Integrating values and risk perceptions into a decision support system
Barbara J. Morehouse A E , Sara O’Brien B , Gary Christopherson C and Peter Johnson D
+ Author Affiliations
- Author Affiliations
A Institute for the Environment, PO Box 210 158, University of Arizona, Tucson, AZ 85721, USA.
B Defenders of Wildlife, 1880 Willamette Falls Rd, #200, West Linn, OR 97068, USA.
C Center for Applied Spatial Analysis, School of Geography and Development, University of Arizona, PO Box 210076, Tucson, AZ 85721, USA.
D City of Tucson, Department of Transportation, 201 North Stone, Tucson, AZ 85701, USA.
E Corresponding author. Email: morehoub@email.arizona.edu
International Journal of Wildland Fire 19(1) 123-136 https://doi.org/10.1071/WF08064
Submitted: 26 April 2008 Accepted: 30 July 2009 Published: 5 February 2010
Abstract
One of the thorniest challenges to effective wildland fire management is integration of public perceptions and values into science-based adaptive management. One promising alternative is incorporation of public values into place-based decision support technologies that are accessible to lay citizens as well as to fire-management experts. A survey of individuals, including residents, fire and fuels managers, volunteer firefighters, and others living in or near four mountain areas of the US Southwest, identified a set of personal values and perceptions about wildland fire risk that could be spatially represented in a geographic information science-based decision support system designed for wildland fire strategic planning efforts. We define values, in this context, as phenomena that are not necessarily quantifiable but that strongly attract and connect individuals for whatever reasons to particular areas. Inclusion of this type of information into interactive decision tools for fire management may contribute to improved understanding and finer-scale spatial visualisation of public perceptions of fire risk. The integration of such factors in decision support tools offers opportunities for improving interactions between managers and the public involved in strategic planning processes for fire management.
Additional keywords: geographic information science model, strategic planning, US Southwest.
Acknowledgements
The research and development activities described in this paper were funded by the US Environmental Protection Agency under its Science to Achieve Results program, grant #GR82873201-0. The work reported in this paper owes much to the graduate research assistants who conducted the interviews, the students associated with the University of Arizona’s Center for Applied Spatial Analysis who digitised the data, to the team of investigators and researchers involved in building FCS-1, and to the staff editor who proofread this paper.
References
Austin DE (1998) Methodology. In ‘Native Americans respond to the transportation of low level radioactive waste to the Nevada test site’. (Ed. D Austin) pp. 8–22. (Bureau of Applied Research in Anthropology: University of Arizona, Tucson)
Austin DE, Halmo DB (2001) The American Indian low-level radioactive waste transportation study. In ‘American Indians and the Nevada test site: a model of research and consultation’. (Eds RW Stoffle, MN Zedeño, DB Halmo) Department of Energy, Report Number DOE/NO/13046-2001/001, pp. 169–179. (US Government Printing Office: Washington, DC)
Bright AD , Burtz RT
(2006) Creating defensible space in the wildland–urban interface: the influence of values on perceptions and behavior. Environmental Management 37(2), 170–185.
| Crossref | GoogleScholarGoogle Scholar | PubMed |
Calkin D, Hyde K, Gebert K, Jones G (2005) Comparing resource values at risk from wildfires with Forest Service fire suppression expenditures: examples from 2003 western Montana wildfire season. USDA Forest Service, Rocky Mountain Research Station, Research Note RMRS-RN-24WWW. (Fort Collins, CO)
Cart J, Gorman T (2002) The nation: hot trend: a home in the woods. Fires: western residents flock to forest living, often disregarding the risks. Widespread drought means tragedy is inevitable. Los Angeles Times, 22 May 2002, section PA, p. A-13.
Clay GR , Daniel TC
(2000) Scenic landscape assessment: the effects of land management jurisdiction on public perception of scenic beauty. Landscape and Urban Planning 49, 1–13.
| Crossref | GoogleScholarGoogle Scholar |
Cohn PJ, Williams DR, Carroll MS (2008) Wildland–urban interface residents’ views on risk. In ‘Wildfire risk: human perceptions and management implications’. (Eds WE Martin, C Raish, B Kent) pp. 23–43. (Resources for the Future: Washington, DC)
Daniel TC (2007) Perceptions of wildfire risk. In ‘People, fire, and forests: a synthesis of wildfire social science’. (Eds TC Daniel, MS Carroll, C Moseley, C Raish) pp. 55–69. (Oregon State University Press: Corvallis, OR)
Daniel TC, Weidemann E, Hines D (2003) Assessing public tradeoffs between fire hazard and scenic beauty in the wildland-urban interface. USDA Forest Service, North Central Research Station, General Technical Report NC-231. (Washington, DC)
Eisenhauer BW, Krannich RS , Blahna DJ
(2000) Attachments to special places on public lands: an analysis of activities, reasons for attachments, and community connections. Society & Natural Resources 13, 421–441.
| Crossref | GoogleScholarGoogle Scholar |
Gardner PD, Cortner HJ, Widaman KF, Stenberg KJ (1985) ‘Forest-user attitudes toward alternative fire management policies.’ (Springer: the Netherlands)
Grunberg W, Dale JC, Haseltine M, Lerman N, Olsson A, Orr B (2004) Web-based map-algebra challenges: a polygon solution. In ‘Proceedings of the 24th annual ESRI international user conference’, 9–10 August 2004, San Diego, CA. Available at http://gis.esri.com/library/userconf/proc04/docs/pap1665.pdf [Verified 15 June 2006]
Harkins KC (2000) The Idaho Panhandle National Forests wildfire hazard-risk assessment. In ‘Proceedings of the Joint Fire Science Conference and Workshop: Crossing the Millenium: Integrating Spatial Technologies and Ecological Principles for a New Age in Fire Management’, 15–17 June 1999, Boise, ID. (Eds LF Neuenschwander, KC Ryan, GE Golberg, JD Greer) pp. 92–100. (University of Idaho: Boise, ID)
Jensen SE
(2006) Policy tools for wildland fire management: principles, incentives, and conflicts. Natural Resources Journal 46(4), 959–1003.
Kocis SM, English DBK, Zarnoch SJ, Arnold R, Warren L (2002) ‘National visitor use monitoring results, August 2002.’ USDA Forest Service Region 3, Coronado National Forest. (Tucson, AZ)
Kocis SM, English DBK, Zarnoch SJ, Arnold R, Warren L, Ruka C (2004) ‘National visitor use monitoring results, June 2004.’ USDA Forest Service Region 3, Santa Fe National Forest. (Santa Fe, NM)
Machlis GE, Kaplan AB, Tuler SP, Bagby KA, McKendry JE (2002) Burning questions: A social science research plan for federal wildland fire management. Report to the National Wildfire Coordinating Group: contribution number 943 of the Idaho Forest, Wildlife and Range Experiment Station, College of Natural Resources. (University of Idaho: Moscow, ID)
McCaffrey S (2008) Understanding public perceptions of wildfire risk. In ‘Wildfire risk: human perceptions and management implications’. (Eds WE Martin, C Raish, B Kent) pp. 11–22. (Resources for the Future: Washington, DC)
Montgomery CA
(1996) Risk and forest policy: Issues and recent trends in the US. Ecological Economics 16, 65–72.
| Crossref | GoogleScholarGoogle Scholar |
Morehouse BJ, Orr BJ (2007) Walking the talk: Integrating science and community into decision support for wildland fire management. In ‘Wildfire risk: human perceptions and management implications’. (Eds WE Martin, C Raish, B Kent) pp. 194–211. (Resources for the Future: Washington, DC)
Morehouse B, Christopherson G, Crimmins M, Orr B, Overpeck J, Swetnam T, Yool S (2006) Modeling interactions among wildland fire, climate and society in the context of climatic variability and change in the southwest US. In ‘Regional climate change and variability: impacts and responses’. (Eds M Ruth, K Donaghy, P Kirshen) pp. 58–78. (Edward Elgar: Cheltenham, UK)
Neupane A, Boxall PC, Pelletier R (2004) Assessing the recreation values at risk from wildfire: an exploratory analysis. Selected paper prepared for presentation at the American Agricultural Economics Association Annual Meeting, 1–4 July 2004, Denver, CO. Available at http://ageconsearch.umn.edu/handle/19986 [Verified 9 January 2010]
Saaty TL (1980) ‘The analytic hierarchy process: Planning, priority setting, and resource allocation.’ (McGraw-Hill: New York)
Saaty TL (1991) ‘Multicriteria decision making: The analytical hierarchy process, extended.’ (RWS Publishers: Berlin)
Saaty TL (2000) ‘Fundamentals of decision making and priority theory with the analytic hierarchy process. Vol. 6.’ (RWS Publications: Pittsburgh)
Shindler B (2007) Public acceptance of wildland fire conditions and fuel reduction practices: challenges for federal forest managers. In ‘People, fire, and forests: a synthesis of wildfire social science’. (Eds TC Daniel, MS Carroll, C Moseley, C Raish) pp. 37–54. (Oregon State University Press: Corvallis, OR)
Slovic P, Finucane ML, Peters E, MacGregor DG (1987) Behavioral decision theory perspectives on protective behavior. In ‘Taking care: understanding and encouraging self-protective behavior’. (Ed. N Weinstein) pp. 14–41. (Cambridge University Press: New York)
Winter G, Vogt CA , McCaffrey S
(2004) Examining social trust in fuels management strategies. Journal of Forestry 102(6), 8–15.
A In this study, we define perceptions as individual awareness and personal understanding of the social and ecological dynamics of wildland fire as well as the risks that may accompany these dynamics. (For a review of perception studies of wildland fire, see
Daniel 2007.) We define values as the not necessarily quantifiable worth, importance, esteem or utility that individuals accord to phenomena, for whatever reason. In our case, these values contribute to social constructions of wildland fire risk.
B AHP overcomes the problem of how to compare variables that are not intrinsically comparable by allowing like variables to be grouped into submodels and weighted within those submodels. Thus, in the case of FCS-1, users can weight the fire probability variables separately from what the Forest Service terms ‘values at risk’ (property value, recreation, animal habitat, and personal landscape values), but at the same time indicate the relative importance of the two submodels for strategic planning purposes. It is this last comparison that integrates the various model components into a single risk map.
C We note here that the values at risk title for this latter submodel emerged from interactions that occurred during early model evaluation meetings attended by fire experts and managers: participants were clearly most comfortable with this term.
D As we noted earlier in this paper, we define values in this context as not necessarily quantifiable phenomena that strongly attract and bind individuals to the areas in question.