skills of the professional men and woman that install the safety devices on our rail systems. In addition to craft-specific training, security training must be mandated. While some rail carriers might claim progress in this area, I have talked to too many workers who are not receiving any training, or might be allowed to watch some video that tries to be a one-size-fits all. The railroads transport the most toxic and dangerous materials in the country. Most every freight train in the United States transports some types of hazardous material. The train crews are given very limited training in understanding what to do in case of a hazardous material leak or explosion. After 9/11, each railroad was required to develop and implement security plans. The Transportation Security Administration has apparently approved most of the plans on the railroads. The problem is that the employees have never been brought into the loop. The bottom line is that the TSA and the railroads must promptly begin an intense training program to educate and prepare railroad employees to recognize potential terrorist and safety security risks. In addition to training, we must also ensure that workers who report and identify a security risk will not face retribution or retaliation from their employers. A rail worker should not have to choose between doing the right thing on security and his or her job. If Congress considers rail security legislation, it must address this problem, by strengthening the current whistle blower protections. Over three and-a-half years have passed since 9/11, yet amazingly little has been done to secure our Nation's transportation network, especially in rail. Sufficient resources have not been allocated. Common sense requirements have not been imposed. Too often, employees and their unions have never been enlisted in the process. Amtrak alone requires $110 million in one-time security upgrades. One way that we can improve the infrastructure inspection is to direct the Secretary to issue rules requiring that no visual track inspection be conducted from a vehicle traveling at a speed of more than 15 miles per hour. The incorporation of a nationwide telephone notification system would greatly improve safety for our Nation's grade crossing signal system. This Nationwide telephone notification system could also be used by anyone to report derailments or other events that affect safety and security on the property. The Transportation Security Administration is spending $4 billion this year on aviation security, an investment that we, of course, support. But passenger rail and transit are being left with just $10 million for their security. There are over 100,000 miles of rail in the United States, and 22,000 miles of it are used by Amtrak in 46 states and the District of Columbia. New technology will not cure all that is wrong in the rail industry. There is much to accomplish to make the Nation's railroads safer for communities across the country and for our rail employees. Experience teaches us that it is Congress that must provide the leadership to make safety a reality. I hope we can work with you in seeing that the improved safety practices become a reality. Thank you, Mr. Chairman. Mr. LaTourette. I thank you very much, Mr. Pickett. Your last observations, I certainly share, and I suspect most of the folks on the Subcommittee share. It occurs to me that we sort of respond to something that happens. We spent a lot of money making sure that terrorists cannot hijack planes. But once we harden targets, they begin to look at other areas. I think you are right to alert us to the issue of railroad security. Dr. Samuels, I mentioned at the outset of this hearing, on May 11th, we are going to be looking at what happened with the Acela train and the disks that are under some scrutiny today. Bombardier will be here and others to talk a little bit about what is going on. You talked about the new technology focusing on not only deficiencies or rails wearing out, but you also mentioned that the wheels are softer than the rails. So you are watching wheels as they wear out. Is there a rule of thumb, life expectancies for wheels on a rail car, or is it all different? Mr. Samuels. It depends on a lot of different things, obviously. But it is the percent of time that the car is loaded. It is the number of miles that the car has. So it basically is in miles more than it is in years. Depending upon the load empty ratio, you can get a wheel that goes for 250,000, or you could get a wheel that goes for a half a million miles. The life expectancy normally on wheels is very long though, in the time frame of 8 to 15 years. The rail that I showed you here on tangent track could last 40 years, and on curves, it is anywhere from 6 to 12 years. So these assets have very long lives, and that is why it is critical that we develop these dynamic monitoring systems to make sure we understand the stresses that the car is imparting on the rail, and know the condition of the rails, so that we can put the appropriate amount of maintenance money into both the rolling stock and the rail infrastructure, to keep that contact patch at the size of a dime. Mr. LaTourette. These monitoring devices that you have outlined for us as part of the new technology, I saw the map of the United States. Is there a spacing that they are going to be every 100 miles, every 1,000 miles? How do you figure out where they go? Mr. Samuels. What we have done is this. I will take Norfolk out as an example. We have done a complete analysis of the ton miles on all of our routes, and where cars flow. We have looked at the origin destination pairs. We are locating these detectors to pick up the majority of cars that transit our system. In other words, what we are trying to do is make sure that we get the maximum amount of cars over these detectors. Now these detectors are not inexpensive. When you install these detectors, you are talking about at least a half a million to one million dollars per detector. They are detectors that are meant to find defects before they occur; in fact, so far before they occur, that the science we are imparting on this is that we are going to find the defect with this detector network. In other words, we are going to track the car and watch a defect grow. Then we are going to take the car out of service way before that defect ever becomes a safety problem. It is being integrated now. Each railroad is integrating that advance data into their data systems that will automatically route the cars to a car shop. This is going to happen way before you have an incident with that defect. Mr. LaTourette. You mentioned that the laser technology is new and you showed us a picture of a split rail. I thought I understood you to say that you are testing it so that it is 100 percent and you always find the split that you cannot find by visual inspection. Is that still in the testing phase, or have you ruled that out? Mr. Samuels. No, it is still very much in the testing phase. I do not want to give you the impression that we do not ultrasonically test the rails today. We do. It is a very slow process. We have cars called generically Sperry cars, which the name comes from the original company that started ultrasonic testing. But we test the main line rails at least once or twice a year. We have the mathematics to look at the number of defects we find. If we find a lot of defects in a given stretch of rail, we come back sooner to test that again. So the testing frequency depends upon what you are continuously finding. In that way, we continuously hone in on those parts of the rail infrastructure that need to be changed out. Mr. LaTourette. Thank you, Mr. Samuels. Mr. Pickett, I asked the woman from the FRA a little bit about this portion of your testimony where you talk about cars traveling no greater than 15 miles an hour for the inspection of tracks. I would just ask you how it is that you arrived at that as being the safe speed? Mr. Pickett. The Brotherhood of Maintenance of Way is the one who proposed that. That is one of the other unions that I am here testifying on their behalf, also. But one of the things that we are seeing is the visual testing, not the testing of where the electronic devices are used. They normally are used at 30 miles per hour. Mr. LaTourette. I also read recently that in India, the Indian rail has a signalmen's college. I would ask you, you mentioned training. I think you indicated that you did not think some of the training, and particularly security training, was where you and your membership thought it would be. Can you discuss a little bit with us how signalmen are trained in the United States, and if there is a technical school where they go to, to learn the trade that they are to embark on? How does a signalman get his or her training in the United States today? Mr. Pickett. Most training on the Class 1 railroads are done on the property. They have their own signal schools set up on each individual property. The requirements to become a signalman got more and more stringent because of the technology. A lot of the railroads are asking for some background in electronics, or at least an Associate's Degree in electronics. But then that becomes a problem, because initially, our people work out on the construction gangs. That means travel, and a lot of people that are in technical are not willing to do that. But the training goes from Associate training, and on most of the railroads, some of the Class 1s have what they call advanced signal training, that the signal people go return to. Mr. LaTourette. That leads to a follow-up. I think it was yesterday, the full Committee marked up RIDE-21, which makes available $60 billion over the life of the bill for new rail infrastructure, and hopefully can help with some of the capacity problems we have in the United States, as well as looking at high speed rail opportunities. Do you feel that there is a sufficient reservoir of qualified rail work force to take us into this next century, or do we need to do more? Mr. Pickett. No, I feel that we are going in the wrong direction for qualified people, especially with the next few generations. There are a lot of retirements being faced in the next 10 years. The hiring is going down in a lot of the crafts, rather than up in the crafts for the people to get qualified. Mr. LaTourette. I know in Ohio, we have an electric company that is called First Energy. They come in and they indicate that the average age of their electricians and linemen is about 55 or 56 years of age. Do you know what the average age of your membership is? Mr. Pickett. Our average age is 44 and one half. Mr. LaTourette. Okay, thank you very much. Mr. Menendez? Mr. Menendez. Thank you, Mr. Chairman, and I want to thank the witnesses. Mr. Hamberger, I want to ask you this. I heard what you said, but I do not understand how we reconcile what you said with the number of accidents that have gathered national attention, from a series of Union Pacific accidents in Texas, to the BNSF accidents in California, to the deadly accident involving Norfolk Southern's train in Graniteville, South Carolina. How do you reconcile your assertion? I heard about track mileage and all that. But I am looking at actual hard numbers of accidents. So how do you reconcile your assertion that rail safety is improving, when the FRA data shows an increase in accidents, if you look at from 2002 to 2004, of 380 more accidents? Mr. Hamberger. Yes, Mr. Menendez, thank you for that opportunity to clarify. I have that data in front of me, as well. The point I was trying to make in my opening statement was that the number of accidents has indeed increased, as you so indicate. But the rate of accidents, I think, is perhaps a better measure of whether or not safety is improving or not improving. That is, the more train miles you have moving, from a statistical standpoint, there are going to be some accidents that, when measured to page two of the data, indicate that when measured as a percentage or the number of accidents per million train miles that the rate, we should probably say it is about the same. It is 4.03 accidents per million train miles in 2003 and 4.01 per million train miles in 2004. So I think it is that rate that really indicates whether or not safety is increasing, rather than the actual number. Mr. Menendez. I appreciate that categorization of it. When we look at accidents by car in this country, we look at the total number of accidents, period. We make judgments as to whether we are moving towards greater success or failure by the virtue of the number of accidents that we have. I heard one of our colleagues suggest that comparison of your success rate in the industry and accidents versus that of automobiles. I am not quite sure that that is a fair comparison, considering not only volume, but also the fact that we use multiple lanes and a variety of other factors that go into car traffic. It does not seem to me like we compare apples and apples in that case. I know that the industry wants to do this, because obviously, it costs it money, consequences, and reputation and all of that. So I assume that there are good efforts, in addition to all the technology things that are being done. But I hope we deal with the work force side, as well, to help you, as an industry, achieve what should be some mutual goals. Let me ask you specifically, the title of the hearing is also about rail security. In that context, what has the rail industry done specifically to improve security, and what have you done to work with the workers in terms of rail security training? How do you get your rail security alerts, as an industry? Mr. Hamberger. Again, thank you for the opportunity. It is a bit of a rambling answer coming, I am afraid. We began in September of 2001, immediately after the 9/11 incidents, recognizing that the material that we haul is, in fact, hazardous. So we quickly put together five different critical action teams that take a look at all aspects of the operations of the railroad, focusing one of those on the transportation of hazardous materials. We realized very quickly, that we needed help in this regard, and we contracted with a local group called EWA, comprised primarily of former military and civilian intelligence officers. They came in and worked with us to take a look at the rail network the way they were trained, and the way they thought that a terrorists would look at the network. They brought with them best practices from the intelligence community. In December of 2001, we came up with four levels of alert, prior to Secretary Ridge coming up with his five. We identified and implemented immediately about 50 different ways of operating. For example, leading up to that point, we had been trying to make our operations more transparent for our customers. We let them dial in and find out where their shipment is. We realized that that was not very secure, and that anyone had access to that information. So we cut back and made that much more difficult for those who do not have the right to know, to try to tap into that. Then at each level of alert, we have a very specific set of actions that we will take; for example, posting guards at fuel depots. We have reached out and are working with local police forces, the National Guard. When we went into Iraq, the National Guard helped protect and guard about 17 bridges around the country. We are the only industry that I am aware of that on our nickel has somebody sitting, a badge to sit, 24/7, at the National Joint Terrorism Task Force Intelligence Desk at the FBI, as well as at the intelligence desks out here in Herndon, that TSA and DHS run. These are people under contract to us. They are at top secret level, and they are sitting there, hoping to help the intelligence community interpret data that they pick up, the so-called chatter. It also is a two-way street. Mr. Menendez. So primarily, it is informational. Mr. Hamberger. It is based on intelligence. Mr. Menendez. It is reactive to a potential incident. Mr. Hamberger. It is based on intelligence. That is correct. Mr. Menendez. But it is not proactive in the context that you have done certain hardening? Mr. Hamberger. No, that is not correct. We have certainly done that, as well. For example, we have made it much more difficult to approach the yards. I get e-mails every day, rail fans around America, saying, you know, you are not letting me take pictures of trains. That is what I like to do. So that is something we have also been proactive in. Certainly, here in D.C., working with the Capitol Police, working with the D.C. police, working TSA, CSX has spent millions of dollars on intrusion detection devices and other high tech applications to make this particular corridor much harder and a hardened asset. Mr. Menendez. If I may, Mr. Chairman, very briefly, Mr. Pickett, rail security as it is viewed from rail workers, what do you think needs to be done? Mr. Pickett. They need to be trained. I mean, a lot of the stuff that Mr. Hamberger talked about, it is the first I have heard about it. I did not know they had any type of thing. Most of the workers in the rail industry will tell you the same thing; that they are not aware of any type of training that is going on for the security. Mr. Menendez. These are the people who are obviously out there in the system. Mr. Pickett. They are out on the property every day. Mr. Menendez. Why do you not do that, Mr. Hamberger? Mr. Hamberger. Well, I guess I would disagree, respectfully, with that characterization. The individual companies, in fact, have made security part of the daily safety briefing. There have been briefings on what to look for, for the operators of the locomotive. If they see anything unusual, they are to report that back to the dispatch center, back to the train master. They are not punished for doing that. As far as the fact of the hazardous materials that we handle, there have been years and years of training as to how to respond to that. You do not want the operator of the locomotive to get out and be the emergency responder. You want the team that is trained to be the emergency responder to be the first on the scene to know how to handle and respond to some HAZMAT spill. So I guess I respectfully disagree with that. Mr. Menendez. Well, I have some additional questions, and I do not want to belabor the time. I do have one for Dr. Samuels. I have two quick ones. Is it a helium or neon laser that you are using, or some other form of laser? Mr. Samuels. No, I do not know the exact power source generation of the laser that we are using. Mr. Menendez. If you could let us know, I would like a verification of it. Mr. Samuels. Okay, I will do that. [The information received follows:] Dr. Samuels: Congressman Menendez the type of laser that is used in the detection device I mentioned is a Class IV 800 mili-joules light yang laser. Mr. Menendez. Lastly, is there any technology that you are using, since we talked about rail safety, in your ambient of what you are doing for the association as it relates to rail security, that you are providing or studying right now? Mr. Samuels. There is a lot of work going on in looking at technological scans on what could possibly be used in terms of rail security. What we have done, and I echo what Ed Hamberger said, we have had tried to educate our people as to how to be alert and what to be alert for. We have a lot of eyes. In the case of Norfolk Southern, there are 28,000 people out there every day working. That is a lot of eyes watching the railroad and watching what goes on. So what we have tried to do is set up police emergency numbers, police emergency desks. There are calls on safety and security among our management team. I have personally been trained in security matters. I went to this terrorism training because I was deemed to be too nice a guy, and did not know how terrorists think. In formulating our plans on the railroad and our educational processes, what we have tried to do is say, how much prevention can we put in place by educating our people? There are not 28,000 policemen. But there are 28,000 people watching what goes on, and we have a mechanism to report what they see. There are a couple of specific technologies, if I might, Mr. Menendez. We are working on one that would be a database that would have within it the profile of all 1.5 million rail cars operating on the system. As the rail car would go by, it would match, through visual imaging, and do not ask me what that means. As the car goes by, it would match the visual image of the car with what is in the database, to see whether or not, for example, a bomb has been planted in the bottom of that rail car. That is something that is being tested out in TTCI. In addition, as Ms. Strang mentioned, there is research going on for some sort of a liquid armor, that looks as though it actually has self-sealing capabilities, if a breach did occur. This obviously would have not only security, but safety implications, as well. That research is being done at TTCI with DHS funding. Mr. Menendez. Thank you. Mr. LaTourette. I thank you, Mr. Menendez. I have just one quick follow-up question, Mr. Hamberger. I was surprised when Ms. Norton was here, on this issue about the D.C. legislation that is now in litigation. She opined that the fire chief from the District did not have advance information of what kind of traffic was going through his town. I understand from my fire chiefs that there is, in fact, technology and a program. I do not know if they subscribe to it or somebody gives it to them free. But my fire chiefs in Ohio indicate to me that they know when a train is coming through town that has chlorine or some other substance, that maybe they have got to perk up about. Am I wrong? Mr. Hamberger. I think Mr. Collins probably should respond, and the next panel can get into some more of the specifics. Let me tell you what I think I know. That is that we do not provide pre-notification on a train-by-train basis. What we have agreed, and I will double check on this during the break, it is our understanding that the fire chief has been briefed, probably perhaps subsequent to his conversation with Delegate Norton. But we believe that we have briefed the D.C. fire chief. I met this morning actually with a representative from the International Association of Fire Fighters, who concurs with our view, that with 1.8 million carloads of hazardous material moving around the country, that most fire departments could not deal with the blizzard of information. It would just overwhelm them and become so commonplace that it would not, in fact, perk their ears up. Therefore, what we have offered, as an industry, is that we would sit down with the appropriate emergency responders in a community, to let them know what are the kinds of things that come through their community, so that they can be trained on those specific hazardous materials. But the pre-notification is not on a train-by-train, car-by-car basis, because of the overwhelming nature of it. Mr. LaTourette. I thank you for that. The other comment I would make is this. It is apparent from the questions by Mr. Menendez and your conversation, Mr. Pickett, that there is a disconnect between the organizations that represent railroad employees and the railroads, at least as represented by you today, about whether or not there has been security training. I often find it to be more instructive, rather than for us to have more hearings and find this out; maybe you could initiate a conversation with Mr. Pickett and his fellow folks. Mr. Hamberger. We have worked well together on other issues, and I am sure we will reach out and talk on this one, as well. Mr. LaTourette. Well, I appreciate that very much. Is there anything else? Mr. Hamberger. If I might, just for the record, thank you for your indulgence in letting us go a little bit longer in the presentations. Mr. LaTourette. I did not even notice. Thank you for coming. Mr. Hamberger. Thank you. Mr. LaTourette. Our third and final panel today consists of three witnesses. First will be Mr. Daniel Collins, who is the President of the Operation Respond Institute. Second will be Mr. Thomas Rader, who is the President of the Colorado Railcar Manufacturing Company; and lastly, Mr. Jeremy Hill, who is the Senior Vice President of the Union Switch and Signal Company. I want to thank you all for coming. Thank you for your patience as we got through our other two panels. We are anxious to hear from you, and we will begin with you, Mr. Collins. STATEMENTS OF DANIEL M. COLLINS, PRESIDENT, OPERATION RESPOND INSTITUTE, ACCOMPANIED BY JAMES BOONE, VICE PRESIDENT, AND GERALD LYNCH, EXECUTIVE DIRECTOR OF REGIONAL INFORMATION SHARING SYSTEM; THOMAS RADER, PRESIDENT, COLORADO RAILCAR MANUFACTURING; JEREMY HILL, SENIOR VICE PRESIDENT, UNION SWITCH AND SIGNAL COMPANY Mr. Collins. Thank you, Mr. Chairman. On behalf of the carriers and emergency responders that support Operation Respond, in partnership with the Federal agencies, I am honored to provide the following testimony on new technologies for railroad safety and security. Accompanying me here today is Dr. James Boone, our Vice President, and also Mr. Gerald Lynch, the Executive Director of the Regional Information Sharing System, one of our strong law enforcement partners. Mr. Chairman, I would like to express the gratitude of the Operation Respond Team for inviting us to participate in this hearing. I would also like to acknowledge your acceptance to serve on the Operation Respond International Steering Committee, along with your esteemed colleague, the Honorable Nick J. Rahall. Operation Respond has been involved in developing software products for first responders since 1995. We could not have accomplished all that we have without the assistance of the fire chiefs, the fire fighters, the National Volunteer Fire Council, the chiefs of police, and the International Union of Police Associations. These response agencies, the Association of American Railroads, and the American Public Transportation Association have been there for us, time and time again, to fine tune our products, and assist with dissemination and training. Our software, Operation Response Emergency Information System, is currently deployed in over 26,000 emergency response agencies in the United States, Canada, and Mexico, reaching an estimated one million responders. The largest component of these installations is the RISS- NET system. Mr. Lynch's organization thought so highly of the OREIS software, that they placed it right next to the Amber Alert System, inside of RISS. The software OREIS provides a direct link to the software user and the manifests of participating railroads. Responders can obtain verification of hazardous materials contents of leaking rail cars in less than one minute. Our goal is to make sure the first responder is not the first victim. All Class 1 railroads in the United States and Canada have signed license agreements with Operation Respond. Also, many regional and short line railroads participate, such as the Alaska Railroad and Montana Rail Link. Basically, Mr. Chairman, the freight railroads have stepped up to the plate. They provide, through our secure software, all the information they have on chemical contents to responders along their routes. If I may, Mr. Chairman, deviate here a second, this is not pre-information that is supplied. This is live information that is gained by the responder accessing the software, if and when something happens. It is an exception based system that is generated by a query by the responding agency that has our software. Now, Mr. Chairman, to address the topics specifically mentioned in your letter requesting this testimony, we are going to address three issues. On improved infrastructure technologies, we believe responders to rail transportation incidents often need help to confirm the exact incident location and how best to reach it. Railroad infrastructure landmarks are not always understood by responders, and have led to responders wasting valuable time finding trains. For example, a railroad milepost may not be directly related to a mile marker located along a nearby highway. Operation Respond has found that a searchable database of railroad features, designed to overlay on aerial and satellite imagery and street maps, enables emergency responders to quickly and reliably reach an incident site. In fact, in 2004, under sponsorship from the Department of Homeland Security, Operation Respond developed such a system, an enhanced GIS and overlaid imagery system for the Department of Homeland Security and Amtrak police. The project was a highly focused effort along the Northeast Corridor, and it was completed prior to both the Republican and Democratic conventions. Operation Respond believes that a cooperative effort with some Federal funding can identify and develop a standardized geospatial database of essential railroad features. The benefits would include allowing carriers to determine the appropriate response organizations in an emergency; assisting railroad police and emergency operations desks to communicate with public agency dispatchers; and last, to help those responders locate trains in distress in a timely fashion. The other issue is better emergency planning. Our approach has been to improve emergency planning by bridging the gap between the responders and the carriers. Through easy-to-use software, complicated railroad data is simplified. So a 19 year old volunteer fire fighter can quickly and easily obtain what they need. Also, I would like to introduce new technology that we have been working on. Our goal is to turn the Operation Respond user base, now 26,000 strong and growing, into a transportation incident alert and messaging system. What we are working on with the AAR and the individual carriers is the capability that sends alerts and messages to those responders and to the carriers' 24/7 operations desks. These alerts or messages could be directly associated with incidents or based on a potential threat, such as an explosive device or a possible terrorist action. Last is modern passenger coach technologies. Law enforcement has been particularly interested in Operation Respond passenger coach software. This component of OREIS features passenger car and locomotive schematics, highlighting emergency information, such as emergency windows and doors. The law enforcement component views these schematics as a very effective tool for dealing with on-board incidents. These could range from identifying locations for hiding bombs and how to approach an on-board hostage situation. To conclude, Mr. Chairman, I have four recommendations. Number one, all railroads should participate in Operation Respond. I respectively request that this should be a voluntary initiative. Second, a national railroad infrastructure search engine should be developed. The priority should be DOD routes, hazardous material routes, AMTRAK, and commuter train routes. Third, a national transportation incident alert and messaging system needs to be developed. Operation Respond software users are the ideal group to serve as the network foundation. Finally, while the OREIS software deployments are indeed growing, the goal needs to be universal coverage. At the present time, we are essentially half the way there. Thank you again, Mr. Chairman, and when the questions are ready, we will try to answer them. Mr. LaTourette. Thank you very much, Mr. Collins. Mr. Rader, welcome, and we look forward to hearing from you. Mr. Rader. Thank you, Mr. Chairman, I am here on behalf of Colorado Railcar Manufacturing to talk a minute about emerging technologies in passenger equipment. We really have two emerging technologies to talk about. One is the development of double-decker vehicles. The second is the development of the U.S. DMU. I am going to focus primarily on the U.S. DMU. DMU stands for Diesel Multiple Unit. It simply means a car which is self-propelled and has diesel engines underneath it. It does not require a locomotive, and is capable of being hooked together in multiple units to make various sizes and types of train sets. They are very common in Europe. There are thousands of them operating throughout the world. It is a technology, however, that has not been in the United States since the late 1960s. The reasons are multiple, but one of the chief reasons, as Joe Strang presented earlier, in 1999, there were new regulations enacted that required stronger, safer passenger cars. On the other hand, there were no large orders, no transit agency wanted to order a speculative order of a new self- propelled car that had not been run anywhere. My company decided that there was an opportunity here to make a United States car that met United States regulations. We went to the Federal Railroad Administration. We got wonderful cooperation. We spent a year and a half working with them, and the result was a U.S. DMU. Why are we so interested in this? It is very simple. The U.S. DMU uses 50 percent less fuel per passenger mile than a locomotive-hauled train when it is being used in an appropriate service. That is energy security. We are talking about trains using millions upon millions less gallons of fuel per year. Because we have a lighter train, but still build to the regulatory safety standards, we can use less fuel and we can use more modern engines. So we produce 68 percent less pollutants or emissions per passenger mile. So instantly, we can reduce the emissions from trains. Because of the noise design and the size of the engine, we actually produce 75 percent less noise. So these benefits are very real when it comes to security and safety. But interestingly, they do not typically cost millions of dollars more. In point of fact, the operational cost savings from a U.S. DMU, over the 30 year life of the car, is two to three times the value of the car. So a $10 million train set, over 30 years, will save as much as $35 million in operating costs. They are redundant systems. Unlike a locomotive that has one large engine, they have two or more per train set. So they are not blocking the track when you have an engine failure; and if someone is capable of messing up, if you please, a system, we can still get it off the track and get it home safely. Lastly, in spite of all these other savings, it has another great benefit in savings in infrastructure costs. We can reduce infrastructure costs because we have shorter trains, so we need shorter platforms. We have fewer cars because they are double deck, so we need fewer maintenance bays and we need fewer parking tracks. So all of these benefits come without any increase in capital cost. Thanks to the hard work of a member of your Committee, this double deck car development is now in production, and will be in operation in Florida, starting in the middle of July. It is presently in completion, and will be going to TTCI for testing in the whole month of June. We invite you to come see it. It is a real opportunity for us to maintain the safety level, the only self-propelled vehicle in the world that meets United States' standards. When you saw those crash pictures, I think it is very important to understand, the first cars you saw do not meet the current standards. Only the reinforced car met the current standards. These cars meet the current standards. When it is finally delivered, it will look like this, on the next to the last one there. I want to thank you very much for the opportunity to testify before the Committee. Mr. LaTourette. Mr. Radar, thank you very much for coming. We would like to identify the hard working members of our Committee. So is that Mr. Mica you were talking about? [Laughter.] Mr. LaTourette. Mr. Hill, thank you for coming, and we look forward to your testimony. Mr. Hill. Thank you, Mr. Chairman. Chairman LaTourette, Ranking Member Menendez, and Committee members, thank you for the opportunity to present information on technologies that are available today for increasing safety, security, and efficiency of railroad operations. Our company is part of Ansaldo Signal and the Finmeccanica group of companies. As Union Switch and Signal, we have served the rail industry in the control system business as a leader in the development and deployment of technology throughout our 125 year history. Development of new products for rail safety and security is a primary focus of the Finmeccanica family of companies throughout the world. We are headquartered in Pittsburgh, Pennsylvania, with manufacturing facilities for our products in Batesburg, South Carolina, and have many representative offices throughout North America. We currently employ about 900 people within the United States. The rail safety solutions that I am presenting today are currently available in our portfolio. They do provide improved infrastructure inspection and security, positive train control, and better operational planning and emergency coordination. Let me first discuss our railroad track integrity system. This system, which is based on a proven technology already in service in North America, checks track integrity. That is a broken or missing rail in dark or unsignaled territory. It can incorporate switch point position detection, and provide communication directly to a train or to a centralized management center. Many secondary lines are not equipped with train control systems, as we have already heard. There are, in fact, 68,000 miles of Dark Territory in North America. Signal systems not only control the flow of rail traffic, but they can also warn an approaching train of a broken rail or improperly aligned switch. Unfortunately, signal systems tend to be expensive and, therefore, generally uneconomical on light density rail lines. At Union Switch, we have developed this new implementation, which has the potential to dramatically improve security and safety on these light density rail lines. The system is relatively low cost, and could prevent a reoccurrence of accidents, such as the tragic derailment in Graniteville, South Carolina, earlier this year. The second topic is positive train control. This system also utilizes proven Union switch technology, which will be deployed on the Alaska railroad for revenue service by summer of the year 2007. Deployment will improve operational efficiency, and prevent train-to-train collisions through the use of GPS tracking and location determination, and on-train operator enforcement. In our terminology, this system is vital. That is, any system failure automatically results in an overall known safe state. The third technology is the advanced speed enforcement system. This system provides an improved level of safety. It ensures that trains actually stop at red signals. The system has been implemented on Amtrak in the Northeast Corridor, and also on New Jersey transit commuter operations. This technology, originally introduced in Scandinavia by one of our Ansaldo Signal sister companies, can be implemented in any territory, and is ideally suited to mixed traffic operations. We are also exploring a new technology called the Common Operational Picture. Currently, railroad operations planners in cities like Chicago and New Orleans plan inter-line operations the same way they did when railroads were introduced, basically with paper, telephones, and faxes. Our Common Operational Picture would enable these personnel to see on a geographically-oriented overview, all train operations in these heavily-trafficked, congested areas. The end result will be better planning, coordination, and a reduction in the transit time of the Nation's freight in heavily congested areas. We are also working on an optimization traffic planner. As you are aware, there areas in the Nation where railroads are already at full capacity. Without the need for adding additional infrastructure, this software-based tool plans overall train operations in real time, taking operational information on the railroad, such as track outages or defective equipment into consideration, to provide the most optimum train plan possible, based on established business objectives; for example, maximizing overall railroad velocity. The system has been in development at Union Switch for five years, and although not currently deployed on any railroad, the technology has been demonstrated, and we are anticipating deployment on a Class 1 railroad in the near future. Our civil advisor system was originally conceived for use by 911 emergency responder dispatchers. The system provides secure real-time train information and location on a geographical information system map. Train locations are displayed, relative to detailed highway and street information and other physical infrastructure; for example, public buildings, hospitals, stadiums, et cetera. Most importantly, the system can provide information on blocked highway crossings, and in the event of a railroad emergency, it can provide additional information, such as train manifest information, HAZMAT detail, and the correct emergency responder contact information. The potential users are enormous: 911 dispatchers, police, railroad and transit agencies, Department of Defense, Homeland Security and Transportation, the Federal Emergency Management, the Federal Railroad and Transportation Security Administrations, to name a few. We look forward to the further implementation and deployment of these technologies, and encourage your Committee to enact the legislation necessary to establish the innovative public/private partnerships, such as the Create Project in Chicago, that will provide a mechanism for immediate implementation for the benefit of the rail industry and the public at large. As always, one of the biggest challenges in deploying new safety technology on rail systems continues to be funding. Before I conclude, I would request permission for the document I have submitted, detailing these new technologies to be included in the record. Mr. LaTourette. Without objection. Mr. Hill. Once again, I would thank the Committee for the opportunity to present today on behalf of Union Switch and Signal and the railroad's signal and control systems supply community. Thank you very much for your time and support. I would be happy to answer questions that you may have, thank you. Mr. LaTourette. Mr. Hill, thank you very much for your testimony. I am sure both Mr. Menendez and I will have questions. Mr. Rader, my first question would be to you. How fast do your trains go? Mr. Rader. The initial train that we have designed is 110 miles an hour. Mr. LaTourette. It is my understanding that aside from the good work that is going on in Florida, that you have also introduced, or plan to introduce, or started to introduce, a new fleet of cars up in the Alaskan railways. Is that right? Mr. Rader. That is correct. They were just delivered. I got a call yesterday in route to this meeting. Mr. LaTourette. Can you tell us a little something about the cars that were delivered yesterday, and what kind of operation is going to be conducted up in Alaska? Mr. Rader. Yes, they are double deck, full-length, glass dome cars, the largest passenger cars in the world, and they are designed for the luxury tourism market. The Alaska railroad, well, let me see, I should know, I started it, in 1983, has been towing the cars behind their scheduled services of the various cruise companies to Alaska. They have now made sufficient profits from that operation to reinvest in building their own luxury tour cars, and they are entering the market. The combined operation of all of those tour cars together has taken an operation that was losing millions of dollars in 1983 on passenger service, and turned it into one which has a substantial positive cash flow from passenger service. Mr. LaTourette. I am glad you mentioned that. There is sort of a great myth in this country that you cannot turn a profit with passenger rail service. I just heard you describe what is going on in Alaska. I mean, should we be thinking about separating passenger rail service from sort of the tourism side, as opposed to the getting people to work side of things? Mr. Rader. Yes, I think they are certainly two different operations, two different markets, and must be approached mentally differently. How one approaches that, I am not sure I have the answer. But the recognition is that, as an example, long distance trains are not transit, but are really, I think, the tourism kind that the Alaskan railroad has. Tourism supports the essential transportation service. So the challenge we all know is to make essential transportation pay for itself. Mr. LaTourette. How many people can fit in one of your cars? Mr. Rader. The double-deckers upstairs are usually 90 to 120, and downstairs they are about 20 less. So they can fit 200 passengers comfortably. Mr. LaTourette. Thank you very much. Mr. Collins, can you give me a real world example of where Operation Respond might have assisted in an emergency situation? Mr. Collins. Yes, Mr. Chairman, the first one that comes to mind is an incident in Rochester, New York. It basically ended up on a short line railroad, where the Rochester Fire Department did not have access to that short line railroad's database, but they had access to the CSX database. They were able to go in and get the information on that particular leaking tank car to help them understand what chemicals they were dealing with in this incident in Rochester, New York. Similarly, in the Salt Lake City incident that just happened out in Utah, where they had to evacuate 6,000 people with the confusion over the chemicals, the Midvale Fire Department actually queried on our system. They queried the Union Pacific, the BNSF and the Utah Railway, the three that we have in that jurisdiction, to obtain information on the contents of those cars that were leading to the evacuation. Last year, in 2004, on the freight railroad side, we had over 1,800 queries of the system. Some of this is training and some of this is testing, which is good, because it is familiarizing people with how to use the system. But it also is an indication of the concern by the communities over issues that they need data on. Mr. LaTourette. You mentioned, I think, that all seven Class 1 railroads have voluntarily signed agreements with you. What do you think the reach is of Operation Respond? That would be part one of my question. Then two, do you also cover commuter lines, such as Metro North in New York? Mr. Collins. Yes, that is true for all the Class 1 railroads in Canada and the United States, and we recently signed an agreement with the TFM in Mexico, although we have not launched that service yet, until we get the full Spanish version working. The reach is going to be the reach of the full extent of the Class 1 railroads. The example that I mentioned with the short line situation, it is really the Class 1s that are originating this hazardous materials. They have the data. Even though they may pass it off to a short line that is not in our system, the people that use our software understand that they can query on all railroads, for that matter, to find out what chemical they are dealing with. Now with the passenger train side of things, I am very pleased. Particularly along the Northeast Corridor, we have the Virginia Railway Express. We have MARC. We have Amtrak. We have the Long Island Railroad in New York. We have the New Jersey Transit in New York. We have Metro North in New York. We have a real solid base along the Northeast Corridor of all the commuter operators that have joined our system. We have several out west, as well. We have one in Toronto, Go Transit, that is now in our system. There are several voids there that we would like to fill. We have been working with APTA on programs to try to encompass that particular industry. Mr. LaTourette. Thank you very much. Mr. Hill, I think you mentioned that your Advance Speed Enforcement System is already deployed in the Northeast Corridor. Is that right? Mr. Hill. That is correct. Mr. LaTourette. It is my understanding that most commuter rail systems in the country have, I think they are called wayside signals, which are basically traffic lights at the site. But some of the higher speed corridors like the Northeast Corridor, require cab signals, which are more expensive to install. Does your system require the use of cab signals, or can you use it without? Mr. Hill. It can be used definitely without. It can be installed without any other signaling infrastructure that would be existent today. In the Northeast Corridor, we have deployed it in conjunction with the cab signaling that is there. So you have both continuous and what we call intermittent cab signaling, which is the speed enforcement system. But outside of the Northeast Corridor, generally on Class 1 and other operating railroads, there is very little cab signaling deployed. Mr. LaTourette. Lastly, with the Railroad Track Integrity System that you talked about, I think it would be very important to know if there is a missing track up ahead. Can you tell us just a little bit about how that system works in comparison to what we have in existence today? Mr. Hill. Basically, the Track Integrity System is a technology that was developed at Union Switch many years ago. It was latent. We had not used it. The system actually sleeps most of the time, and really is woken up when a train would come along in Dark Territory. So it is specifically for dark or unsignaled territory. We have deployed this technology on a trial basis, as your colleague, Mr. Graves, indicated, on the Burlington Northern Santa Fe. There is a 50 mile test area there, where this technology is being deployed. Basically, as a train approaches, the technology wakes up. It checks the track ahead, to make sure that there are no broken or missing rails. Then the information is communicated back to the locomotive, to indicate that everything is clear ahead. In that particular demonstration on the Burlington Northern Santa Fe, they have already recognized or detected eight broken rails in the period that the equipment has been installed. This obviously can be a cause for major derailments. Mr. LaTourette. How far ahead can it see? I mean, is it the whole 50 miles that you have wired, or how does it work? Mr. Hill. One particular track circuit of this technology can reach nearly five miles. Over a 50 mile territory we would have like 10, what we call track circuits, or individual sections of track that we check. Mr. LaTourette. Thank you very much. Mr. Menendez? Mr. Menendez. Thank you, in Mr. Hill's response to your question, Mr. Chairman, I thought there was only one broken rail around here. Mr. LaTourette. That is one too many. [Laughter.] Mr. LaTourette. I want to thank all the panels. Mr. Collins, let me ask you, based on the work you have done with the industry to develop a Railroad Incident Location Program, what would it take, if you have any estimates, for a national program? What would it cost and how long would it take to implement? Mr. Collins. Okay, I would like to turn this over to Dr. Boons, since he is running this program for us. Mr. Boone. Thank you very much, Dan. This is a good example of taking advantage of the technology changes that are going on in the 911 arena and with the advent of the cellular telephone. There is a great deal of activity, as I am sure all of you on the Subcommittee know, going on to address locations, take imagery at the county level, and do a great deal of work in determining streets and roads. All of this is being done to improve emergency response as a general matter. One of the things that we believe can be done is to take advantage of the excellent engineering data that the railroad industry already has, as Mr. Hill described, literally locating a lot of the major features that would be needed for a responder to adequately match a highway mile post or a street intersection with where to go to reach a railroad incident. This is particularly important, as the railroads have done an outstanding job in reducing grade crossings, which are the traditional way to determine where rail and highway intersections occur, and also locates where you are on the railroad. That is a long way around to say that a good deal of the work is already underway by the emergency community, and a lot of the data exists within the railroads themselves. We think, with a cooperative program, recognizing the security needs of the data itself, and the fact that it is proprietary data and needs to be brought into a uniform format, that over a period of four to five years, we do not think it would be in excess of $30 million to $50 million to do the entire Nation. Now, having said that, not every piece of every railroad needs to have high resolution imagery or needs to have the same level of detail that you would have, for example, in metropolitan New Jersey or along the shore in Ohio. But you would want to have a practical way of doing this sufficient to meet the needs of the 911 centers and the others who have to literally figure out how do I locate where it is and then how do I get to it. Mr. Menendez. Thank you, I understand it is a response and safety enterprise. Do you see any applications as it relates to security? Mr. Collins. I think in the testimony, I tried to address the security side, and particularly our work with the passenger train-carrying railroads, where the schematical presentations of their equipment are contained within our software. Then if there are incidents on board those particular pieces of equipment, the responding law enforcement agencies could obtain the data, even before they went into the car: the width of the aisles, if there were incidents with windows, understanding what the fabrication of the windows are; all kinds of critical information they might need. The SWAT teams, for example, might need this before they went in and actually put their plan of action in place. Mr. Menendez. Thank you, Mr. Collins. Mr. Rader, based upon your presentation, you should be selling like hotcakes. [Laughter.] Mr. Menendez. It sounds like you are on your way. I am just wondering have you experienced, for example, in your double deck cars, any challenges or any obstacles? Mr. Rader. Certainly, we have. The biggest challenge we face is, if you pick up a railroad specification today for new cars, it will ask for five to ten years of railroad-proven service. I do not have five to ten years of railroad-proven service in a new car. However, that is the wonderful thing about what Congressman Mica has helped put together in Florida. We will have that demonstration over the next two years. Then, yes, I think it will go like hotcakes. In fact, I think one of the real opportunities here, if you look at the economics, the savings on these cars would literally pay the principle and interest over the life of the car, if you were financing it at Treasury rates. Mr. Menendez. I have just one technical question for myself. They are self-propelled, and you talked about how there are different ones on different cars. What happens when, for argument's sake, one goes out? Does it continue to self-propel itself through the independent power? Mr. Rader. Yes, they are independently controlled. That is the joy of it. If one goes down, the computer on the adjoining engine says, I am not hearing from my friend. I am in control, and it takes over. Mr. Menendez. Thank you very much. Mr. LaTourette. I thank you, Mr. Menendez. I want to thank this panel, and I want to thank all of the witnesses on all three panels. I learned a number of things today, and I appreciate your being willing to share with us. I want to thank Mr. Menendez for filling in so ably for Ms. Brown, who hopefully will be back with us next time. As with the other panels, there may be some questions that people may have that we will forward to you, and if you will be so kind as to respond, we would appreciate that. There being no further business to come before the Subcommittee, we stand adjourned. 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