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Mississippi-Alabama Bays and Bayous 2012 Book of Abstracts PDF

242 Pages·2012·4.84 MB·English
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View bookmarks to see a list of this book’s contents. Climate and Hazard Resilience Session Architecture of defense Climate and Hazard Resilience Oral Presentation Allison Anderson AIA, LEED-AP* Unabridged Architecture PLLC [email protected] Allison leads research efforts focusing on resilience, coastal hazards and adaptation, and defensibility. Research informs every architectural project, including exploring precedents, material selections, establishing program goals and tracking performance of sustainability measures. Armouring structures against the risk of natural and manmade hazards is a key specialty, leading to storm-resistant community and first-responder shelters. Architecture is designed to protect people from harm. Early threats came from people, and their weapons of war. New threats are still focused on our coastlines, but now include greater risks from nature, including climate change and sea-level rise. Whether the disasters are natural or man-made, the same forces affect buildings with negative consequences: wind, blast, earthquake, pollution, flood, fire and economic plagues of all kinds. The history of resilience has been written in survival, and the willingness to take on the challenges of protection, self-sufficiency and the ability to set limits so that capacity is not overextended. Resilience against climate change requires a number of strategies, including distance, elevation, fortification and sustainability. To form the most adaptable architecture depends upon building structures that will be permanent, and the most efficient use of resources includes designing special buildings for extended service life. Case studies will illustrate designs for Emergency Structures, including Operations Centers and Community Shelters in the coastal regions, sited in both urban and rural environments. In recovery after disaster, members of the community must suddenly meet their daily needs alone and establish self-sufficiency, including power generation on site from renewable sources; water collection, filtration, and use; wastewater treatment; food production; and the ability to commute without using fuel. Case studies will include strategies employed since 2005 on projects for cities and counties, including renewable energy solar arrays, ground-source heat exchange systems, rainwater harvest and grass roof installations. Integrating hazard mitigation into local planning to support community resiliency on the Mississippi Gulf Coast Climate and Hazard Resilience Oral Presentation Allison Beasley, CEcD, IOM Southern Mississippi Planning and Development District [email protected] Allison Beasley is the planning director at Southern Mississippi Planning and Development District, a 15-county regional planning agency. She has a master’s degree in economic development and holds the Certified Economic Developer designation from the International Economic Development Council. Integrating Hazard Mitigation into Local Planning to Support Community Resiliency on the Mississippi Gulf Coast is a research project currently being conducted by Southern Mississippi Planning and Development District with funding from Mississippi-Alabama Sea Grant Consortium. The project was conceived with the understanding that planning documents in most of the counties and cities in Coastal Mississippi are in two distinct categories: those that plan for future growth and those that address hazards and emergency management. Investigators believe that the two plan groups likely have some linkages but seldom lack shared values or goals and objectives. Comprehensive planning is usually the responsibility of a planning or zoning department and hazard mitigation planning is conducted by emergency managers. If local governments are going to make sound planning decisions related to future growth, hazard impacts and coastal resiliency must be incorporated into the comprehensive planning process and the planning documents. The first step in moving toward this integration is to identify the connections and the gaps between the two types of planning documents. Recommendations for improved linkages must then be made to local governments. Integrating hazard mitigation principles into comprehensive planning and land use strategies will reduce future damage to property and public facilities, avoid development in hazardous areas and provide adequate public shelters and reduce hurricane evacuation times. The hypothesis for the study is that there are definitive ways to link the hazard mitigation plans to comprehensive plans. Objectives for the investigation are as follows: Identify existing connections between hazard mitigation plans and comprehensive plans Identify existing gaps or missing connections between hazard mitigation plans and comprehensive plans Develop recommendations on how to specifically link hazard mitigation principles to the comprehensive plans Develop policy recommendations related to mandates for hazard mitigation planning and comprehensive planning in Mississippi The investigation is under way and results will be finalized and published after February 2013. Determining localized risk perception and impacts of predicted sea-level rise (SLR) to engineered versus natural landscapes to enhance stakeholder SLR mitigation planning Climate and Hazard Resilience Oral Presentation Matthew Bethel1 *, Wei Wu2, Patrick Biber2, Chongfeng Gong2, Hailong Huang2, Michelle Gremillion3 and Corey Miller3 1University of New Orleans-Pontchartrain Institute for Environmental Sciences, 2University of Southern Mississippi-Gulf Coast Research Laboratory, 3University of New Orleans-Center for Hazards Assessment, Response and Technology [email protected] Dr. Matthew Bethel is a Postdoc researcher/project manager at the University of New Orleans (UNO). He earned his Ph.D. in applied environmental science and engineering from UNO. His professional interest is in the application of geospatial technology in multi-disciplinary research that addresses information needs for ecological decision support systems. Marshes are essential buffer zones between land and water in estuaries and coastal zones, they are disappearing rapidly, and those that remain are often in poor health. The most dramatic coastal marsh losses in the United States are in the northern Gulf of Mexico. These disappearing marshes serve as a vital habitat for a diverse and unique range of flora and fauna, a cushion between coastal waterfront-dependent communities and the open waters of the Gulf, and an integral resource for the economic and social viability of these communities. Therefore, coastal community leaders, government officials and natural resource managers must be able to accurately assess and predict a given coastal landscape’s sustainability and/or vulnerability, especially as this coastal habitat continues to undergo rapid and dramatic changes associated with natural and anthropogenic activities, such as accelerated relative sea-level rise (SLR). Currently, a multi-disciplinary research team is conducting a NOAA Sea Grant-funded project to use a regional approach to refine the NOAA SLR Visualization Tool for local implementation in areas experiencing two different driving mechanisms of coastal wetland habitat change (subsidence versus erosion). This collaborative research aims to determine the different ways in which two different stakeholder groups (traditional ecosystem users versus resource managers) evaluate risk and plan mitigation strategies associated with coastal habitat change due to predicted SLR resulting from climate change. To achieve this goal, we are determining: (1) a method for producing localized vulnerability/sustainability maps based on predicted inundation and redistribution of coastal wetlands under accelerated SLR for two regionally representative systems; the first is an ecosystem-dependent coastal Louisiana indigenous Native American community, and the second is a Mississippi natural coastal preserve. Results from physical information derived from data and modeling of subsidence, erosion, engineered restoration and coastal protection features, historical land loss, and future land prediction under SLR that are complemented with traditional ecological knowledge (TEK) offered by the collaborating local ecosystem users will be integrated for these assessments; and (2) how and whether the results of such an approach can provide more useful information for assessing localized impacts of SLR and associated risk that may later be applied across the Gulf Coast by Sea Grant and the NOAA Coastal Services Center among others. We are in the first year of this two-year research project, and intend to present the work to date in achieving the project objectives that includes: scientific field data collected related to marsh vegetation biomass characteristics, TEK data collection activities with the local experts, preliminary data analysis results, etc. Resilient coastal construction: Successes, needs and opportunities Climate and Hazard Resilience Oral Presentation Alexandra Cary1*, Darius Grimes2 and Carl Schneider3 1Smart Home America, 2Disaster-Smart Inspection Consulting, 3Schneider Insurance [email protected] Alexandra Cary is the executive director of Smart Home America. Her skills include sustainable and resilient construction and training others in these practices. She is a licensed Home Builder with eight years experience in the field working with Habitat for Humanity, the US Green Building Council and Baldwin County Home Builders. Hurricanes Ivan and Katrina made evident the vulnerability of our coastal communities and demonstrated the need for coastal resiliency, with the catastrophic losses of life and property in addition to the overall community economic losses. Since these disasters, partnerships were born from this need between organizations like Smart Home America, Habitat for Humanity, Disaster Smart Inspection Consulting, The Insurance Institute for Business and Home Safety (IBHS), State Farm Insurance, the Coastal Recovery Commission and many other local stakeholders. Smart Home America began addressing this issue through education, outreach, introduction and implementation of regulatory solutions and community demonstration projects. Mandated discounts on insurance premiums for homes built to IBHS’s Fortified designation have encouraged homeowners to implement these changes and their research has instigated changes in local building codes as well. Demonstration projects with Habitat for Humanity have not only changed the way that the organization builds their homes, but has shown that these disaster resistant practices can be done affordably, with a three percent increase in construction costs, resulting in a 25 percent insurance premium savings. These results have convinced other home builders and residents to follow suit. Due to the efforts of Smart Home American and their partners, Baldwin County and the municipalities throughout have adopted a Coastal Code supplement that mandates measures such as a Sealed Roof Deck and Roof Deck Attachment Requirements for all new homes and re-roofs. IBHS has estimate that the impact to loss reduction from this change alone could be as much as $11,600 per home. With and average of 1100 new and re-roofs per year, and an average of 50 percent of all structures damaged in a 50 year event, the loss reduction estimate for Baldwin County alone is $6 million per year. With an increase in roofing cost of less than $1500 per home, this means $8 to $10 loss reduction for every $1 spent. These figures do not include the impact of loss of use and the community economic impact that results from displaced residents. The implementation of these codes and the increasing number of Fortified homes built and mitigated on the Gulf Coast is an encouraging start, but there are many more opportunities yet to be realized. The results from the Baldwin County Habitat demonstration project have prompted other Habitat demonstration projects across the coast, to be used as educational opportunities for those communities. The implementation of the Coastal Code Supplement has started conversations in other communities along the Gulf Coast that are still negotiating the implementation of stronger codes. All of these developments will ultimately result in safer, stronger, less vulnerable Gulf Coast communities when the next disaster strikes. Habitat Family in front of their Fortified Home Community Economic Preparedness: An Index Designed to Test the Economic Preparedness of Rural Communities Climate and Hazard Resilience Poster Presentation Randy Y. Coker1*, Benedict C. Posadas1, Amanda Seymour1, Scott A. Langlois1 and Christine E. Coker1 1Mississippi State University, Coastal Research and Extension Center [email protected] In 2010, the Mississippi State University, Center for Urban Rural Interface Studies (CURIS) conducted a research and outreach program on Community Economic Preparedness in the Gulf of Mexico Region. The goal of this project was to evaluate the overall community economic preparedness of rural counties and parishes. Community Economic Preparedness involves communities actively engaged in pursuing fundamental steps toward economic resilience and disaster management. Communities with local economies which are resilient to the effects of natural disaster will experience quick financial and physical recovery. The Community Economic Preparedness Index (CEPI) measures a county’s or parish’s economic preparedness level based on fifteen different categories: economic development plan, effective zoning ordinances, industrial site capabilities, separate development organization, commercial development capabilities, small business development, community infrastructure, utilities capabilities, education access/quality, financial support available, strength of tourism boards, abilities/availability of labor force, natural disaster susceptibility, quality of life, and local government structure. Each of these variables is then given a numeric value which is used to give each county or parish an overall economic preparedness score representing the current level of economic preparedness. The CURIS Region includes 20 counties and parishes in four of the five coastal states bordering the Gulf of Mexico: Louisiana, Mississippi, Alabama, and Florida. These 20 counties were used as the basis for distribution of the CEPI Survey. A total of 60 survey forms were mailed to these 20 counties and parishes. Survey forms were mailed to the Chamber of Commerce, Board of Supervisors, and Economic Development Commission in each county or parish, along with instructions on how to complete it and a postage paid envelope to return the completed survey. A total of 2 mailings were sent out in May and June 2010. Of the 60 targeted CEPI survey participants, 17 completed surveys were returned, representing a response rate of 28.3%. The data from the completed surveys have been analyzed, and each preparedness category, as well as, an overall average CEPI has been calculated. The Indices were assigned a value between zero and one, with one being the highest, or most prepared; and zero being the lowest or least prepared. The preliminary results indicate an overall average CEPI of 0.51 for the participating respondent counties. The highest average category score was found to be 0.83 in Industrial Site Capabilities, while the lowest average category score was listed at 0.12 in Effectiveness of County Zoning Ordinances. A more in-depth representation of these results will be represented in the poster.

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ecosystem-dependent coastal Louisiana indigenous Native American community, and the second . A total of 60 survey forms were mailed to these quality protection and fish nurseries), should be maintained as demographic and socio-economic backgrounds University of Houston Clear Lake.
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