TY - JOUR
T1 - Development of a participatory Green Infrastructure design, visualization and evaluation system in a cloud supported jupyter notebook computing environment
AU - Leonard, Lorne
AU - Miles, Brian
AU - Heidari, Bardia
AU - Lin, Laurence
AU - Castronova, Anthony M.
AU - Minsker, Barbara S
AU - Lee, Jong
AU - Scaife, Charles
AU - Band, Lawrence E.
N1 - Funding Information:
A number of scientists, engineers and other professionals associated with the Baltimore Ecosystem Study, and with stormwater utilities in Baltimore City and County, Portland, OR, Durham, NC, Chicago and Phoenix provided important feedback on conceptual design and initial versions of this software. The research and development were a synthesis of information and methods developed by a set of NSF grants: • Award no. 1331813 Collaborative Research: CyberSEES: Type 2: A New Framework for Crowd-Sourced Green Infrastructure Design, NSF CISE • Awards 1148453 and 1148090, HydroShare: NSF Office of Cyberinfrastructure • Award DEB 1027188, Long-Term Ecological Research program, Baltimore Ecosystem Study. • Award DBI-1639145: SocioEconomic Synthesis Center, support for Water Science Software Institute. • Award no. 1239678 EAGER: Collaborative Research: Interoperability Testbed-Assessing a Layered Architecture for Integration of Existing Capabilities • Award no. 0940841 DataNet Federation Consortium. • Award no. 1148090 Collaborative Research: SI2-SSI: An Interactive Software Infrastructure for Sustaining Collaborative Innovation in the Hydrologic Sciences Appendix A
Publisher Copyright:
© 2018
PY - 2019/1
Y1 - 2019/1
N2 - Land use planners, landscape architects, and water resource managers are using Green Infrastructure (GI) designs in urban environments to promote ecosystem services including mitigation of storm water flooding and water quality degradation. An expanded set of urban sustainability goals also includes increasing carbon sequestration, songbird habitat, reducing urban heat island effects, and improvement of landscape aesthetics. GI is conceptualized to improve water and ecosystem quality by reducing storm water runoff at the source, but when properly designed, may also benefit these expanded goals. With the increasing use of GI in urban contexts, there is an emerging need to facilitate participatory design and scenario evaluation to enable better communication between GI designers and groups impacted by these designs. Major barriers to this type of public participation is the complexity of both parameterizing, operating, visualizing and interpreting results of complex ecohydrological models at various watershed scales that are sufficient to address diverse ecosystem service goals. This paper demonstrates a set of workflows to facilitate rapid and repeatable creation of GI landscape designs which are incorporated into complex models using web applications and services. For this project, we use the RHESSys (Regional Hydro-Ecologic Simulation System) ecohydrologic model to evaluate participatory GI landscape designs generated by stakeholders and decision makers, but note that the workflow could be adapted to a set of other watershed models.
AB - Land use planners, landscape architects, and water resource managers are using Green Infrastructure (GI) designs in urban environments to promote ecosystem services including mitigation of storm water flooding and water quality degradation. An expanded set of urban sustainability goals also includes increasing carbon sequestration, songbird habitat, reducing urban heat island effects, and improvement of landscape aesthetics. GI is conceptualized to improve water and ecosystem quality by reducing storm water runoff at the source, but when properly designed, may also benefit these expanded goals. With the increasing use of GI in urban contexts, there is an emerging need to facilitate participatory design and scenario evaluation to enable better communication between GI designers and groups impacted by these designs. Major barriers to this type of public participation is the complexity of both parameterizing, operating, visualizing and interpreting results of complex ecohydrological models at various watershed scales that are sufficient to address diverse ecosystem service goals. This paper demonstrates a set of workflows to facilitate rapid and repeatable creation of GI landscape designs which are incorporated into complex models using web applications and services. For this project, we use the RHESSys (Regional Hydro-Ecologic Simulation System) ecohydrologic model to evaluate participatory GI landscape designs generated by stakeholders and decision makers, but note that the workflow could be adapted to a set of other watershed models.
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U2 - 10.1016/j.envsoft.2018.10.003
DO - 10.1016/j.envsoft.2018.10.003
M3 - Article
AN - SCOPUS:85056190695
SN - 1364-8152
VL - 111
SP - 121
EP - 133
JO - Environmental Modelling and Software
JF - Environmental Modelling and Software
ER -