W2-F.4 Gerst MD, Wang P, Roventini A, Dosi G, Howarth RB, Borsuk ME;mark.borsuk@dartmouth.eduDartmouth CollegeAGENT-BASED MODELLING OF THE LINKED ENERGY, ECONOM-IC, AND CLIMATE SYSTEM FOR SCENARIO GENERATION ANDROBUST DECISION-MAKING<strong>Society</strong>’s response to climate change is a global, collective decision-making problemunprecedented in scale and complexity. Formally analyzing the role of a nontrivialnumber of stakeholders in shaping climate policy has been elusive because theinherent heterogeneity precludes tractable analysis by traditional models. An alternativeapproach is represented by agent-based modeling, which employs the concept ofdiscrete actors, each possessing a set of defining characteristics and behavioral rules.Rather than focusing on equilibrium or rational choice outcomes, agent-based modelsare primarily concerned with the evolution of large-scale properties that naturally‘emerge’ from a system of heterogeneous, boundedly rational agents. We have beendeveloping a multi-level, agent-based model that simulates both international negotiationand the domestic dynamics of the economy, energy, and climate change. Ratherthan claiming predictive precision, the objective of our model is to support robustdecision-making under uncertainty by serving as a policy and scenario discovery tool.In the first capacity, policy <strong>for</strong>mation is endogenous to the model and allows <strong>for</strong> investigationof the co-evolution of policy <strong>for</strong>mation and system structure. This allowsone to address questions such as, “What are the likely enhancing or retarding factors<strong>for</strong> minimizing climate risks?” In the second capacity, as a scenario discovery tool, themodel allows one to engage in fully integrated scenario creation <strong>for</strong> exogenously suppliedpolicies. A relevant question is, “What are the conditions under which a givenpolicy per<strong>for</strong>ms poorly?” A particularly useful aspect of the scenario discovery modeis that policy solutions from other modelling frameworks can be used as inputs, providinga test of policy robustness. This makes agent-based modelling an importantcomplementary tool in the risk analyst’s toolbox.P.126 Gilmore EA, Moore A, Murphy BN, Adams PJ; gilmore@umd.eduUniversity of Maryland, Carnegie Mellon UniversityVARIABILITY IN AIR QUALITY MODELS INFLUENCES SOCIALCOST ESTIMATES FOR AIR EMISSIONSChoosing between alternative products, processes and policies requires crediblein<strong>for</strong>mation about both the private and social costs. For air quality, an impact pathwayapproach is frequently employed to estimate this social cost. This entails convertingthe emissions to ambient concentrations, translating the concentrations to theirequivalent human health effects and applying willingness to pay estimates to avoidthese outcomes. Since this approach can be time consuming, literature values are usedin many analyses. The assumptions in the air quality models that are used to derive104the literature values, however, are rarely evaluated and may introduce error. Here, wedevelop new estimates of the social cost <strong>for</strong> air emissions in $/ton through an impactpathway approach. Using a ‘state of science’ 3-D chemical transport model, the ParticulateMatter Comprehensive Air Quality Model with extensions (PMCAMx), wemodel changes in fine particulate matter (PM2.5) from emission precursors <strong>for</strong> twourban and two rural sites in the summer and the winter <strong>for</strong> area and point sources. Wecalculate social costs that range from two to more than ten times higher than othervalues in literature <strong>for</strong> both reactive and non-reactive compounds, suggesting thatmodel variability in both transport and chemistry can have an important influence onthe estimates. Applying new models that reflect an improved understanding of the<strong>for</strong>mation of secondary organic aerosols (SOA), we find that the social costs <strong>for</strong> thenon-methane hydrocarbons precursors can also vary by a factor of ten depending onthe <strong>for</strong>mation mechanism. Our results suggest caution in the use of literature values<strong>for</strong> the social cost of air quality emissions <strong>for</strong> benefit-cost analysis and externalitypricing.M2-H.1 Gilmour L, Rath C, Kolasky RP; lillian.gilmour@hq.dhs.govUS Department of Homeland Security, Office of <strong>Risk</strong> Management and <strong>Analysis</strong>TOMORROW’S GOVERNMENT: BUILDING A RISK MANAGEMENTCULTURE AT THE DEPARTMENT OF HOMELAND SECURITYIn accordance with the Department of Homeland Security’s (DHS) QuadrennialHomeland Security Review, homeland security is considered tantamount to managingrisks to the Nation. Instituting a risk management program is about establishingefficient and effective processes throughout an organization that allows the promulgationand use of risk in<strong>for</strong>mation to in<strong>for</strong>m many types of decisions. It is also aboutbuilding a culture of risk management and changing the way members of an organizationthink about risk. Working to instill a culture of risk management is an importantaspect of any organization’s risk management ef<strong>for</strong>ts, and DHS is using a multiprongedapproach to promote risk management concepts and institutionalize riskmanagement practices throughout the organization. DHS is currently building participationin risk management decisions through a central governing body called the<strong>Risk</strong> Steering Committee, developing a risk management training program, conveyinga common language through a risk lexicon, distributing guidance on risk managementpractice, and providing tailored risk analysis and consultation to partners. While thereis much work to be done, in this session we will discuss some of the endeavors DHShas embarked upon and how DHS continues to strive <strong>for</strong> a risk management culture.In addition, we will discuss some of the challenges and lessons learned encounteredduring the implementation of a risk management program at DHS.
W1-C.1 Goble R, Hattis D; rgoble@clarku.eduClark UniversityTHE PANTOXIN PROJECT: A VALUE OF INFORMATION FRAME-WORK FOR COMBINING INFORMATION OF DIFFERENT TYPES INCHEMICAL RISK DOSE-RESPONSE ASSESSMENTSContemporary dose-response assessment confronts numerous challenges including:1) a vast proliferation of chemicals to assess; 2) a flood of new in<strong>for</strong>mationfrom new types of studies that offer more and different kinds of data and presentnew types of analysis; 3) demands <strong>for</strong> more coherence in addressing uncertainties.<strong>Risk</strong> analytic ef<strong>for</strong>ts over the past decades have accumulated a substantial body of in<strong>for</strong>mationon chemical toxicity relevant to these challenges. EPA’s IRIS compilation,<strong>for</strong> instance, contains detailed in<strong>for</strong>mation on toxicity <strong>for</strong> more than 500 chemicals.We describe here a value of in<strong>for</strong>mation framework intended to facilitate the incorporationof new findings and new or different types of in<strong>for</strong>mation in dose-responserisk assessments. The two key ideas are very simple. Potential usefulness of new in<strong>for</strong>mationcan be evaluated by ascertaining its explanatory power in ensembles ofchemicals <strong>for</strong> which we already have rich sets of toxicological in<strong>for</strong>mation. And theuncertainty in extrapolating to chemicals <strong>for</strong> which the in<strong>for</strong>mation base is limitedcan be examined by observing generic properties of in<strong>for</strong>mation-rich data sets. Wedescribe our progress in creating data sets and analytic tools to make this ef<strong>for</strong>t practical.Details of a specific illustration of the approach are provided in our presentation.“The “straw man” system <strong>for</strong> replacing uncertainty factors with empirical distributions<strong>for</strong> traditional systemic toxicants‚ “examples and use <strong>for</strong> value of in<strong>for</strong>mationanalysis of in vitro measurements” by D. Hattis, et al.T2-B.1 Gohlke JM, Doke D, Tipre M, Leader M, Fitzgerald T; jgohlke@uab.eduUniversity of Alabama at Birmingham, School of Public HealthA REVIEW OF SEAFOOD SAFETY AFTER THE DEEPWATER HORI-ZON BLOWOUTThe Deepwater Horizon (DH) blowout resulted in fisheries closings across theGulf of Mexico. Federal agencies, in collaboration with impacted Gulf states, developeda protocol to determine when it is safe to re-open fisheries based on sensory andchemical analyses of seafood. Most waters have been re-opened, yet concerns regardingthe robustness of the protocol to identify all potential harmful exposures and protectthe most sensitive populations have been raised. We aimed to assess the protocolbased on comparisons with previous oil spills, published testing results, and currentknowledge regarding chemicals released during the DH oil spill. We per<strong>for</strong>med acomprehensive review of relevant scientific journal articles and government documentsconcerning seafood contamination and oil spills and consulted with academicand government experts. Protocols to evaluate seafood safety be<strong>for</strong>e re-openingfisheries have relied on risk assessment of health impacts from polycyclic aromatichydrocarbon (PAH) exposures, but metal contamination may also be a concern. Assumptionsused to determine levels of concern (LOCs) following oil spills have notbeen consistent across risk assessments per<strong>for</strong>med after oil spills. Chemical testingresults after the DH oil spill suggest PAH levels are at or below levels reported afterprevious oil spills, and well below LOCs, even when more conservative parametersare used to estimate risk. We recommend use of a range of plausible risk parametersto set bounds around LOCs, comparisons of post-spill measurements with baselinelevels, and the development and implementation of long-term monitoring strategies<strong>for</strong> metals as well as PAHs and dispersant components. In addition, the methods, results,and uncertainties associated with estimating seafood safety after oil spills shouldbe communicated in a transparent and timely manner, and stakeholders should beactively involved in developing a long-term monitoring strategy.M2-I.2 Golden NJ, Zablotsky-Kufel J, Cole DJ, Hoekstra M, Spires C, MorganK; neal.golden@fsis.usda.govGovernmentEVALUATION OF OUTBREAK DATA AS REPRESENTATIVE OFFOODBORNE SPORADIC ILLNESS DATA FOR THE PURPOSE OFESTIMATING ATTRIBUTIONThis project investigates the representativeness of outbreak illness data <strong>for</strong>making inferences about attribution of particular foods to sporadic foodborne illnesses.Currently, federal agencies use outbreak data from the CDC Foodborne DiseaseOutbreak Surveillance System database to estimate pathogen-specific fractionsof illnesses resulting from consumption of various food products. Nevertheless, thevalidity of this approach hinges on the assumption that the frequency at which specificfoods cause outbreaks is the same frequency at which specific foods cause sporadicillnesses. Because food attribution in<strong>for</strong>mation is not available <strong>for</strong> sporadic illnesses,we cannot directly compare attribution estimates between outbreaks and sporadic illnesses.We can, however, evaluate similarities in the distributions of illnesses reportedin the outbreak and laboratory-based surveillance systems (i.e., FoodNet sporadicillnesses) with respect to serotypes, temporal trends, regional, and seasonal characteristics.The degree to which outbreak and sporadic illnesses behave similarly withrespect to these indirect measures modulates our confidence about the applicabilityof outbreak-derived attribution fractions to sporadic illnesses.W2-F.2 Gong M, Heal G, Krantz D, Kunreuther H, Weber E; mg3030@columbia.eduColumbia UniversityFACILITATING PARETO-OPTIMAL COORDINATION BY SUBSIDIESIN DETERMINISTIC AND STOCHASTIC PAYOFF SETTINGSCan subsidies promote Pareto-optimal coordination? We studied subsidy effectsin coordination games with both stochastic and deterministic payoffs. In the105
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SECOND FLOOR Floor MapConvention Ce