Wilson bridge project

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Evaluate and analyze each step Based on the wilson bridge project from the sources and links and give me a summery for each step. For the steps that you won't find in sources, give me what you expected to see in this step in brief based on the wilson bridge project. include all information in this attachment and can you please add summary and objectives of the cases and also can you make presentation of the case summary of the Wilson and issues and lessen learned and environmental problems came with bridge and solutions

these are the SOURCES/ Do it for each table of the three

http://journals.sagepub.com/doi/abs/10.1177/073945...

Woodrow Wilson Bridge – Construction, Capital Beltway dot com. http://capital-beltway.com/Woodrow-Wilson-Bridge-C...

Woodrow Wilson Bridge, Potomac River, Maryland, Virginia, Road Traffic Technology

https://www.roadtraffic-technology.com/projects/wo... (Note that there are multiple sections per the Project Overview Menu on the Left Side of the Page)

Woodrow Wilson Bridge in Maryland and Virginia, Transportation Research Board of the National Academies. https://trid.trb.org/view.aspx?id=968110

Woodrow Wilson Bridge Project: A Mega Project Success Story, National Science Foundation

https://www.largefacilitiesworkshop.com/wp-content...

and use any other source that is suitable for the matter.

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Case Study WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA FHWA Leads the Planning Process for Bridge Redesign Accelerating solutions for highway safety, renewal, reliability, and capacity © 2010 National Academy of Sciences. All rights reserved. This case study was developed through SHRP 2 Capacity Project C01: A Framework for Collaborative ­Decision Making on Additions to Highway Capacity. It is integrated into Transportation for Communities: Advancing Projects through Partnerships, a website that is a product of research conducted under Capacity Project C01 (www.transportationforcommunities.com). The Transportation for Communities website provides a systematic approach for reaching collaborative decisions about adding highway capacity that enhance the environment, the economy, and the community and improve transportation. It identifies key decision points in four phases of transportation decision making: long-range transportation planning, corridor planning, programming, and environmental review and permitting. The case studies for Capacity Project C01 were prepared by ICF International, Research Triangle Park, North ­Carolina; URS Corporation, Morrisville, North Carolina; and Marie Venner Consulting, Lakewood, Colorado. This work was sponsored by the Federal Highway Administration in cooperation with the American Association of State Highway and Transportation Officials. It was conducted in the second Strategic Highway Research Program (SHRP 2), which is administered by the Transportation Research Board of the National Academies. Copyright Information Authors herein are responsible for the authenticity of their materials and for obtaining written permissions from ­publishers or persons who own the copyright to any previously published or copyrighted material used herein. The second Strategic Highway Research Program grants permission to reproduce material in this publication for classroom and not-for-profit purposes. Permission is given with the understanding that none of the material will be used to imply TRB, AASHTO, or FHWA endorsement of a particular product, method, or practice. It is expected that those reproducing material in this document for educational and not-for-profit purposes will give appropriate acknowledgment of the source of any reprinted or reproduced material. For other uses of the material, request permission from SHRP 2. Notice Capacity Project C01 was a part of the second Strategic Highway Research Program, conducted by the Transportation Research Board with the approval of the Governing Board of the National Research Council. The members of the technical committee selected to monitor this project and to review this case study were chosen for their special competencies and with regard for appropriate balance. The case study was reviewed by the technical committee and accepted for publication according to procedures established and overseen by the Transportation Research Board and approved by the Governing Board of the National Research Council. The opinions and conclusions expressed or implied in this case study are those of the researchers who performed the research and are not necessarily those of the Transportation Research Board, the National Research Council, or the program sponsors. The Transportation Research Board of the National Academies, the National Research Council, and the sponsors of the second Strategic Highway Research Program do not endorse products or manufacturers. Trade or manufacturers’ names appear herein solely because they are considered essential to the object of the case study. Case Study WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA FHWA Leads the Planning Process for Bridge Redesign Executive Summary 1 Background 3 Major Project Issues 6 Institutional Framework for Decision Making 7 Transportation Decision-Making Process 9 Key Decisions 11 Lessons Learned 11 Summary 15 References 15 Executive Summary Since 1961, the Woodrow Wilson Bridge has carried traffic over the Potomac River between ­Maryland and Virginia. It is part of the I-95 system, the main north-south route on the East Coast. Initially designed to carry 75,000 vehicles per day, the bridge experienced traffic volumes of 195,000 vehicles per day by 2004. Consequently, heavy traffic congestion and major delays became daily occurrences on the bridge, leading to regional demands for a new and larger bridge. Excessive traffic loading also took a toll on the bridge, accelerating its deterioration and raising valid safety concerns. Because the federal government owned this aging bridge, the Federal Highway Administration (FHWA) petitioned Congress for funds to replace it, with both Maryland and Virginia being major players in this effort as well. FHWA led the planning for the bridge replacement, starting in 1989, and completed a final environmental impact statement (EIS) in 1997. The adequacy of that statement was quickly challenged in court, but ongoing project redesigns also cast doubt on the sufficiency of the EIS to support pending federal permitting decisions. When the project was enjoined by the District Court for the District of Columbia, FHWA had to decide whether to appeal, comply with the court’s order, or take a combination approach. This decision was complicated by the fact that the existing final EIS had already had its draft EIS supplemented twice. Nevertheless, FHWA decided to prepare new supplemental draft and final EISs while also appealing the district court’s decision. Although deciding to move forward with additional impact analyses, FHWA did not change its position on the basic issue that was being litigated: selection of a 12-lane bridge as the preferred alternative in the first EIS and dismissal of a 10-lane structure for detailed analysis on the basis that 10 lanes could not meet long-term traffic capacity needs and, therefore, could not meet the purpose of and need for the project. A federal district court agreed with opponents who requested that a 10-lane bridge be analyzed in the EIS as a reasonable alternative. FHWA appealed this decision. The court of appeals, in reversing the district court, agreed with FHWA’s position that only the alternatives that meet the project’s purpose and need must be analyzed in the EIS, and accepted as reasonable FHWA’s position that a 10-lane bridge did not meet the purpose and need. Not only did this court decision resolve a fundamental question on the design of the bridge, but it also set a significant national precedent in framing the scope of alternatives that need to be analyzed in an EIS. In addition to the challenge of addressing this litigation, FHWA had to address difficult inter­ agency and community coordination issues given the bridge’s location within two states and the District of Columbia. To address these issues, FHWA • Assembled an experienced team of managers and consultants to address complex environmental impact questions on dredging, aquatic resources, and cultural resources; • Reopened direct and effective communications with numerous federal and state resource ­agencies; and • Established collaborative decision-making teams that included local communities and citizens. Through this collaborative approach, FHWA reached consensus on a high-quality design for the bridge. Because FHWA identified potential adverse environmental impacts in the supplemental EIS process, the agency worked closely with the resource agencies to develop mitigation measures. In  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA consultation with the cooperating agencies on the EIS, FHWA took a broad perspective in considering potential mitigation measures; that is, discussions and decisions were not limited to minimum protections but included efforts to improve affected resources in a more regional, ecosystem-based approach. This perspective resulted in a comprehensive package of mitigation measures. Excellent examples include the establishment of fish reefs in the Chesapeake Bay with thousands of tons of the old bridge and the installation of fish passageways on Rock Creek and Anacostia River tributaries. To assist in the implementation of the mitigation and to ease potential concerns, FHWA established an independent environmental monitor to observe and report on the completion status of all agreed-on mitigation. FHWA complemented this monitoring approach with development of a comprehensive database, tracking, and reporting system and made that system accessible to the regulatory agencies involved. The independent monitor and tracking system were successful from FHWA’s and the resource agencies’ perspectives and have been replicated on other large highway projects. FHWA met its goal of completing concurrent National Environmental Policy Act (NEPA) and Section 404 permitting processes and used the draft and final supplemental EISs to serve as the initial and final permit applications, respectively. The U.S. Army Corps of Engineers (USACE) was a cooperating agency on the supplements, held joint public hearings with FHWA, and issued its Section 404 permit approximately 2 weeks after FHWA completed its final supplemental EIS and signed a Record of Decision (ROD).  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA Background than the original and will allow most boats to pass underneath. FHWA predicted that once the project is complete, the number of bridge openings will be reduced to about 65 a year, or less than two-thirds of the current number of yearly openings. The project also includes the redesign and reconstruction of the Capital Beltway as it approaches the new bridge from both the Maryland and Virginia sides. Four new interchanges will allow travelers to more easily enter and leave the highway. The current estimate of the entire cost of this ongoing project is $2.5 billion, including a federal share of $1.6 billion. Project Overview The Woodrow Wilson Bridge project area is a 7.5-mile section that runs from west of Telegraph Road in Virginia to east of Indian Head Highway in Maryland along the I-95/I-495 Capital Beltway (Figure 1). The bridge component includes two new, side-by-side drawbridges with 12 lanes and 70 feet of vertical navigational clearance at the draw span. Ten of the 12 lanes are conventional highway lanes, and the two additional lanes are for alternative transportation options that may become feasible during the 75-year life expectancy of the bridge. These options may include trains, buses, high-occupancy vehicles, express toll lane service, high-occupancy toll lanes, or another special purpose (1). The lane configuration separates local and longdistance travelers. Full shoulders are provided across the bridge. The new bridge also accommodates a pedestrian/bicycle path. The design of this box-girder bridge features 32 fixed spans supported on V-shaped piers. These piers offer the look of arches but provide a more open appearance with smaller foundations than a true arched design. The new bridge is 20 feet higher Project Drivers The Woodrow Wilson Memorial Bridge opened in 1961 as a six-lane structure designed to carry a volume of 75,000 vehicles per day (Figure 2). Con­ structed and owned by the federal government, the bridge carries the Capital Beltway over the Potomac River, connecting Alexandria, Virginia, to Prince George’s County, Maryland. The Capital Beltway (I-495) is a part of I-95, the main north-south interstate route on the East Coast of the United States. The bridge is also a drawbridge that opened approximately 200 times per year. Over the decades, traffic increased on the bridge as a result of both through traffic and regional commuters. In September 2004, the daily traffic volume was 195,000 vehicles, far surpassing the design capacity. This heavy traffic resulted in severe congestion, aggravated by an eight-lane beltway feeding into a six-lane bridge. The congestion contributed to a particularly high accident rate and expedited the bridge’s deterioration. Regional businesses and the commuting public frequently voiced their complaints to the political establishment inside the Capital Beltway, emphasizing frequent congestion on the bridge and resulting major delays as the most noticeable bridge problems. Because the bridge was federally owned, FHWA testified Figure 1. Project area. Courtesy of Woodrow Wilson Bridge Project.  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA Figure 2. Woodrow Wilson Bridge, ca. 1962. Courtesy of Woodrow Wilson Bridge Project. • Protect and improve the character and nature of the surrounding environment. before Congress on several occasions in support of funding requests for planning and construction. The existing and growing problems of traffic congestion on the bridge, deteriorating structural conditions, safety, the region’s almost daily frustration with this congestion, and congressional oversight were the major drivers for replacing the bridge. In 1989, FHWA, along with agencies in Virginia, Maryland, and the District of Columbia, began examining alternative approaches to solving the bridge’s capacity and structural problems. FHWA also studied the potential effects on the adjacent communities of rebuilding the bridge, including potential impacts to well-known archeological and historic resources located on the Virginia side of the Potomac River. FHWA issued a draft EIS in August 1991. This draft EIS analyzed five alternatives for replacing the bridge, each of which would expand the bridge to 12 lanes. Because this draft EIS met with significant public dissatisfaction, FHWA formed a Project ­Coordination Committee to assist in the identification of additional alternatives. The membership included senior-level officials from FHWA; the Virginia, Maryland, and District of Columbia transportation agencies; USACE; the National Park Service; the Metropolitan Washington Council of Governments; the Maryland-National Capital Park and ­Planning Initial Concept and Planning FHWA maintained the following four goals for the project: • Provide adequate capacity for existing and future travel demand by improving operating conditions and fixing the bottleneck caused by eight Capital Beltway through lanes converging into six lanes across the river; • Facilitate intermodal travel, such as transit or highoccupancy vehicle (HOV) lanes, bicycling, and maritime access up the Potomac River; • Improve safety by reducing the number of accidents and improving access for emergency response vehicles; and  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA Commission; the City of Alexandria, Virginia; Fairfax County, Virginia; Prince George’s County, Maryland; and state-level elected leaders from the affected region. The committee subsequently considered more than 350 alternatives, and on a consensus basis recommended many of these for more thorough screening by the EIS development team. FHWA also facilitated public involvement in the identification of alternatives by establishing panel groups and focus groups. To accommodate consideration of the alternatives, FHWA supplemented its 1991 draft EIS twice, releasing the first supplemental draft EIS in January 1996 and the second in July 1996. Also in the mid-1990s, the Woodrow Wilson Memorial Bridge Authority Act of 1995 granted consent to Virginia, Maryland, and the District of Columbia to establish, by interstate agreement, the Woodrow Wilson Memorial Bridge Authority, and authorized the transfer of ownership of the Woodrow Wilson Memorial Bridge to that authority. Maryland and Virginia eventually negotiated an agreement for joint ownership of the new bridge. FHWA issued its final EIS, which included consideration of eight alternatives, in September 1997. FHWA included one “no build” alternative and seven build alternatives that all envisioned a 12-lane structure. The preferred alternative consisted of two parallel, six-lane drawbridges. In November 1997, FHWA selected this preferred alternative in its ROD. Approximately 2 months later, in January 1998, the City of Alexandria filed a lawsuit alleging that FHWA violated several requirements of NEPA, Section 106 of the National Historic Preservation Act (NHPA), and Section 4(f) of the Department of Transportation Act. Alexandria eventually reached a settlement with FHWA in March 1999 and before the first trial (2), but the lawsuit was continued by three Alexandria-based organizations acting as plaintiffs. In April 1999, the district court ruled in favor of the plaintiffs on all three allegations. Under NEPA, the court concluded that FHWA had not afforded detailed consideration to a 10-lane river crossing as a reasonable alternative and had only given cursory treatment to the potential impacts of the construction phase. The court found FHWA’s implementation of Section 106 to be defective, reasoning that the agency could not adequately take into account the impacts to protected historic properties because it postponed identification of the sites that were to be used for ­construction-related purposes. Because compliance with Section 106 is an initial procedural step in completing the Section 4(f) requirement to minimize harm to historic properties, the court also concluded that FHWA failed to comply with Section 4(f). FHWA appealed the district court’s opinion to the D.C. Circuit Court, which reversed the lower court’s decision in December 1999 (3). Plaintiffs then asked for a hearing before the Supreme Court, which ­denied that request. In overruling the lower court, the D.C. Circuit Court did not agree with the district court’s position that a 10-lane bridge was a reasonable alternative. The district court had found it to be a reasonable alternative based on the smaller bridge’s ability to reduce much of the projected traffic congestion while having less of an adverse environmental impact than a larger bridge. However, the circuit court concluded that for an alternative to be reasonable, it must meet all of the objectives of the federal action. The circuit court further concluded that it was reasonable for FHWA to narrow the project’s objectives to resolving the transportation and safety issues being experienced by the bridge, and a 10-lane bridge was only a partial solution to them. On the less critical issues regarding the adequacy of the analysis of construction impacts, the circuit court found the analysis not to be as tersely presented as the district court had found. Postponing the identification of construction sites was also determined to be permissible for Section 106 and Section 4(f) compliance purposes because the sites were primarily construction staging areas that were ancillary to the project, not normally identified until the design stage of the project, and subject to a Section 106 memorandum of agreement with the appropriate cultural resource protection agencies. While litigation was proceeding, FHWA continued to implement commitments from the 1997 ROD, including a bridge design competition. Four firms, which submitted a total of seven concepts, were declared finalists. A panel chaired by former Maryland Governor Harry Hughes announced the winning concept at a November 18, 1998, press conference.  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA This case study primarily addresses the remaining project development process that occurred after FHWA signed its November 1997 ROD. Constructability reviews during the bridge design concept competition revealed that the construction concepts assumed in the 1997 final EIS would not work with the type and size of structure now being considered. Providing access for the heavy equipment that would be necessary to handle the proposed large steel girders and foundation elements was projected to require a substantial increase in the amount of dredging and sediment removal with associated larger impacts to submerged aquatic vegetation. Other increased adverse impacts were projected for noise, wetland and woodland loss, and endangered species. The need for increased mitigation closely followed from the need to analyze these increased impacts. However, FHWA understood that the relatively confined nature of the project site limited the ability to identify mitigation on site or near the project site. Although a number of years had passed since the beginning of the EIS process and FHWA had addressed new impacts, the agency still faced a basic dispute over the best alternative for crossing the Potomac River. Some parties continued to recommend a tunnel crossing and a 10-lane bridge rather than FHWA’s preferred 12 lanes. This dispute was not only before the federal courts as the FHWA team commenced the supplemental draft EIS, but also, more significantly, the district court ordered FHWA to analyze a 10-lane bridge. The 1997 final EIS addressed a limited range of cultural resource impacts because it looked mainly at the bridge’s footprint. Consequently, identification and treatment of cultural resources was a major remaining issue in the development of a supple­mental draft EIS because support areas for demolition, staging, and other activities would affect a much larger area than previously anticipated. Alexandria, ­Virginia, has a large historic district, with a rich history as a tobacco port in the early 1700s and as a noted center for many founding fathers. The bridge was immediately adjacent to two Alexandria cemeteries: St. Mary’s Cemetery, which is the oldest continuously operating ­Catholic cemetery in Virginia, and ­Freedmen’s ­Cemetery, where African Americans who were freed during the Civil War are buried. In Major Project Issues In 1999, approximately 10 years after starting the planning process for replacing the Woodrow Wilson Bridge, FHWA and sponsoring agencies reevaluated design changes to the preferred alternative identified in the 1997 final EIS. FHWA concluded, on the basis of allegations in the unresolved litigation and a strong recommendation from USACE, that a supplemental draft and final EIS were required to address the changes. FHWA’s decision to prepare the supplement was not without controversy. The location of the project within the National Capital Region and the need for a congressional funding authorization had placed the project under a unique microscope. The additional time needed to prepare the supplement could delay the start of construction and add to its costs. Because FHWA had already prepared two draft supplements on the first EIS, the agency had to assure its detractors that the new supplemental draft and final EISs would be completed expeditiously and without any further setbacks. As the sponsoring agencies and resource agencies reassembled in early 1999 to begin another effort at completing a satisfactory EIS process for the bridge, FHWA knew that several major agencies were unhappy with the interagency consultations that had occurred to date, some potentially major construction impacts were unresolved, public concerns remained, and litigation over alternatives was ongoing. FHWA recognized that in order to meet its commitment to Congress that construction would begin in fall 2000, it had to quickly gain the full cooperation of a variety of affected agencies and organizations. After completion of the ROD for the first final EIS, FHWA determined that the bridge could not be built as envisioned in that EIS, a major complication to achieve agency and organization cooperation.  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA addition, the banks of the Potomac in Maryland and Virginia contain numerous archaeological sites, historic homes, and monuments. Jones Point Park, located underneath the bridge on the Virginia side, contains numerous cultural resources, including a historic lighthouse, remnants of a World War I shipbuilding facility, and the southern cornerstone for the District of ­Columbia (although the land was ceded back to Virginia in 1848). ­ irginia Institute of Marine Science, the ­Maryland V Department of the Environment, the Maryland Department of Natural Resources, and the District of Columbia Health Department. ICG continued to meet throughout the construction process and reviewed the status of promised mitigation measures. The ICG meeting minutes are maintained and available at the two project offices in Virginia and Maryland. Of the four sponsoring agencies, the District of Columbia was the least affected by the project. Approximately 700 feet of its land was affected, and it had responsibility for operating the draw span of the old bridge. The District’s primary jurisdictional interest was to relinquish this operational responsibility for the new bridge, which it did. The District consequently limited its role to commenting on draft documents, and it approved both the draft and final supplements. Institutional Framework for Decision Making Involved Agencies The replacement of the bridge involved a broad mix of authorities. Unlike more traditional intrastate highway projects where the affected state’s department of transportation has taken the lead role in completing the NEPA document, FHWA led the preparation of the supplement because it owned the old bridge and the bridge improvements; the interchanges were state owned but 100% federally funded. Other federal agencies with major decision-making roles included the U.S. Fish and Wildlife ­Service (FWS), the National Oceanic and Atmospheric Administration’s National Marine Fisheries Service, the National Park Service, the U.S. Coast Guard, the U.S. Environmental Protection Agency (EPA), and the Advisory Council on Historic Preservation. In addition to FHWA, the sponsoring agencies for the supplement included the Virginia Department of Transportation (VDOT), the Maryland State Highway Administration (MSHA), and the District of Columbia Department of Public Works (DCDPW). USACE joined FHWA as a cooperating agency so that it could use the supplements as its NEPA compliance documents for its pending Clean Water Act permitting decisions. All the above agencies plus others made up a 29-member Interagency Coordination Group (ICG). The local members included the City of Alexandria and Fairfax County in Virginia and Prince George’s County, Maryland. State-level members included the Virginia Department of Environmental ­Quality, the Community Involvement FHWA went well beyond traditional methods to inform and involve the public in the development of the supplemental EISs. To provide the public with easy access to project documents, it opened ­project offices in Alexandria, Virginia, and Oxon Hill, ­Maryland. Outreach methods and techniques included fact sheets, resource papers, newsletters, open houses at project offices, a speakers’ bureau, ­quarterly breakfast briefings for elected officials, a web page, and public visiting hours at its consultants’ project site offices. For a project with such a small project study area, FHWA also went beyond normal practice when it held two public hearings on the supplemental draft EIS. One hearing was held in ­Alexandria at the request of Alexandria residents, and the other was held in Prince George’s County, Maryland, because the impact issues of concern varied substantially between these geographic locations. In addition to having a variety of methods to inform and involve the affected region, FHWA and its cooperating agencies used these tools extensively. Community briefings and workshops were frequently and regularly scheduled, and requests for speakers or special briefings were quickly granted. FHWA recognized that in the project development process for  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA the bridge an important goal was to keep the public informed and involved. It achieved this goal through comprehensive efforts and the use of public ­relations experts who crafted clear and consistent project information. ­ orking Group be established before the initiation of W the detailed design phase, for the purpose of providing comments. The members of the working group were the Advisory Council on Historic Preservation, the National Park Service, the Virginia Department of Historic Resources, the ­Maryland Historical Trust, the District Historic Preservation Office, the Maryland-National Capital Park and Planning Commission, the City of ­Alexandria, and Prince George’s County. The working group met for 2 days and reviewed the design concepts submitted by the four firms that were the finalists in the design competition. They were able to reach a consensus on a high­quality design that included long spans and an arch design similar to other Potomac River bridges in the capital area (Figure 3). A second major collaborative component was inserted into the project in late 1998 when FHWA formed stakeholder participation panels (4). FHWA proposed and organized four panels: Telegraph Road Interchange Panel, Jones Point Park Panel, Route 1/ Washington Street/Urban Deck Panel, and Maryland Interchanges Panel. FHWA defined stakeholders as those individuals and groups directly affected by the Collaborative Decision-Making Elements An important collaborative component occurred with respect to the design of the bridge. As part of the first EIS, FHWA signed a memorandum of agreement (MOA) in October 1997 that stipulated various steps required of FHWA to avoid impacts to cultural resources. Because the design and size of the bridge could both physically and visually affect nearby significant historic properties, especially those at the foot of the bridge in Alexandria, a major stipulation of the MOA addressed the development of the bridge’s final design and established several design goals for the bridge: • The bridge shall be a structure designed with high aesthetic values, deriving its form in relation to the monumental core of Washington, D.C., and shall be an asset to the nation’s capital and the surrounding region; • The concepts for the bridge shall be based on arches in the tradition of notable Potomac bridges (e.g., Key Bridge and Memorial Bridge); • The bridge design shall employ span lengths that minimize the number of piers occurring in the viewshed of the Alexandria ­Historic District; • The bridge design should preserve or enhance views along the ­Potomac River toward the ­National Capital and the ­Alexandria Historic District; and • The project shall be designed to avoid all temporary and permanent impacts to the Freedmen’s Cemetery. To ensure that these design goals were met, the MOA further stipulated that a Design Review Figure 3. Rendering of the new bridge. Courtesy of Woodrow Wilson Bridge Project.  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA project, including bridge users. The stated purpose of the panels was to identify valued community characteristics, define community goals and guidelines for the final design, and work with designers and planners to codevelop concepts and proposed designs that enhance and preserve the natural environment, the built environment, and the social environment of the community. It was made clear to prospective panel members, however, that alternatives would not be revisited and that the preferred alternative was the focus of the panel’s work. FHWA sought a balanced and representative group of panel members and used a nomination process with selections made by elected officials and other community leaders. Panel members came from local chambers of commerce, environmental interest groups, local governments, the American Automobile Association, and bicycle route proponents. All panel meetings were open to the public and recorded with meeting minutes. Panel members met approximately once a month over the course of a year and worked with design consultants to reach a consensus on designs. Proposed designs that were 20% to 30% complete were made available for review at public information meetings in Virginia and Maryland. From the public comments, the design consultants made additional refinements in consultation with panel members. Next, designs that were considered to be 60% to 70% complete were presented at a Virginia Design Public Hearing. Following additional refinements from the results of this public hearing, the Virginia panels’ recommendations were provided to the Virginia Technical Coordination Team (TCT) for its decisions. The Virginia TCT consisted of the VDOT project manager and bridge engineer, FHWA ­project manager, and FHWA Virginia Division, Fairfax County, and City of Alexandria engineering staff. The TCT approved 92% of these recommendations. For example, the TCT approved the Telegraph Road Panel’s recommendations for avoiding impacts to commercial properties, as well as the elimination of interchange traffic lights north and south of the Beltway. The remaining recommendations were not within the TCT’s approval authority, but the TCT forwarded them to the appropriate authorities. The TCT forwarded 19 recommendations to the VDOT chief engineer. The final supplemental EIS states that these recommendations, based on the approval of the VDOT chief engineer, were incorporated into the design of the preferred alternative (5). Exam­ ples of these recommendations for the ­Telegraph Road interchange included geometric changes in the quadrants of the interchange ramps, the addition of pedestrian access across Telegraph Road, and protected turn lanes at Huntington Avenue. For the US-1 interchange, the final EIS incorporated intersection modifications, pedestrian/bicycle connections, and Washington Street deck refinements. Virginia stakeholder panel members concluded their work in June 1999, and FHWA asked participants to complete a survey on their experience. Survey results showed that 60% felt that they had influenced the design, about 30% were unsure, and the remainder felt that they had not influenced the project. In evaluating the consensus-building goals of the process, 47% said that as a result of the process, they were willing to compromise on some points of the project design, whereas 42% said that their views on project design had not changed as a result of the panel process. The Maryland Interchanges Panel began meeting in April 1999 and provided its recommendations to the MSHA project manager. The panel proposed lengthening several bridges over Oxon Hill Road to accommodate pedestrian/bicyclists, eliminating some of the proposed traffic signals, retaining a direct exit from the Outer Loop of the Beltway to Oxon Hill Road, and adding a grade separation at an existing at-grade crossing. These were approved by MSHA and included in the design. Figure 4 illustrates some of the lane designs. Transportation Decision-Making Process A variety of teams led by FHWA composed the ­decision-making structure (Figure 5) for completion of the design changes reflected in the 2000 supplemental NEPA documents.  WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA Figure 4. Rendering of designed lane distribution. Courtesy of Woodrow Wilson Bridge Project. • An Environmental Management Group (EMG), which was charged with the completion of the supplemental NEPA documents, securing necessary permits, and monitoring mitigation commitments. The EMG was composed of environmental managers from the sponsoring agencies, including staff of the FHWA Maryland and Virginia Divisions and the Eastern Resource Center, VDOT, MSHA, DCDPW, and USACE. The EMG began meeting regularly in May 1998, and its meeting minutes are maintained and available at the Woodrow Wilson Bridge Project Offices in Virginia and Maryland. • The General Engineering Consultant Team (GEC), which supported the EMG. This was and remains an existing consortium of consulting firms that prepared design reviews, impact analyses, mitigation proposals, permit applications, and now supports project monitoring. • The Virginia TCT consisting of the VDOT ­project manager and bridge engineer, FHWA project manager, and FHWA Virginia Division, Fairfax County, and City of Alexandria engineering staff. The TCT met 12 times from September 1998 through August 1999. It was charged with providing direction on the design elements and project features associated with the refinements for the Virginia portion of the project as well as with considering ­recommendations from the three Virginia stakeholder participation panels. • The ICG, which was composed of more than 20 natural resource agencies, with many ­having The teams included the following: • A Project Leadership Team consisting of high-level officials from FHWA, MSHA, VDOT, and DCDPW. This team’s role was to provide strategic decision making, policy direction, and performance review. • A Project Management Team composed of man­ agers from FHWA, VDOT, MSHA, and DCDPW. This team worked on site and provided integrated technical guidance as well as operational management. Project Leadership Sponsoring Agencies’ Project Management Team Virginia Technical Coordination Team Environmental Management Group Interagency Coordination Group Design Review Working Group Four Stakeholder Participation Panels Figure 5. Internal and external coordination and issue ­resolution. 10 WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA a­ ssociated permitting responsibilities. The ICG worked directly with the GEC and EMG on the identification and acceptance of mitigation measures. • The Design Review Working Group, as discussed above, conducted the bridge design competition and reviewed other design documents and treatment plans for potential impacts to historic and cultural resources. previously considered alternatives did not meet the project’s purpose and need statement. FHWA also decided that the draft supplemental EIS would carry forward the preferred alternative from the 1997 final EIS and address the environmental impacts of design refinements and construction impacts. On the basis of this project management decision, the EMG focused on building consensus around redesigns, completing high-quality impact analyses of redesign and construction impacts, and completing a comprehensive package of mitigation measures. Decisions on dredging and dredged ­material disposal were coordinated between USACE‘s ­Baltimore and Norfolk Districts, with input from VDOT, FHWA, EPA, MSHA, the Maryland Port Administration, Maryland Environmental Services, and the Maryland Departments of the Environment and Transportation. Maryland agencies were particularly involved in the dredging impacts of the project because the state of Maryland owned the majority of the Potomac River that fell within the project area. Lessons Learned Success Factor: Open and Collaborative Approach Reinvigorated Participants and Problem Resolution By the time FHWA informed the affected resource agencies that a draft and final supplemental EIS would be required, these agencies had already been working on the Woodrow Wilson Bridge project for well over 10 years. The FHWA environmental manager ­assigned to prepare the supplements recognized and quickly addressed frustrations with the process and some distrust with the manner in which it had moved forward. FHWA assured the resource agencies that their concerns would be heard and all reasonable efforts would be made to accommodate their mitigation recommendations. Whenever a recommendation could not be accommodated, FHWA explained its reasons and was open to any follow-up responses or modifications to the recommendation. This open, direct, and collaborative approach reinvigorated the participants and fostered a team approach to problem resolution. This approach proved to be extremely beneficial when late in the NEPA process, after the publication of the draft supplemental EIS, FHWA and the resource agencies determined that it was necessary to consult on two potential endangered species impacts. One consultation occurred with the National Marine Fisheries Service (NMFS) regarding possible impacts to endangered shortnose sturgeon. The other consultation occurred with FWS over possible impacts to the bald eagle, which was listed as an endangered Key Decisions FHWA used its existing reevaluation procedures to decide whether to supplement the 1997 final EIS. Although the outcome may have been clear simply on the basis of the reevaluation of the newly projected and much larger construction impacts, FHWA also factored into its decision the allegations from the ongoing litigation. FHWA recognized that a supplement would provide a head start in addressing these allegations in the event that the agency lost its appeal. Although an affirmative decision would raise budget and scheduling concerns, FHWA decided to turn its efforts into initiating a supplemental draft EIS based on this litigation strategy, coupled with USACE’s strong position that because of the dramatic increase in dredging that was required, USACE could no longer use the 1997 EIS for permit decisions. A secondary but important decision that related to the initiation of the draft supplement was determining the scope of that document. Whether an appropriate range of alternatives had been analyzed was still a matter of public controversy and the subject of the ongoing litigation. FHWA continued to only consider a 12-lane structure on the basis that 11 WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA species at the time. On the basis of a rapidly prepared FHWA biological assessment, NMFS concurred in a no-adverse-effect determination for the sturgeon. After preparing a biological opinion for the bald eagle, FWS concluded this consultation on the basis of acceptable project mitigation. The working relationships and professional trust that had been established between the agency representatives led to the resolution of sensitive endangered species impacts that might normally have derailed the project development schedule and created a media controversy. ensure that its complete list of requirements was actually implemented. FWHA took two important steps in response: • First, FHWA included within the mitigation package a requirement for the designation of an independent environmental compliance monitor. The monitor reports directly and concurrently to the regulatory agencies and the sponsoring agencies on the status of FHWA’s compliance with the mitigation measures. • Second, with extensive technical assistance from the GEC, FHWA developed a system to track the numerous environmental commitments made during both the first and second project planning and development processes. The development and use of the tracking system was reinforced by the Depart­ ment of the Army Permit, Special Condition 5. As a major bridge project, the management of waterrelated impacts was a major undertaking. Special Condition 5 required the submission of interim and final tracking reports for environ­mental commitments, reports on instances of non­compliance, and a final report of total impacts to the waters of the United States. Key Innovation: Comprehensive Project Mitigation The ROD for the final supplemental EIS contained numerous mitigation measures covering several pages. These measures ranged from some specific requirements to concepts that required further analysis and consultation with the affected resource ­agencies. Mitigation requirements were divided between ­Maryland, Virginia, and the District of Columbia on the basis of the functions and types of permanent ­impacts associated with each jurisdiction. The requirements included the following: Irrespective of USACE’s permit requirements, the tracking system was a necessary management tool for the bridge development process because this was a highly complex project. For example, one contracting component of the bridge reconstruction was contract VA‑5, for the reconfiguration of the interchange with US-1 in Alexandria. VA-5 was a $39 million subcontract involving construction of 11 bridge structures to carry traffic over extremely sensitive areas, including Cameron Run, Hunting Creek, and tidal wetlands and mudflats associated with the Potomac River. The planning process had entailed a great deal of effort to ensure that water quality was not adversely affected. The contractor had to remove the old causeways and accesses, which was a major challenge. The contract required 44 cofferdams, and each pumped discharge that needed treatment through sediment bags and turbidity curtains. The VA-5 subcontract alone had 944 commitments designed to prevent impacts to the sensitive environmental resources of the area. • Installation of 22 fish passageways and one fish ladder on Rock Creek and Anacostia River tributaries to allow fish to spawn upstream of previous man-made barriers; • Stocking of 15 million river herring in Rock Creek and Anacostia River tributaries; • Establishment of an 84-acre bald eagle sanctuary in Prince George’s County; • Building of a fish reef in the Chesapeake Bay using thousands of tons of the old bridge; • Preservation or creation of approximately 146 acres of wetlands at various locations in ­Virginia and Maryland; • Planting of 20 acres of river grasses in the lower Potomac River for fish habitat and water cleaning purposes; and • Preservation of more than 140 acres of woodlands in Prince George’s County. An important question or concern from the public as well as the ICG was how FHWA would 12 WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA The database was maintained by the GEC as a monitoring tool for the Environmental Management Group. It was accessible to the resource agencies. The GEC monitored the database closely to ensure that the information was conveyed to the appropriate parties. Before an interagency meeting, such as the Design Review Working Group, or the preparation of permit plates for dredging activities, the GEC would go through the list of commitments to ensure that their status was properly conveyed to the appropriate parties. FHWA’s use of the tracking system was invaluable to the project development, permitting, and delivery processes. It became the repository of ­thousands of commitments and could be reviewed and updated at any time in response to project activities. It provided a method for ensuring that commitments were carried out. Furthermore, this tracking database now serves as a record of the mitigation process and is the basis for accurate and efficient reporting to permitting agencies and other interested organizations. accessible at the local project offices. The ­minutes also became the basis for tracking progress and the commitments made on a variety of issues. The federal government’s litigation team also relied on the minutes to explain FHWA’s decision-making process to the court. Litigation Management During the initial months that FHWA prepared the supplemental draft EIS, the agency was still under the federal district court’s decision that it had violated NEPA, Section 106 of the NHPA, and Section 4(f) of the Department of Transportation Act with respect to the 1997 final EIS process. Nevertheless, FHWA chose to consistently maintain its position that only a 12-lane structure could meet the project’s purpose and need. Rather than reopening consideration of alternatives in the supplemental draft EIS and restating the purpose and need for the project, FHWA referred the reader back to the 1997 final EIS for the purpose and need statement. In so doing, FWHA was able to focus the remaining analytical work and extensive interagency coordination around its preferred ­alternative. At the same time, FHWA was sensitive to both its position in the lawsuit and the related and continuing questions from the public on the feasibility of a tunnel alternative. In response, FHWA undertook a more thorough and documented analysis of a ­tunnel alternative and shared it with the public. FHWA did this to more fully and openly explain the reasons why it believed that a tunnel was not a reasonable alternative. FHWA also included the tunnel study as an appendix in the final supplemental EIS rather than in the body of the document. In its ROD for the final supplemental EIS, FHWA concluded that any benefits of a tunnel were greatly outweighed by the substantially greater environmental impacts, costs, operational issues, and constructability challenges of this alternative. This litigation strategy proved highly successful because the U.S. Court of Appeals for the District of Columbia agreed with FHWA’s position that for an alternative to be considered within the range of the reasonable alternatives, it must meet the purpose of and need for the project. The Court found that Barriers Encountered and Solutions Interagency Coordination FHWA faced a complex task in having to coordinate project planning between two states, the District of Columbia, all of their jurisdictional components, and several major federal agencies. To reduce the communication problems that could arise with so many parties involved, FHWA assigned key environmental and project management staff to the two project offices. It assigned an FHWA attorney to work with this on-site staff on a continuing basis. Several representatives from involved resource protection agencies as well as the consulting consortium noted that this on-site presence was critical in both simplifying communications between all parties and obtaining timely guidance and decisions from FHWA. FHWA also scheduled frequent meetings. The EMG and GEC met weekly to go over the status of unresolved impact issues as well as next steps. The ICG, the larger group of predominantly resource protection agencies, met at least monthly. FHWA directed that minutes be recorded, distributed, preserved, and made publicly available and 13 WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA FHWA need not consider alternatives in detail that do not meet FHWA’s transportation goals for a ­project. This decision was of great value as a precedent in FHWA’s NEPA program because it rejected earlier judicial interpretations of NEPA as requiring even unreasonable alternatives to be considered in an EIS and it came from such an influential federal court. resources. FHWA was able to use these flexible ­procedures to effectively stage its compliance instead of requiring complete identification and treatment of all sites before the start of construction and as long as the deferred sites were not yet subject to construction activities. A contributing factor to this effective approach was the GEC’s cultural resource experts, who were highly experienced in the Section 106 process and credible to the resource agencies. Merger of NEPA and USACE’s Permitting Requirements Documenting Preconstruction Conditions When FHWA announced its decision to start the supplemental EIS process, it also committed to completing the process and required project permitting as expeditiously as possible. FHWA worked closely with USACE to achieve this result. For example, FHWA used the supplemental draft EIS as its initial permit application to USACE. FHWA and USACE held joint public meetings for NEPA and permitting purposes. The final supplemental EIS served as the final permit application. Both agencies concurred in and used the final supplemental EIS as their NEPA compliance documents for their independent federal actions. FHWA signed its ROD in June 2000 (6), and USACE issued its permits approximately 2 weeks later. As part of the comprehensive mitigation package for the project, FHWA promised that the two ­cemeteries on the Virginia side and near construction sites would not be adversely disturbed. Before construction, headstones at St. Mary’s cemetery showed deterioration that appeared to be the result of their age. To ensure that the headstones were not later considered to be harmed by construction, FHWA conducted two full assessments of the more than 2,000 ­markers and other structures, resulting in the preparation of extensive notes and over 10,000 digital images. FHWA placed vibration monitors above and below ground and conducted pedestrian monitoring of standing structures and ground disturbances. Weekly monitoring indicated that no damage occurred that could be correlated to bridge construction activities. To confirm the results of the monitoring, FHWA conducted a second assessment of the cemetery after completing most of the US-1 interchange and made comparisons to the previous assessment. Unanticipated Construction Impacts The low estimates of the dredging impacts in FHWA’s 1997 final EIS and the resulting inability of USACE to adopt that EIS were major reasons why FHWA decided to prepare another draft and final EIS. When preparing an EIS in the early stages of the project development process, it is particularly difficult for teams of planners and design engineers to quantify construction impacts. All of the specific construction, staging, materials, and disposal sites may not be known and the team may not have sufficient construction expertise. This project highlights the need to include that expertise to the fullest extent possible. Creative Disposal of Dredge Material Once FHWA quantified dredging requirements, off-site disposal of the dredged materials became a serious problem. After the EMG and GEC evaluated almost 20 disposal sites, the GEC found a disposal site at Port Tobacco in Weanack, Charles County, Virginia, to be acceptable on the basis of cost and acceptance of wet dredged material (Figure 6). This site is located on an 800-acre tract containing Shirley Plantation, which is a designated National Register and a National Historic Landmark site. As a result, approximately 500,000 cubic yards of unwanted dredged material served to stabilize and restore the previous agricultural use and appearance of the ­historic Shirley Plantation. A Memorandum of Agreement Is a Valuable Tool As previously mentioned, FHWA entered into an MOA for the purpose of complying with Section 106 of the NHPA. In addition to establishing the design review goals for the bridge, the MOA established procedures for evaluating and treating cultural 14 WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA References 1. Potomac Crossing Consultants. Woodrow Wilson Bridge Project Overview. U.S. Department of Transportation, Federal Highway Administration; Virginia Department of Transportation; Maryland Department of Transportation, State Highway Administration; and District of Columbia Department of Public Works, 2007–2008. Courtesy of Woodrow Wilson Bridge Project. 2. Settlement Agreement Between the City of Alexandria, Virginia, and the United States Department of Transportation, March 1, 1999. Attachment 4 in Record of Decision, Woodrow Wilson Bridge Project, Federal Highway Administration, June 16, 2000. www.wilsonbridge.com/­images/ stories/pdf/rodReport/2000ROD.pdf. Accessed July 13, 2010. Summary 3. City of Alexandria, Virginia, et al. v. Rodney E. Slater, Secretary, U.S. Department of Transportation, et al., 198 F.3d 862 (D.C. Cir. 1999). Figure 6. Dredge fill site. 4. Potomac Crossing Consultants. Stakeholder Participation Panels in the Public Involvement Process. Federal Highway Administration, U.S. Department of Transportation, November 1998. Ten years into the Woodrow Wilson Bridge project development process, FHWA successfully faced the challenges of restarting the NEPA and Section 404 permitting processes while minimizing further delays in the start of the bridge’s construction. FHWA accomplished this by 5. Woodrow Wilson Bridge Project: Final Supplemental Environmental Impact Statement/Section 4(f) Evaluation. Federal Highway Administration, U.S. Department of Transportation; Virginia Department of Transportation; Maryland Department of Transportation, State Highway Administration; and District of Columbia Department of Public Works, April 14, 2000. www.wilsonbridge. com/­images/stories/pdf/eisDocument/TOC.pdf. Accessed July 13, 2010. • Assembling a highly qualified team of federal and state project managers and environmental impact review staff; • Securing excellent consultants; • Effectively collaborating with USACE, other key resource agencies, and the most affected public; • Developing consensus around a context-sensitive bridge design; • Coordinating its litigation strategies with the scope of its ongoing NEPA analyses; • Negotiating a comprehensive set of mitigation requirements; and • Establishing a transparent monitoring program for those requirements. 6. Record of Decision, Woodrow Wilson Bridge Project. Federal Highway Administration, June 16, 2000. www.wilsonbridge.com/images/stories/pdf/rodReport/ 2000ROD.pdf. Accessed July 13, 2010. 15 WOODROW WILSON BRIDGE IN MARYLAND AND VIRGINIA The National Academy of Sciences is a private, nonprofit, self-perpetuating society of distinguished scholars engaged in scientific and engineering research, dedicated to the furtherance of science and technology and to their use for the general welfare. On the authority of the charter granted to it by the Congress in 1863, the Academy has a mandate that requires it to advise the federal government on scientific and technical matters. Dr. Ralph J. Cicerone is president of the National Academy of Sciences. The National Academy of Engineering was established in 1964, under the charter of the National Academy of Sciences, as a parallel organization of outstanding engineers. It is autonomous in its administration and in the selection of its members, sharing with the National Academy of Sciences the responsibility for advising the federal government. The National Academy of Engineering also sponsors engineering programs aimed at meeting national needs, encourages education and research, and recognizes the superior achievements of engineers. Dr. Charles M. Vest is president of the National Academy of Engineering. The Institute of Medicine was established in 1970 by the National Academy of Sciences to secure the services of eminent members of appropriate professions in the examination of policy matters pertaining to the health of the public. The Institute acts under the responsibility given to the National Academy of Sciences by its congressional charter to be an adviser to the federal government and, upon its own initiative, to identify issues of medical care, research, and education. Dr. Harvey V. Fineberg is president of the Institute of Medicine. The National Research Council was organized by the National Academy of Sciences in 1916 to associate the broad community of science and technology with the Academy’s purposes of furthering knowledge and advising the federal government. Functioning in accordance with general policies determined by the Academy, the Council has become the principal operating agency of both the National Academy of Sciences and the National Academy of Engineering in providing services to the government, the public, and the scientific and engineering communities. The Council is administered jointly by both Academies and the Institute of Medicine. Dr. Ralph J. Cicerone and Dr. Charles M. Vest are chair and vice chair, respectively, of the National Research Council. The Transportation Research Board is one of six major divisions of the National Research Council. The mission of the Transportation Research Board is to provide leadership in transportation innovation and progress through research and information exchange, conducted within a setting that is objective, interdisciplinary, and multimodal. The Board’s varied activities annually engage about 7,000 engineers, scientists, and other transportation researchers and practitioners from the public and private sectors and academia, all of whom contribute their expertise in the public interest. The program is supported by state transportation departments, federal agencies including the component administrations of the U.S. Department of Transportation, and other organizations and individuals interested in the development of transportation. www.TRB.org www.national-academies.org THE CATHOLIC UNIVERSITY OF AMERICA SCHOOL OF ENGINEERING, ENGINEERING MANAGEMENT PROGRAM (EMP) CMGT 528: PROJECT DELIVERY METHODS & PROCUREMENT FALL SEMESTER 2018 PROJECT PROCUREMENT ANALYSIS DUE DATE(S): (REVISION 0, ISSUED 08/30/2018) There are multiple due dates for the various assignment components:  Assignment 1:  Assignment 2:  Assignment 3:  Assignment 4:  Assignment 5: PMBOK Section 12.1: PMBOK Section 12.2: PMBOK Section 12.3: PMBOK Section 12.4: Alternative Procurement Issue Identification: (If Desired)  Assignment 6: Procurement Issue Analysis:  Assignment 7: Procurement Evaluation:  Final Assignment Submission and Presentation: Thursday, September 20, 2018 Thursday, September 27, 2018 Thursday, October 04, 2018 Thursday, October 11, 2018 Thursday, October 11, 2018 Thursday, October 25, 2018 Thursday, November 11, 2018 Thursday, December 06, 2018 PROJECT DESCRIPTION The semester-long Project Procurement Analysis consists of a single report (both oral and written). Each student will evaluate and analyze the procurement process as defined by Chapter 12 of the PMBOK (4th / 5th Editions) for the Woodrow Wilson Bridge Project, Washington, DC. The analysis will consist of three main components:  PMBOK Procurement Analysis An analysis of the four (4) Project Procurement Management components as defined by Chapter 12 of the PMBOK (4th / 5th Editions) and the relative sub-elements within the three (3) common subsections: “Inputs,” “Tools and Techniques,” and “Outputs.”  Procurement Issue Analysis Discussion of a specific aspect of the project procurement process that represents something “unique” to the procurement and/or delivery of the Wilson Bridge Project, such as those identified below, or other as approved by the professor: − Legal aspects of the project procurement − Procurement for government-based projects − Issues and problems with “mega project” procurements − Unique aspects of bridge project procurements − Project procurement and project-related social responsibility − E-Procurement for project procurements − Project procurement documentation requirements  Procurement Evaluation Numeric evaluation (1 = lowest/worst, 5 = highest/best) and discussion of all phases of the procurement and/or delivery of the Wilson Bridge Project, including items such as: − Scope Management − Time Management − Cost Management − Quality Management − Resource Management − Communications − Risk Management − Procurement Integration In addition, highlight and discuss the major areas of strength (what worked well) and weakness (areas for which there is an opportunity to improve) for the procurement process for the Woodrow Wilson Bridge Project. EVALUATION The project is worth forty (40) percent of the semester course grade, representative of two components: Interim submissions (Assignment Nos. 1 through 7, excluding No. 5) worth fifteen (15) percent of the semester course grade, and the final submission and presentation worth twentyfive (25) percent of the semester course grade. SAMPLE / POTENTIAL RESOURCES Planning, Development, and Media: A Case Study of the Woodrow Wilson Bridge, Lisa Schweitzer and Max Stephenson Jr., Journal of Planning Education and Research 2016, Vol. 36(2) 239 – 254. (Access this through the CUA Library Journal search engine) http://journals.sagepub.com/doi/abs/10.1177/0739456X15620280?journalCode=jpea Woodrow Wilson Bridge – Construction, Capital Beltway dot com. http://capitalbeltway.com/Woodrow-Wilson-Bridge-Const.html#LATEST_UPDATE Woodrow Wilson Bridge, Potomac River, Maryland, Virginia, Road Traffic Technology https://www.roadtraffic-technology.com/projects/woodrow_wilson/ (Note that there are multiple sections per the Project Overview Menu on the Left Side of the Page) Woodrow Wilson Bridge in Maryland and Virginia, Transportation Research Board of the National Academies. https://trid.trb.org/view.aspx?id=968110 Woodrow Wilson Bridge Project: A Mega Project Success Story, National Science Foundation https://www.largefacilitiesworkshop.com/wp-content/uploads/2018/07/Woodrow-WilsonBridge-Replacement-Project-A-Mega-Project-Success-StoryPOC.pdf SUBMISSION REQUIREMENTS Both a written presentation (report) and an oral presentation including a PowerPoint slide deck are required. The oral presentation may take on any format desired, but must convey the three (3) components of the assignment. The written report should average between 15 and 25 pages (excluding the Cover Page, Index, Executive Summary, and any End Matter – e.g., Appendix, Exhibits, Supporting Data, Reference List, etc.). The interim submissions and the final are to be typewritten (single-spaced) and include a cover page clearly depicting the project title, student name, assignment number and name, submission date, and any other elements deemed appropriate in fulfillment of the assignment objectives. The cover page should remain consistent for all assignments and the final report. Submission for the face-to-face section are to be submitted in hardcopy (paper) format, and for the online section are to be submitted electronically to the professor via e-mail as a single document in PDF format. 12.4 Close Procurements .1 Inputs .1 Project management plan .2 Procurement documents .2 Tools & Techniques .1 Procurement audits .2 Procurement negotiations .3 Records management system .3 Outputs .1 Closed procurements .2 Organizational process assets updates 12.2 Conduct Procurements 12.3 Control Procurements .1 Inputs .1 Procurement management plan .2 Procurement documents .3 Source selection criteria .4 Seller proposals .5 Project documents .6 Make-or-buy decisions .7 Procurement statement of work .8 Organizational process assets .1 Inputs .1 Project management plan .2 Procurement documents 3 Agreements 4 Approved change requests .5 Work performance reports .6 Work performance data .2 Tools & Techniques .1 Bidder conference .2 Proposal evaluation techniques .3 Independent estimates .4 Expert judgment .5 Advertising .6 Analytical techniques .7 Procurement negotiations .2 Tools & Techniques .1 Contract change control system .2 Procurement performance reviews .3 Inspections and audits .4 Performance reporting .5 Payment systems .6 Claims administration .7 Records management system .3 Outputs .1 Selected sellers .2 Agreements .3 Resource calendars 4 Change requests .5 Project management plan updates .6 Project documents updates .3 Outputs .1 Work performance information .2 Change requests .3 Project management plan updates .4 Project documents updates .5 Organizational process assets updates
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