Detecting illicit trafficking in nuclear material is complicated because one of the materials of greatest concern--highly enriched uranium--has a relatively low level of radioactivity and is, therefore, among the most difficult to detect. In contrast, medical and industrial radioactive sources, which could be used to construct a dirty bomb, are highly radioactive and, therefore, easier to detect. Although their levels of radioactivity differ, uranium and radioactive sources are similar in that they generally emit only gamma radiation, which is relatively easily shielded when encased in high-density material, such as lead. For example, we reported in March 2005 that a cargo container containing a radioactive source passed through radiation detection equipment DOE had installed at a foreign seaport without being detected because the source was surrounded by large amounts of scrap metal in the container. Plutonium, another nuclear material of great concern, emits both gamma and neutron radiation. Although most currently fielded radiation detection equipment has the capability to detect both gamma and neutron radiation, shielding neutron radiation can be more difficult than shielding gamma radiation. Consequently, plutonium can usually be detected by a neutron detector regardless of the amount of shielding from high-density material. According to DOE officials, neutron radiation alarms are caused only by man-made materials, such as plutonium, while gamma radiation alarms are caused by a variety of naturally occurring sources, including commercial goods such as bananas, ceramic tiles, and fertilizer, as well as by dangerous nuclear materials, such as uranium and plutonium. Because of the complexities of detecting and identifying nuclear material, customs officers and border guards who are responsible for operating detection equipment must be trained in using handheld radiation detectors to pinpoint the source of an alarm, identify false alarms, and properly respond to cases of nuclear smuggling. The manner in which radiation detection equipment is deployed, operated, and maintained can also limit its effectiveness. Given the difficulties in detecting certain nuclear materials and the inherent limitations of currently deployed radiation detection equipment, it is important that the equipment be installed, operated, and maintained in a way that optimizes authorities' ability to interdict illicit nuclear materials. Although efforts to combat nuclear smuggling through the installation of radiation detection equipment are important, the United States should not and does not rely upon radiation detection equipment at U.S. or foreign borders as its sole means for preventing nuclear materials or a nuclear warhead from reaching the United States. Recognizing the need for a broad approach to the problem, the U.S. government has multiple initiatives that are designed to complement each other that provide a layered defense against nuclear terrorism. For example, DOE works to secure nuclear material and warheads at their sources through programs that improve the physical security at nuclear facilities in the former Soviet Union and in other countries. In addition, DHS has other initiatives to identify containers at foreign seaports that are considered high risk for containing smuggled goods, such as nuclear and other dangerous materials. Supporting all of these programs is intelligence information that can give advanced notice of nuclear material smuggling and is a critical component to prevent dangerous materials from entering the United States. One of the main U.S. efforts providing radiation detection equipment to foreign governments is DOE's Second Line of Defense program, which began installing equipment at key sites in Russia in 1998. According to DOE, through the end of fiscal year 2005, the program had spent about $130 million to complete installations at 83 sites, mostly in Russia. Ultimately, DOE plans to install radiation detection equipment at a total of about 350 sites in 31 countries by 2012 at a total cost of about $570 million. In addition to DOE's efforts, other U.S. agencies also have programs that provide radiation detection equipment and training to foreign governments. Two programs at DOD--the International Counterproliferation Program and Weapons of Mass Destruction Proliferation Prevention Initiative--have provided equipment and related training to eight countries in the former Soviet Union and Eastern Europe at a cost of about $22 million. Similarly, three programs at State--the Nonproliferation and Disarmament Fund, Georgia Border Security and Law Enforcement program, and Export Control and Related Border Security program--have spent about $25 million to provide radiation detection equipment and training to 31 countries. However, these agencies face a number of challenges that could compromise their programs' effectiveness, including (1) corruption of foreign border security officials, (2) technical limitations of equipment at some foreign sites, (3) problems with maintenance of handheld equipment, and (4) the lack of infrastructure and harsh environmental conditions at some border sites. First, according to officials from several recipient countries we visited, corruption is a pervasive problem within the ranks of border security organizations. DOE, DOD, and State officials told us they are concerned that corrupt foreign border security personnel could compromise the effectiveness of U.S.-funded radiation detection equipment by either turning off equipment or ignoring alarms. To mitigate this threat, DOE and DOD plan to deploy communications links between individual border sites and national command centers so that alarm data can be simultaneously evaluated by multiple officials, thus establishing redundant layers of accountability for alarm response. In addition, DOD plans to implement a program in Uzbekistan to combat some of the underlying issues that can lead to corruption through periodic screening of border security personnel. Second, some radiation portal monitors that State and other U.S. agencies previously installed have technical limitations: they can detect only gamma radiation, making them less effective at detecting some nuclear material than equipment with both gamma and neutron radiation detection capabilities. Through an interagency agreement, DOE assumed responsibility for ensuring the long-term sustainability and continued operation of radiation portal monitors and X-ray vans equipped with radiation detectors that State and other U.S. agencies provided to 23 countries. Through this agreement, DOE provides spare parts, preventative maintenance, and repairs for the equipment through regularly scheduled maintenance visits. Since 2002, DOE has maintained this equipment but has not upgraded any of it, with the exception of at one site in Azerbaijan. According to DOE officials, new implementing agreements with the appropriate ministries or agencies within the governments of each of the countries where the old equipment is located are needed before DOE can install more sophisticated equipment. Third, since 2002, DOE has been responsible for maintaining certain radiation detection equipment previously deployed by State and other agencies in 23 countries. However, DOE is not responsible for maintaining handheld radiation detection equipment provided by these agencies. As a result, many pieces of handheld equipment, which are vital for border officials to conduct secondary inspections of vehicles or pedestrians, may not function properly. For example, in Georgia, we observed border guards performing secondary inspections with a handheld radiation detector that had not been calibrated (adjusted to conform with measurement standards) since 1997. According to the detector's manufacturer, yearly recalibration is necessary to ensure that the detector functions properly. Finally, many border sites are located in remote areas that often do not have access to reliable supplies of electricity, fiber optic lines, and other infrastructure essential to operate radiation detection equipment and associated communication systems. Additionally, environmental conditions at some sites, such as extreme heat, can affect the performance of equipment. To mitigate these concerns, DOE, DOD, and State have provided generators and other equipment at remote border sites to ensure stable supplies of electricity and, when appropriate, heat shields or other protection to ensure the effectiveness of radiation detection equipment. We also reported that State's ability to carry out its role as lead interagency coordinator of U.S. radiation detection equipment assistance has been limited by deficiencies in its strategic plan for interagency coordination and by its lack of a comprehensive list of all U.S. radiation detection equipment assistance. In response to a recommendation we made in 2002, State led the development of a governmentwide plan to coordinate U.S. radiation detection equipment assistance overseas. This plan broadly defines a set of interagency goals and outlines the roles and responsibilities of participating agencies. However, the plan lacks key components, including overall program cost estimates, projected time frames for program completion, and specific performance measures. Without these elements in the plan, State will be limited in its ability to effectively measure U.S. programs' progress toward achieving the interagency goals. Additionally, in its role as lead interagency coordinator, State has not maintained accurate information on the operational status and location of all radiation detection equipment provided by U.S. programs. While DOE, DOD, and State each maintain lists of radiation detection equipment provided by their programs, they do not regularly share such information, and no comprehensive list of all equipment provided by U.S. programs exists. For example, according to information we received from program managers at DOE, DOD, and State, more than 7,000 pieces of handheld radiation detection equipment had been provided to 36 foreign countries through the end of fiscal year 2005. Because much of this equipment was provided to the same countries by multiple agencies and programs, it is difficult to determine the degree to which duplication of effort has occurred. Without a coordinated master list of all U.S.-funded equipment, program managers at DOE, DOD, and State cannot accurately assess if equipment is operational and being used as intended, determine the equipment needs of countries where they plan to provide assistance, or detect whether an agency has unknowingly supplied duplicative equipment. Through December 2005, DHS had installed about 670 radiation portal monitors nationwide-- about 22 percent of the portal monitors DHS plans to deploy--at international mail and express courier facilities, land border crossings, and seaports in the United States. DHS has completed portal monitor deployments at international mail and express courier facilities and the first phase of northern border sites--57 and 217 portal monitors, respectively. In addition, by December 2005, DHS had deployed 143 of 495 portal monitors at seaports and 244 of 360 at southern border sites. As of February 2006, CBP estimated that, with these deployments, it has the ability to screen about 62 percent of all containerized shipments entering the United States (but only 32 percent of all containerized seaborne shipments) and roughly 77 percent of all private vehicles. DHS plans to deploy 3,034 portal monitors by September 2009 at a cost of $1.3 billion. However, the final costs and deployment schedule are highly uncertain because of delays in releasing appropriated funds to contractors, difficulties in negotiating with seaport operators, and uncertainties in the type and cost of radiation detection equipment DHS plans to deploy. Further, to meet this goal, DHS would have to deploy about 52 portal monitors a month for the next 4 years--a rate that far exceeds the 2005 rate of about 22 per month. In particular, several factors have contributed to the delay in the deployment schedule. First, DHS provides the Congress with information on portal monitor acquisitions and deployments before releasing any funds. However, DHS's cumbersome review process has consistently caused delays in providing such information to the Congress. For example, according to the House Appropriations Committee report on DHS's fiscal year 2005 budget, CBP should provide the Congress with an acquisition and deployment plan for the portal monitor program prior to funding its contractors. This plan took many months to finalize, mostly because it required multiple approvals within DHS and the Office of Management and Budget prior to being submitted to the Congress. The lengthy review process delayed the release of funds and, in some cases, disrupted and delayed deployment. Second, difficult negotiations with seaport operators about placement of portal monitors and screening of railcars have delayed deployments at U.S. seaports. Many seaport operators are concerned that radiation detection equipment may inhibit the flow of commerce through their ports. In addition, seaports are much larger than land border crossings, consist of multiple terminals, and may have multiple exits, which may require a greater number of portal monitors. Further, devising an effective way to conduct secondary inspections of rail traffic as it departs seaports without disrupting commerce has delayed deployments. This problem may worsen because the Department of Transportation has forecast that the use of rail transit out of seaports will probably increase in the near future. Finally, DHS's $1.3 billion estimate for the project is highly uncertain, in part, because of uncertainties in the type and cost of radiation detection equipment that DHS plans to deploy. The estimate is based on DHS's plans for widespread deployment of advanced technology portal monitors, which are currently being developed. However, the prototypes of this equipment have not yet been shown to be more effective than the portal monitors now in use, and DHS officials say they will not purchase the advanced portal monitors unless they are proven to be clearly superior. Moreover, when advanced technology portal monitors become commercially available, experts estimate that they will cost between about $330,000 and $460,000 each, far more than the currently used portal monitors whose costs range from about $49,000 to $60,000. Even if future test results indicate better detection capabilities, without a detailed comparison of the two technologies' capabilities it would not be clear that the dramatically higher cost for this new equipment would be worth the investment. We also identified potential issues with the procedures CBP inspectors use to perform secondary inspections that, if addressed, could strengthen the nation's defenses against nuclear smuggling. For example, CBP's procedures require only that officers locate, isolate, and identify radiological material. Typically, officers perform an external examination by scanning the sides of cargo containers with handheld radiation detection equipment during secondary inspections. CBP's guidance does not specifically require officers to open containers and inspect their interiors, even when their external examination cannot unambiguously resolve the alarm. However, under some circumstances, opening containers can improve security by increasing the chances that the source of radioactivity that originally set off the alarm will be correctly located and identified. The second potential issue with CBP's procedures involves NRC documentation. Individuals and organizations shipping radiological materials to the United States must generally acquire a NRC license, but according to NRC officials, the license does not have to accompany the shipment. Although inspectors examine such licenses when these shipments arrive at U.S. ports of entry, CBP officers are not required to verify that shippers of radiological material actually obtained required licenses and to authenticate licenses that accompany shipments. We found that CBP inspectors lack access to NRC license data that could be used to authenticate a license at the border. This concludes my prepared statement. I would be happy to respond to any questions that you or other Members of the Subcommittee may have. For further information about this testimony, please contact me at (202) 512-3841 or at aloisee@gao.gov. Contact points for our Offices of Congressional Relations and Public Affairs may be found on the last page of this statement. R. Stockton Butler, Nancy Crothers, Jim Shafer, and Eugene Wisnoski made key contributions to this statement. Combating Nuclear Smuggling: DHS Has Made Progress in Deploying Radiation Detection Equipment at U.S. Ports of Entry, but Concerns Remain. GAO-06-389. Washington, D.C.: March 22, 2006. Combating Nuclear Smuggling: Corruption, Maintenance, and Coordination Problems Challenge U.S. Efforts to Provide Radiation Detection Equipment to Other Countries. GAO-06-311. Washington, D.C.: March 14, 2006. Combating Nuclear Smuggling: Efforts to Deploy Radiation Detection Equipment in the United States and in Other Countries. GAO-05-840T. Washington, D.C.: June 21, 2005. Preventing Nuclear Smuggling: DOE Has Made Limited Progress in Installing Radiation Detection Equipment at Highest Priority Foreign Seaports. GAO-05-375. Washington, D.C.: March 31, 2005. Container Security: Current Efforts to Detect Nuclear Materials, New Initiatives, and Challenges. GAO-03-297T. Washington, D.C.: November 18, 2002. Customs Service: Acquisition and Deployment of Radiation Detection Equipment. GAO-03-235T. Washington, D.C.: October 17, 2002. Nuclear Nonproliferation: U.S. Efforts to Combat Nuclear Smuggling. GAO-02-989T Washington, D.C.: July 30, 2002. Nuclear Nonproliferation: U.S. Efforts to Help Other Countries Combat Nuclear Smuggling Need Strengthened Coordination and Planning. GAO-02-426. Washington, D.C.: May 16, 2002. This is a work of the U.S. government and is not subject to copyright protection in the United States. It may be reproduced and distributed in its entirety without further permission from GAO. However, because this work may contain copyrighted images or other material, permission from the copyright holder may be necessary if you wish to reproduce this material separately.

Summary:
GAO is releasing two reports today on U.S. efforts to combat nuclear smuggling in foreign countries and in the United States. Together with the March 2005 report on the Department of Energy's Megaports Initiative, these reports represent GAO's analysis of the U.S. effort to deploy radiation detection equipment worldwide. In my testimony, I will discuss (1) the progress made and challenges faced by the Departments of Energy (DOE), Defense (DOD), and State in providing radiation detection equipment to foreign countries and (2) the Department of Homeland Security's (DHS) efforts to install radiation detection equipment at U.S. ports of entry and challenges it faces. Regarding the deployment of radiation detection equipment in foreign countries, DOE, DOD, and State have spent about $178 million since fiscal year 1994 to provide equipment and related training to 36 countries. For example, through the end of fiscal year 2005, DOE's Second Line of Defense program had completed installation of equipment at 83 sites, mostly in Russia. However, these agencies face a number of challenges that could compromise their efforts, including corruption of foreign border security officials, technical limitations and inadequate maintenance of some equipment, and the lack of supporting infrastructure at some border sites. To address these challenges, U.S. agencies plan to take a number of steps, including combating corruption by installing multitiered communications systems that establish redundant layers of accountability for alarm response. State coordinates U.S. programs to limit overlap and duplication of effort. However, State's ability to carry out this role has been limited by deficiencies in its interagency strategic plan and its lack of a comprehensive list of all U.S. radiation detection equipment provided to other countries. Domestically, DHS had installed about 670 radiation portal monitors through December 2005 and provided complementary handheld radiation detection equipment at U.S. ports of entry at a cost of about $286 million. DHS plans to install a total of 3,034 radiation portal monitors by the end of fiscal year 2009 at a total cost of $1.3 billion. However, the final costs and deployment schedule are highly uncertain because of delays in releasing appropriated funds to contractors, difficulties in negotiating with seaport operators, and uncertainties in the type and cost of radiation detection equipment DHS plans to deploy. Overall, GAO found that U.S. Customs and Border Protection (CBP) officers have made progress in using radiation detection equipment correctly and adhering to inspection guidelines, but CBP's secondary inspection procedures could be improved. For example, GAO recommended that DHS require its officers to open containers and inspect them for nuclear and radioactive materials when they cannot make a determination from an external inspection and that DHS work with the Nuclear Regulatory Commission (NRC) to institute procedures by which inspectors can validate NRC licenses at U.S. ports of entry.