Dissertation Annotated Bibliography for..... (Due date - Sunday 28th January)
THE ROLE OF COMMUNITY PARTICIPATION FOR GREEN STORMWATER
INFRASTRUCTURE DEVELOPMENT
A Dissertation
Presented to
the Graduate School of
Clemson University
In Partial Fulfillment
of the Requirements for the Degree
Doctor of Philosophy
Civil Engineering
by
Nicole Barclay
August 2016
Accepted by
Leidy Klotz, Committee Chair
Caitlin Dyckman
Catherine Mobley
David Morgan Young
All rights reserved
INFORMATION TO ALL USERS The quality of this reproduction is dependent upon the quality of the copy submitted.
In the unlikely event that the author did not send a complete manuscript and there are missing pages, these will be noted. Also, if material had to be removed,
a note will indicate the deletion.
All rights reserved.
This work is protected against unauthorized copying under Title 17, United States Code Microform Edition © ProQuest LLC.
ProQuest LLC. 789 East Eisenhower Parkway
P.O. Box 1346 Ann Arbor, MI 48106 - 1346
ProQuest 10152046
Published by ProQuest LLC (2016). Copyright of the Dissertation is held by the Author.
ProQuest Number: 10152046
ii
ABSTRACT
The primary objective of this research is to understand the role of community
participation in green stormwater infrastructure development. Even though the literature
affirms the need for community participation to facilitate its implementation, no study in
the engineering literature examines this idea with an in-depth, descriptive case study. It is
important to understand how technical and non-technical factors interact to promote or
hinder its implementation.
This work uses the qualitative case study methodology to fulfil the objective and
answer the research questions. The case study is based on the Proctor Creek Watershed,
Atlanta Georgia, a rapidly growing urban area located in the southeastern United States.
Data sources include participant interviews, documents, and field notes, which are
analyzed through deductive coding. The deductive codes are informed by this study’s
conceptual framework.
Findings reveal that community participation in this case is embedded in
collaborative partnership efforts. Also, social conditions highly influence the
participation processes by dictating the priorities the community develops during
participation processes. Factors such as funding and political support promote green
stormwater infrastructure implementation more so than community participation.
However, community education addresses the challenge of green stormwater
infrastructure perspectives; hence community education plays a role in implementation.
These findings affirm existing literature adding to the development of current theories.
iii
DEDICATION
I dedicate this work to my parents, Mervyn and Desarie Barclay. They provided
constant love, support and encouragement throughout my formal education, especially at
this last stage. I believe that my mother’s constant prayers and my father’s unwavering
confidence in me gave me the determination I needed to complete my Ph.D.
iv
ACKNOWLEDGMENTS
Above of all, I thank God who is faithful and has continually given me grace and
strength throughout all my endeavors.
I am sincerely grateful for my advisor, Dr. Leidy Klotz. He invested in me from
my time as an undergraduate student and continued throughout my four years as a
graduate student. I am especially grateful for the opportunities Dr. Klotz gave me to
develop as a teacher. Thanks to all my committee members Dr. David Morgan Young,
Dr. Catherine Mobley and Dr. Caitlin Dyckman, for their expert advice and guidance
throughout this study. I am appreciative of the time they all took to serve on my
committee. I am particularly thankful for Dr. Denise Simmons, my longest academic
mentor and a constant inspiration to me.
Thanks to all the interview participants for sharing their time, insights, knowledge
and experiences to inform my study.
I am blessed to have an incredible family. Despite the distance, my parents and
my sisters, Renee Barclay-Rochester and Kezia Barclay are always just a phone call away
for refreshing, encouraging and fun conversations.
v
TABLE OF CONTENTS
Page
TITLE PAGE .................................................................................................................... i
ABSTRACT ..................................................................................................................... ii
DEDICATION ................................................................................................................ iii
ACKNOWLEDGMENTS .............................................................................................. iv
LIST OF TABLES ......................................................................................................... vii
LIST OF FIGURES ...................................................................................................... viii
CHAPTER
I. INTRODUCTION ......................................................................................... 1
Background .............................................................................................. 1
Problem Statement ................................................................................... 3
Research Objective and Questions........................................................... 4
Significance of Research.......................................................................... 5
Definition of Terms.................................................................................. 6
Research Area .......................................................................................... 7
Case Study Selection.............................................................................. 13
Outline of Dissertation ........................................................................... 14
II. LITERATURE REVIEW AND CONCEPTUAL FRAMEWORK ............ 16
Introduction ............................................................................................ 16
Stormwater Infrastructure ...................................................................... 16
Benefits of Using Green stormwater infrastructure ............................... 18
Green Stormwater Infrastructure Implementation Challenges .............. 20
Community Participation in Infrastructure Projects .............................. 20
Advantages and Disadvantages of Community Participation ................ 21
Defining Community Participation ........................................................ 22
Levels of Participation and Mechanisms ............................................... 24
Green stormwater infrastructure and Community Participation ............ 26
Conceptual Framework .......................................................................... 28
Process of Developing the Conceptual Framework ............................... 29
Framework Description ......................................................................... 33
vi
Chapter Summary .................................................................................. 44
III. CASE STUDY METHODOLOGY ............................................................. 45
Introduction and Overview .................................................................... 45
Considerations for Choosing the Case Study Methodology .................. 46
Choice of Methodology ......................................................................... 47
Overview of Case Study Methodology .................................................. 48
Data Collection Methods ....................................................................... 50
Data Analysis and Synthesis .................................................................. 55
Validity and Reliability .......................................................................... 56
Research Limitations ............................................................................. 57
Chapter Summary .................................................................................. 59
IV. CONTEXT FINDINGS AND DISCUSSION ............................................. 60
Introduction ............................................................................................ 60
Context Description ............................................................................... 60
Chapter Summary .................................................................................. 69
V. PROCESS, OUTPUT, AND IMPLEMENTATION
FINDINGS AND DISCUSSION ........................................................... 70
Introduction ............................................................................................ 70
Process Description ................................................................................ 71
Output Description ................................................................................. 94
Implementation Description................................................................... 97
Summary of Findings and Discussion ................................................. 103
VI. CONCLUSION .......................................................................................... 106
Research Contributions ........................................................................ 106
Implications of Findings ...................................................................... 108
Recommendations for Future Research ............................................... 109
APPENDICES ............................................................................................................. 111
A: Informed Consent....................................................................................... 111
B: Interview Protocol ...................................................................................... 113
C: List of Documents ...................................................................................... 116
D: Codebook ................................................................................................... 118
E: Data Reference Counts .............................................................................. 119
Page
Table of Contents (Continued)
vii
REFERENCES ............................................................................................................ 121
Page
Table of Contents (Continued)
viii
LIST OF TABLES
Table Page
2.1 Stages of Implementation ............................................................................ 40
3.1 Interviewees represent a range of stakeholders ........................................... 52
5.1 Discrete community participation processes
for green stormwater infrastructure ....................................................... 72
5.2 Green stormwater infrastructure forums and conference details ................. 82
7.1 Reference counts for coded data ................................................................ 119
ix
LIST OF FIGURES
Figure Page
1.1 Topographic map of Proctor Creek Watershed ............................................. 7
2.1 Increasing impacts of participation .............................................................. 25
2.2 A conceptual framework for collaborative
watershed management .......................................................................... 31
2.3 The interacting themes and attributes for the
the case study ......................................................................................... 42
5.1 Timeline of process events described in this
study ....................................................................................................... 73
1
CHAPTER ONE
INTRODUCTION
Background
Growing population combined with rapid worldwide urbanization, both projected
to continue significant increase in the future (United Nations, 2014) undoubtedly strains
aging and deteriorating urban infrastructure, if that infrastructure exists in the first place.
Urban population increases and expanding city limits add more square miles of
impervious surfaces highlighting the need for more upgraded stormwater infrastructure
systems. Surfaces such as roads, parking lots and building roofs all contribute to the
alteration of natural water flows resulting in higher water runoff quantity and impaired
runoff quality entering waterways. There is a clear relationship between progressive
urbanization of a watershed and increased risk of flooding (Nirupama & Simonovic,
2007; Saghafian et al, 2007). Stormwater pollution poses additional challenges as
stormwater runoff becomes a water pollutant when it picks up physical, chemical and
biological pollutants before entering waterways (Goonetilleke et al, 2005). Climate
change impacts exacerbate these problems associated with urbanization since more
frequent and more intense storm events are occurring and expected to continue.
Stormwater management ̶ controlling stormwater runoff quality and quantity with
structural and non-structural measures (Marsalek & Chocat, 2002) ̶ requires large and
constant investments to maintain (Niemczynowicz, 1999). In cities across the US, the
2
capacity of current stormwater management systems need to be adapted to meet the
demands necessary to sustain good health and quality of life. The capital investment
necessary for adapting these systems is well into billions for the next fifty years
(Neumann et al., 2014). For example, the city of Atlanta faces startling pecuniary
repercussions if they do not address storm water management in the near future. Costs for
adaptations of urban drainage could exceed 10 million dollars per year until 2050. To
combat the problem of combined sewer overflows that occur when there is excessive
flow into sewer systems after heavy rainfall events, the U.S. Environmental Protection
Agency (EPA) instituted consent decrees to eliminate combined sewer systems
throughout the U.S. This requires billions of dollars in investment for new pipes and
equipment alone (ASCE, 2013). A U.S. EPA report (2008) specified that $63.6 billion is
needed for combined sewer overflow correction and $42.3 billion for stormwater
management. The $42.3 billion stormwater management national costs considers
conveyance infrastructure, treatment systems, green stormwater infrastructure and
general stormwater management (U.S. EPA, 2008).
There is a disparity of stormwater management strategies and development at an
international level; nevertheless, all countries recognize stormwater management as an
important environmental issue (Marsalek & Chocat, 2002). Countries such as Australia,
Canada and Sweden, are among the most advanced in sustainable stormwater
management practices and research. For example, Swedish communities practiced
reusing stormwater in news homes as early as 1990s (Niemczynowicz, 1999). In contrast,
urban areas of developing countries experience stormwater management problems due to
3
unplanned development and lack of drainage construction (Butler & Parkinson, 1997;
Parkinson & Mark, 2005). Flooding in these areas tends to result in water borne and
vector disease outbreaks due to unsanitary conditions.
Urban stormwater management affects the lives of all who reside in urban areas,
and necessitates the interaction of technology for infrastructure, environmental policies
and public participation. As such, there is a recognized need that its success depends on
public engagement through support and participation (Marsalek & Chocat, 2002).
Problem Statement
Considering the need for capital investment in stormwater infrastructure, urban
communities across the U.S. are seeking to invest in green stormwater infrastructure as a
way to reduce overflows from stormwater and sewer discharges (U.S. EPA, 2008). Green
stormwater infrastructure acts as a supplement to traditional stormwater systems,
addressing runoff quantity and quality at its source, thus reducing and treating the volume
of runoff before it enters traditional systems.
As an emerging technology, several challenges exist as barriers to its
implementation, and one such problem is “engendering meaningful participation from
multiple stakeholders” (Montalto et al., 2012 p. 1190). By its very nature, green
stormwater infrastructure facilitates engagement from a wider range of stakeholders than
traditional stormwater infrastructure. And therefore presents an opportunity to capitalize
on coordinating participation for project success. In particular, the community is a
4
stakeholder group that directly experiences the impact of the infrastructure, or lack
thereof, as it pertains to their quality of life. Thus, it is worth pursuing in a more guided
structure, how community participation plays a role in green stormwater infrastructure
planning and implementation.
Research Objectives
The purpose of conducting the case study is to convey a comprehensive
understanding of community participation in decisions for green stormwater
infrastructure. As such, the primary objective of this research is to study the context,
community participation processes, outputs, and implementation for green stormwater
infrastructure within the bounds of the selected case, Proctor Creek Watershed in Atlanta
Georgia.
To investigate the objectives, this research is guided by the following questions:
1. How do community participation mechanisms facilitate decisions for green
stormwater infrastructure?
2. How do context features and community participation processes influence
implementation of green stormwater infrastructure solutions?
To answer the research questions, this study applies the qualitative case study
methodology to gain an understanding of the role of community participation processes
in green stormwater infrastructure planning and implementation. The case is a single
study which employs participant interviews and document review. The data analysis is
5
done by deductive coding, using the attributes in the conceptual framework as a priori
codes.
Significance of Study
Researchers recommend that public participation be incorporated into planning
and implementation for stormwater systems (Marsalek & Chocat, 2002; Parkinson, 2003;
Rauch et al, 2005; Ryan & Brown, 2001). The U.S. EPA (2010) compiled several case
studies that examine green infrastructure implementation for stormwater management.
However, no study in the engineering literature examines the role of community
participation in green stormwater infrastructure development. As green stormwater
infrastructure progresses, it is important to understand the factors, both technical and non-
technical, that interact to promote or hinder its implementation. Community participation
is a non-technical process that can complement or hinder technical processes of planning,
design and implementation (Beierle & Cayford, 2002; Priscoli, 2004). Thus, a deeper
understanding of its reality for stormwater management can enhance and advance the
latter processes. The case study in this work presents a representative case, as cities
across the U.S. are increasingly incorporating public participation into green stormwater
infrastructure development. Insights uncovered from this research can be transferred to
subsequent cases.
6
Definitions of Terms
For the purpose of this study, community participation is defined as a process
whereby the beneficiary – the community, influences decisions for project development
that help to enhance their quality of life (Arnstein, 1969; Paul, 1987; Sanoff, 2000). More
specifically, the community refers to those who reside in the neighborhoods described in
the study. Participation, in its most fundamental definition, according to the Merriam-
Webster dictionary, is the action of taking part in something. The words “participation”
and “engagement” are synonymous. This offers some explanation as to why the terms
community participation and community engagement are sometimes interchanged.
Though synonymous, their subtle differences must be recognized. Participation, the term
used for this research, differs from engagement in that engagement suggests a more
active role and active involvement in the participation process. A community member
can participate without actually being engaged. Engagement therefore is a higher level of
participation.
For the scope of this research, green stormwater infrastructure refers to
engineered stormwater management systems designed to mimic natural hydrological
processes (US EPA, 2014). These systems encourage infiltration, evapotranspiration,
reuse, and storage of stormwater at its source, to reduce flows into traditional stormwater
infrastructure systems.
7
Research Area
The focus area for this case study is the Proctor Creek Watershed, located in
metropolitan Atlanta, Georgia, one of the fastest growing regions in the United States.
Atlanta is situated in the southeast United States, along the rapidly developing I-85
corridor. Figure 1.1 shows a topographic map of the watershed area, including its streams
and tributaries. There is approximately 34% impervious cover, representing a highly
urbanized watershed.
Figure 1.1: Topographic Map of Proctor Creek Watershed (Source: ProctorMap.org)
Chattahoochee
River Proctor Creek
Watershed
boundary
Proctor Creek
8
This study’s interviewees and documents reveal that several areas within the
watershed’s neighborhoods are plagued with impaired water quality, flooding, combined
sewer overflows, and other environmental and public health problems. The recurring
flooding problem is attributed to increasing development downtown Atlanta and the
inadequacy of existing, aging infrastructure to manage stormwater runoff quantity and
quality. According to documents reviewed for this case, the recurring flooding issue
contributes to further problems such as an increased number of abandoned properties due
to mold and mildew, and concerns for public health from polluted flood water.
Even though the city of Atlanta worked towards separating combined sewer
systems under a consent decree, there are still problems of sewer spills in the area after
heavy rainfall events. Proctor Creek is a nine mile long channel that flows into the
Chattahoochee River (Figure 1.1). Hence, activities in Proctor Creek influence water
quality and other ecological conditions beyond its watershed boundaries.
There are continuous efforts to restore the creek’s ecology in collaboration with
the community. The Chattahoochee River Keeper, a nonprofit organization that works to
protect the Chattahoochee and its tributaries like Proctor Creek, keeps updated public
data on E.coli levels, turbidity, rainfall, and specific conductivity. In addition to this
water quality data, there is water quantity data available to the public easily accessible
through the Proctor Creek Stewardship Council’s website. The group uses the data to
hold the City of Atlanta Watershed Department accountable for any sewer spills into the
creek. They work alongside the community and community nonprofit organizations to
9
train citizen scientists who collect data at organized community events. Also, they share
the results with the public to inform community members and to give them the needed
data to advocate to their elected officials for necessary changes.
In October 2015, the City of Atlanta and the U.S. Army Corps of Engineers
partnered to conduct a three year, three million dollar feasibility study for ecological
restoration in Proctor Creek. In a speech by Atlanta’s mayor Kasim Reed, he mentioned
that “this study will survey the water quality, overall environmental quality and flood-
damage risk reduction of the Proctor Creek watershed.” One of the first community
outreach events related to this study was a meeting conducted by the Mobile District of
the U.S. Army Corps of Engineers through the Proctor Creek Stewardship Council.
Representatives informed community residents and other stakeholders about the study,
and then consulted with them for information on the challenges, problems and
opportunities in the area.
The community
The population within the 16 square mile watershed is approximately 52,000
spread out in 35 neighborhoods. In this study, particular focus is given to the English
Avenue, Vine City and Atlanta University Center neighborhoods (encircled in yellow on
Figure 1.1). These areas lie within the Proctor Creek - North Avenue watershed sub-
basin. Vine City and English Avenue are immediately downstream of Atlanta University
Center, and receive its runoff. These areas, and other neighborhoods in the watershed, are
targeted for green stormwater infrastructure projects.
10
Vine City has a population of 1,499 and English Avenue has a population of
2,707 residents. The neighborhoods have pre-dominantly African-American residents –
87.7% according to the 2010 U.S. Census. Atlanta University Center is an area consisting
of four Historically Black Universities including Spelman University, Morehouse
University, Morehouse School of Medicine and Clark Atlanta University.
Vine City and English Avenue, have several socioeconomic challenges especially
when compared to the City of Atlanta as a whole. These two neighborhoods lie within a
single Neighborhood Planning Unit L (NPU L), citizen advisory councils grouped by
neighborhoods. Data compiled by Neighborhood Nexus, a regional information system,
uses data from the American Community Survey, to group and display data on economic
and education data. The data that compares for NPU L and the City of Atlanta with
respect to employment rates, income levels and education levels is explained here to give
the case its socioeconomic context.
The percentage of individuals in poverty in NPU L is 46.4% compared to 24.2%
in the City of Atlanta aggregated neighborhoods. The income per capita in NPU L is
$11,989 compared to $35,058 in the city of Atlanta. Median household income is $21,
844 compared to $52,082 in the city of Atlanta. With respect to education, 21% of the
population in NPU L has no high school diploma compared to 12.6% in the City of
Atlanta. Also, the percentage with a bachelor’s degree is 24.8% compared to 46.4% in the
City of Atlanta.
11
Government-Institutional Settings
All levels of government – federal, state and local are actively and directly
involved in collaborations and participation processes concerning Proctor Creek
watershed. On the federal level, there is the Urban Waters Federal Partnership including
ten federal agencies, led by the U.S. Environmental Protection Agency. The partnership
also includes twenty eight non-governmental organization and association partners. The
goal of the partnership is to work alongside community-led efforts for Proctor Creek’s
restoration and revitalization. The partnership provides resources and funding for
capacity building and community participation processes in line with its goal. A fact
sheet about the partnership published by the US EPA (2014a) reports that it aims to:
Break down federal program silos to promote more efficient and effective use
of federal resources through better coordination and targeting of federal
investments.
Recognize and build on local efforts and leadership, by engaging and serving
community partners.
Work with local officials and effective community-based organizations to
leverage area resources and stimulate local economies to create local jobs.
Learn from early and visible victories to fuel long-term action.
The partnership led and continues to lead several projects, including a Green
Infrastructure Technical Assistance project where the City of Atlanta received fifty
thousand dollars “to help expand its use of green stormwater infrastructure into
12
stormwater management programs.” The current outcome is a conceptual design of a
green stormwater infrastructure project completed by the city.
Additionally, the City of Atlanta – Atlanta Watershed Department initiated an
ordinance in 2013 that requires new development and redevelopment projects to
implement green stormwater infrastructure on site. While green stormwater infrastructure
is increasing throughout Atlanta because of the ordinance, the ordinance has had much
less impact in the Proctor Creek area, due to lack of development there.
Environmental Justice
Organizations and agencies that participate in Proctor Creek projects are grounded
in the environmental justice theme. The Urban Waters Federal Partnership program
began its work with Proctor Creek after identifying it as an environmental justice
community. The EPA Region IV’s Office of Sustainability and Environmental Justice is
involved with Proctor Creek projects and worked directly on capacity building efforts.
One of the community’s leading activist organizations, Community Improvement
Association, is a community environmental justice organization. West Atlanta Watershed
Alliance is a watershed partnership initially formed to address environmental injustices in
West Atlanta watersheds, including Proctor Creek watershed. One of Proctor Creek
Stewardship Council’s underlying values is environmental justice as the organization
aims to empower stewards. These groups spur activism among community residents to
work together to fight against the injustices that they experienced for decades.
13
Combined sewers directed the flow of sewage and stormwater from the upstream
downtown area into Proctor Creek waterways. While it is natural that water flows to
lower elevations, poorer communities downhill received the sewage and stormwater from
more affluent upstream communities. The problem intensified as development continued,
making the lower income communities bear a disproportional burden for wastewater and
stormwater that did not originate from the area. In the early 1990’s the city built
combined sewer facilities low-lying Proctor Creek neighborhoods to address sewage
overflows in the creek after heavy rainfall. Even though these facilities are designed and
operate to control sewer spills by temporarily storing excess stormwater then releasing
back into the waterways, it was not a wanted technology in the area.
Case study selection
Considering features of the case context previously described, the Proctor Creek
watershed case is particularly useful to study the research questions. The case
characteristics including urban growth, the ecological conditions, the flooding issue, the
socio-economic conditions, and government-institutional context contribute to its
suitability for study.
Firstly, as one of the fastest growing metropolitan areas in the U.S., Atlanta’s
impervious cover is increasing. As such, there is a need for increased stormwater
infrastructure maintenance and implementation. Additionally, the ecological conditions
call for a greater emphasis on infrastructure that helps to improve water quality within the
14
watershed boundaries and beyond it. The current push for green stormwater infrastructure
implementation in the City of Atlanta is supported by both government and non-
governmental organizations, which recognize community participation as an integral
component to the development process. Socio-economic conditions in the watershed,
which are tied to its issues of environmental injustice, support the priority for community
participation while shaping the features of participation process that occurs. The
intersection of green stormwater infrastructure development and prioritized community
participation is a prime opportunity to study the phenomenon as it occurs in reality.
Lastly, the proximity of the case study location allowed the researcher to conduct field
visits during the time of study.
Outline of Dissertation
This dissertation is organized into six chapters. Chapter 1 introduces the
background of the study, the research problem, the research objective and associated and
need for the research, along with the research objectives and questions. Also, the research
area is described in this chapter to give context to this research. Chapter 2 gives a review
of the literature in urban stormwater management and community participation, followed
by this work’s conceptual framework. The conceptual framework is developed to guide
the research for the single case study. Chapter 3 describes the case study methodology,
data analysis techniques and the study limitations. Chapter 4 presents the context findings
and discussion. Chapter 5 continues with descriptions of the process, output and
15
implementation findings and discussions. Chapter 6 concludes this work with the
research contributions, implications of the findings, and recommendations for future
research.
16
CHAPTER TWO
LITERTURE REVIEW AND CONCEPTUAL FRAMEWORK
Introduction
This chapter begins with a review of traditional and green stormwater
infrastructure controls, and then continues its framing within the context of community
participation. The review shows the opportunity to investigate community participation
for green stormwater infrastructure development. The chapter advances with the
conceptual framework for this study that is shaped primarily by the existing literature in
public participation in environmental decision making and collaborative watershed
management.
Stormwater Infrastructure
Traditional infrastructure for stormwater management focus on water capacity
and conveyance (Kloss, 2008). Despite the efficiency of these when designed well, the
adverse effects of urban stormwater can be intensified by traditional stormwater
infrastructure systems which often convey runoff directly to streams and rivers (Roy et
al., 2008). This physical infrastructure consists of centralized networks of pipes with the
main purpose to convey stormwater off site as quickly as possible. In some cities, these
pipe networks are thousands of miles long and usually are combined sewers or storm
sewers channels. Storage infrastructure holds the water and releases it slowly into
waterways, sometimes untreated. These engineered systems were usually the result of
17
decisions made by engineers themselves without collaboration from the public and other
indirect stakeholders, especially since they are highly technical, underground systems.
In contrast with more conventional infrastructure, green infrastructure is a general
term for decentralized stormwater management approaches that use low impact
development measures by incorporating elements of the hydrological cycle. These
elements include interception, evapotranspiration, infiltration, filtration and conveyance,
detention, retention and reuse (Kloss, 2008) to treat runoff quality and quantity at the
source. Low impact development is an engineering design approach that mimics the pre-
development hydrological function of the land (Dietz, 2007).
The meaning of green infrastructure varies with context (Benedict & McMahon,
2006) and scale. The term “green infrastructure” is an umbrella term that includes a range
of strategies that can be applied on different scales throughout a watershed for overall
management. Scales include the city scale or regional scale, and the neighborhood or site
scale. At a city or regional scale, green infrastructure is a network of undeveloped natural
areas that provides environmental benefits such as flood protection, cleaner water,
cleaner air, and biodiversity maintenance (US EPA, 2014). Land conservation efforts
exemplify this idea–natural areas around urban areas can serve not only environmental
protection, but recreational use as well (US EPA, 2014). At the neighborhood or site
scale, green infrastructure refers to stormwater management systems that allow
infiltration and storage of runoff at its source (US EPA, 2014). At this scale, the term
“green stormwater infrastructure” can be used, and is employed for the scope of this
18
research. Examples at this scale include rainwater harvesting where water is collected and
stored for use, raingardens, permeable pavements, green roofs and bioswales.
No matter the scale of use and implementation, for best performance of a
stormwater system in an urban watershed, there needs to be widespread implementation
of green infrastructure (Montalto et al., 2012). Best management practices for stormwater
management encourage increased use of green stormwater infrastructure measures to
supplement traditional infrastructure. These best management practices are being adopted
in cities across the U.S. to combat the problem of combined sewer overflows.
Benefits of Using Green stormwater infrastructure
In 2009, the city of Philadelphia Watershed Department conducted a study to
understand the triple bottom line benefit of options between traditional and green
stormwater infrastructure to control CSO events. The study, and subsequent real-world
projects, illustrated that using green stormwater infrastructure approaches gave way to
social, environmental, and economic benefits that traditional infrastructure could not
provide (Stratus Consulting Inc., 2009). Some environmental benefits of green
stormwater infrastructure include flood protection, reduction in sewer overflow events,
and efficient land use. An example of a social benefit is enhanced livability through
attractive streetscapes. Lastly, some economic benefits include increases in land value,
reduction in the cost of traditional infrastructure, and encouragement of economic
development (U.S. EPA, 2010).
19
Twelve cases on green infrastructure compiled and analyzed by the U.S. EPA
(2010) revealed some common policies used to advance implementation. These included
stormwater regulation, stormwater fees, demonstration and pilot projects, and review and
revise local codes. The motivation for these was not only stormwater management
innovation, but the benefits that green infrastructure provided. In addition, it adds value
through its provision of direct experience with natural ecosystems, physical recreation,
environmental education, and opportunities for social interaction (Ahern, 2007). For
example, the Baldwin Park Community in Orlando, Florida uses an underground
stormwater system that is integrated with restored wetlands. It has aesthetic and
recreational benefits in addition to enhanced water quality benefits (WERF, 2009).
Cities are increasingly including green stormwater infrastructure in their
stormwater management plans to capture and reuse stormwater as the benefits are
continually being recognized (U.S. EPA, 2008). Reusing stormwater is already explored
and implemented in other developed countries such as Australia, and now increasingly in
the U.S. to help lessen the demand on water supply systems. For instance, collected water
is reused for irrigation and other non-potable uses. Additionally, stormwater utilities
recognize that green stormwater infrastructure can be incorporated into stormwater
management plans to help address regulations, requirements and ordinances (Kloss,
2008), and at the same time reduce costs on stormwater infrastructure. Since green
stormwater infrastructure measures are often less costly than traditional controls,
combining both methods can reduce overall cost of the infrastructure system while
addressing problems such as flooding and combined sewer overflows (US EPA, 2014b).
20
Green Stormwater Infrastructure Implementation Challenges
Even though the body of knowledge on best management practices and the design
of green stormwater infrastructure increased significantly over the last decade, there are
several difficulties with its implementation. Some barriers include insufficient
engineering standards and guidelines, lack of institutional capacity, limitation of funding
and resistance to change (Keeley et al., 2013; Roy et al., 2008). For example, financial
issues can be addressed in part by the addition of fee acceptance or increase, but this may
be unfeasible in some cases (Keeley et al., 2013). Local municipalities lack data on the
technology’s performance and are more resistant to adopting the technology.
These problems are progressively addressed with current research and practice.
For instance, to address resistance to change, one solution Roy et al. (2008) gives is to
educate and engage the community. Several cities across the U.S., such as Philadelphia
and New York City, make engagement and education an integral part of watershed
planning efforts to advance green stormwater infrastructure.
Community Participation in Infrastructure Projects
As the community participation literature emerged in the latter half of the
twentieth century, development projects in both the developing and developed world
emphasized the community participation concept. While the Western-funded projects in
developing nations emphasized community participation in urban housing, health, and
population (Paul, 1987), so too did public projects in the West. U.S. federal agencies such
as the Environmental Protection Agency, the U.S. Army Corps of Engineers, and the
21
Federal Highway Administration encouraged community participation and engagement
by incorporating it into project planning. Despite the emphasis, the amount of community
participation actually practiced effectively was very much debatable.
Community participation is increasingly recognized as a way to incorporate
sustainability into infrastructure projects (Flora, 2004). For example, the Envision rating
system ̶ a sustainability assessment framework for infrastructure ̶ evaluates project
leadership through rewarding collaboration and provision for stakeholder involvement
among other factors. The community is one such stakeholder group. The concept of
community participation relates to social sustainability as it considers the interaction of
society and infrastructure for long term benefits.
Advantages and Disadvantages of Community Participation
The literature affirms the advantages of public participation (Creighton, 2005;
Duram & Brown, 1999; Forester, 2006; Reed, 2008). Benefits associated with public
participation include better informed decisions, increased acceptance of decisions, social
learning, and enhanced democracy (Mostert, 2003). Additionally, the process builds
social capital, generates increased levels of trust, increases ownership and generates
information and understanding (Brody, Godschalk, & Burby, 2003; Burby, 2003).
The public is a source of information that can contribute to quality decisions
through possibly influencing more “technically rigorous” decisions that satisfy a broader
range of interests (Beierle, 1999 p. 84). This can be attributed to participants contributing
local knowledge, which can “include information pertaining to local contexts or settings,
22
including knowledge of specific characteristics, circumstances, events, and relationships,
as well as important understandings of their meaning” (Corburn, 2003 p. 421). Brody,
Godschalk, & Burby (2003) believe meaningful involvement comes about through
inserting this local community knowledge early in the planning process.
On the other hand, problems such as inadequate and unrepresentative response,
inconsistent decision making, costs and time plague the participation process (Luyet,
Schlaepfer, Parlange, & Buttler, 2012; Mostert, 2003; Reed, 2008). Also, poor quality of
community input fails to reflect community needs accurately (Arnstein, 1969).
Concerning inadequate and unrepresentative response, Laurian (2004) identified that
sociodemographic factors, such as lower household incomes, decreased the likelihood of
participation; whereas individual motivation, distrust in public agencies, integration in
local social networks, increased the likelihood of participation. In addition, citizens are
likely to participate in a collaborative process if they believe that the process can help to
enhance quality of life for the public (Samuelson et al., 2005).
Defining Community Participation
Though widely studied, the literature does not converge on a single definition of
participation. Several definitions exist (Creighton, 2005; IAP2, 2014; Innes & Booher,
2004) and each depends on the context it is used in and the decision making processes
(Luyet et al., 2012).
Arnstein (1969 p. 216) associates the term citizen participation with citizen
power. Participation involves deliberately including the “have-not citizens” in influencing
23
future outcomes that affect them, thereby allowing power that they would not usually
have. Within the context of infrastructure development in developing communities, (Paul,
1987 p. 2) defines community participation as “an active process by which the
beneficiary/client groups influence the direction and execution of a development project
with a view to enhancing their well-being in terms of income, personal growth, self-
reliance or other values they wish to cherish.” He describes the objectives of community
participation to include empowerment, capacity building, increased project effectiveness,
project cost sharing and improvement of project efficiency.
According to (Sanoff, 2000) community participation is “direct public
involvement in decision-making processes whereby people share in social decisions that
determine the quality and direction of their lives.” He also continues with the main
purposes of participation (p. 9):
To involve people in design decision making processes and as a result,
increase their trust and confidence in organizations, making it more likely that
they will accept decisions and plans and work within the established systems
when seeking solutions to problems.
To provide people with a voice in design and decision making in order to
improve plans, decisions, and service delivery.
To promote a sense of community by bringing people together who share
common goals.
Innes & Booher (2004) introduce the term “collaborative participation” as a new
framing on public participation that goes beyond traditional participation methods. While
24
traditional participation still has its place, collaborative participation takes on a multiple
interactions among stakeholders rather than the traditional two-way interaction between
citizens and government (Innes & Booher, 2004). The authors state that participation has
several purposes, including leveraging local knowledge and impartiality; however, it is
mostly observed because it is required by law in some settings.
Levels of Participation and Mechanisms
There are several known mechanisms to facilitate community participation. These
include visioning, charrettes, community action planning, participatory action research,
workshops, and strategic planning (Sanoff, 2000). These methods can be chosen to adapt
to the community, the issue to be addressed, and the facilitator’s experience. A survey of
public managers' perceptions about public participation found that cities commonly use
traditional forms of participation such as public hearings, citizen advisory boards, and
community or neighborhood meetings (Wang, 2001) which are significantly effective for
meeting various dimensions of participation. However, theoretical definitions of
participation are achieved through a limited number of participation methods in practice
(Beierle, 1999).
Different levels of participation are appropriate for different stages and types of
projects. Nonetheless, there is more impact for beneficiaries from participation the higher
the level of participation. The levels of participation as described by the International
Association for Public Participation (IAP2) are shown in the diagram below (Figure 2.1).
25
From left to right in Figure 2.1 there is increasing impacts of participation. Thus, there is
most impact when the public is empowered with decision making.
Figure 2.1: Increasing Impacts of Participation (adapted from the International
Association for Public Participation, Public Participation Spectrum (IAP2, 2014))
Informing the public is the base level of participation where the public is simply
given information about the proposed project (IAP2, 2014). Examples of mechanisms for
public participation at this level include the media, brochures, the internet, public
meetings and hearings (Beierle & Cayford, 2002; Mostert, 2003). Consulting occurs
when there is an exchange of giving information to the public and receiving feedback to
be considered (IAP2, 2014). Examples of mechanisms include public meetings,
interviews and internet discussions (Mostert, 2003). The informed and consulted
participants are less powerless to change any course of action that may affect them.
Involving the public establishes a level of understanding of their concerns and
contributions. Collaboration involves the public in every aspect of the decision making
process. This approach builds consensus among stakeholders and the public for complex
problems (Margerum, 2011). Lastly, empowerment is giving the public the opportunity to
26
make the final decisions. Involving, collaborating with and empowering the public can be
done through small group meetings such as design charrettes and workshops (Mostert,
2003), and interacting with key persons (Samuelson et al., 2005).
Following the theoretical definition of participation, meaningful participation
truly occurs at higher levels of participation, especially since this is when benefits of
public participation can be recognized (Mostert, 2003). Base levels of participation are
sometimes considered to be non-genuine forms of participation (Arnstein, 1969).
According to the goals of the participation process, informing the public is the essential
foundation of participation but should only build from there, not end there.
Results of a survey by (Wang, 2001) found significant influence of participation
in decision making for consensus building and identifying and assessing public needs, but
still participation is very limited in decision making. This limitation shows the lack of
depth in the participatory process which may undercut some of the purposes and
advances it tries to achieve.
Green Stormwater Infrastructure and Community Participation
Public participation is particularly important in decision making for water and
environmental issues (Beierle, 1999; Priscoli, 2004) and can lead to more sustainable
water management (Mostert, 2003). Beierle (1999) recognizes that differing perspectives
between the public and experts can be complementary in decision making. Nonetheless,
for participation to be effective in water and environmental issues, other aspects of
27
decision making such as technical and scientific contexts must be in proper balance with
participation (Beierle, 1999).
Priscoli (2004) describes public participation in water management as an ethical
issue of informed consent; it occurs when solutions are not simply given by engineers,
but facilitated by them, with collaboration from the public. This interaction constitutes
meaningful participation; public participants experience the “burdens” of making choices
as opposed to simply being the recipient of decisions (Priscoli, 2004). Thus, meaningful
participation can only begin when participants understand their part in the process, the
goals to be accomplished, and how they can contribute.
Green stormwater infrastructure is a decentralized approach to stormwater
management within a watershed, whereas traditional stormwater infrastructure is
centralized. With the shift to complement centralized systems with more decentralized
systems, there is also a parallel with the disciplines involved with stormwater
management. It is no longer solely the engineer’s job to deal with these issues, but it is
now an interdisciplinary field involving technical experts such as ecologists, soil
scientists, planners, designers, hydrologists and engineers (Randolph, 2012), members of
the public, governmental and non-governmental groups. This necessitates collaboration
among these groups; and collaboration underpins principles of public participation
processes. Sabatier et al. (2005) recognizes that decision making for watershed
management is now collaborative, where problem solving is approached by diverse
stakeholders to build consensus and produce results (Margerum, 2011).
28
Public participation has been widely studied for water resources management and
collaborative watershed management (Benson et al, 2014; Koehler & Koontz, 2007;
Leach, Pelkey, & Sabatier, 2002; Samuelson et al., 2005; Webler & Tuler, 2001). Green
stormwater infrastructure lays at the intersection of these fields, yet participation in its
project development and implementation has not been investigated in the literature.
Countries like Germany and Australia are more advanced in urban stormwater
management than the U.S. and have considered the integrated approaches and public
involvement for storm drainage and runoff quality (Rauch et al., 2005; Ryan & Brown,
2001). Now, cities like Philadelphia and New York City continue to highlight the need
for community involvement for stormwater management. As such, this development
necessitates a deeper understanding of the interaction between participation and green
stormwater infrastructure development. The connection between participation and
infrastructure decisions should be more apparent as green stormwater infrastructure
becomes more prevalent in urban areas across the U.S.
Conceptual Framework
The conceptual framework continues with the review of the literature to guide its
development. This framework guided the field research and informed the data analysis.
Its development began from the onset of the study and continued to evolve as the
research progressed. It was developed through several iterations and is based on theories
found in literature that cover collaborative watershed management and public
participation. In addition, iterations among literature reviews, data collection and
29
preliminary data analysis informed this framework. It is used to understand, describe, and
examine the context, participation processes, outputs, and implementation for green
stormwater infrastructure, in the Proctor Creek Watershed in Atlanta, Georgia.
In this section, the conceptual framework is represented in both narrative and
illustrative forms to highlight and explain the main themes, attributes, and ideas (Miles,
Huberman, & Saldana, 2014) that occur in this study. Each element of the conceptual
framework is described to set the bounds of the case.
Process of developing the conceptual framework
Framework development began with causal loop diagrams to show the
interrelationships among themes and elements found in public participation and
engineering literature on stormwater runoff quantity and quality. However, further
development sought the need to extend the theoretical basis of participation.
The conceptual framework for this study draws on the framework proposed by
Sabatier et al. (2005) shown in Figure 2.2, and Beierle & Cayford's (2002) conceptual
model of public participation. The data in this case study revealed similar attributes to
these pre-existing frameworks; thus, it was appropriate to use them after examining the
literature. During the study, it was found that community participation was bolstered
within the context of collaborative approaches. Recognizing this helped to frame and to
understand community participation as it was occurring in reality.
Aspects of Sabatier et al.'s (2005) framework were evaluated (Leach & Sabatier,
2005; Samuelson et al., 2005) and used to construct a public participation evaluation
30
framework (Benson et al., 2014). Subsequent works in collaborative approaches to
watershed management went beyond measuring process outcomes as Sabatier et al.'s
(2005) work did, to address implementation and environmental outcomes (Koontz &
Newig, 2014; Koontz & Thomas, 2006). Beierle & Cayford's (2002) framework was
developed to examine public participation in a large number of heterogeneous case
studies. It included context, process, and results categories, along with their respective
attributes. The framework was detailed, yet remained sufficiently general to evaluate a
range of case studies.
Sabatier et al.'s (2005) framework explains the success of collaborative watershed
partnerships in terms of themes including context, process, civic community, policy
outputs and watershed outcomes, most of which are applicable to this study. This work
recognizes community participation as a key aspect of collaborative approaches. It goes
beyond the successful collaborative watershed management framework, and studies
participation as it happens beyond the collaborative watershed partnerships. While the
collaboration aspect is heavily incorporated in this study, it extends to include, for
example, information flows to the community about the issue, how the community is
involved and consulted, and how the community is empowered to make decisions
towards their well-being. This addresses the limitation that “it is not very general” by
virtue of its design and purpose (Sabatier et al., 2005 p. 173).
While this work adapts the focus, it applies most of the themes depicted in Figure
2.2. The context theme wholly applies to this case because it situates and begins to
delineate the boundaries of the case study. It is imperative to understand all the attributes
31
listed within this theme because it helps to further draw connections among other themes
later in the study. In addition, as a part of the context, the type of issue (Beierle &
Cayford, 2002) is included to fully describe the Proctor Creek case study. The civic
community theme shown in the model below is relevant to this study; however, its
attributes are described within the civic community conditions for this study as opposed
to a stand-alone variable as shown in Figure 2.2.
Figure 2.2: A Conceptual Framework for Collaborative Watershed Management.
(Sabatier et al. 2005)
32
To supplement Sabatier’s process theme, this work employs Beierle & Cayford's
(2002) process theme that includes the type of mechanisms and the respective
characteristics, and other process features such as participants’ motivation and issues of
non-participation. The detail that Beierle & Cayford's (2002) framework entails is more
relevant to the case of Proctor Creek watershed. It provides a basis to answer the
research questions more directly than the process theme of Sabatier’s framework. Both
Sabatier et al. (2005) and Beierle & Cayford (2002) describe the output theme as
recorded decisions in plans and documents, a measure which is used in this study.
This work extends Beierle & Cayford (2002) conceptual framework, with the
addition of the implementation theme. This theme is considered for this work especially
since there is community participation in the implementation processes for this case.
Also, as a single case study, the implementation theme gives a fuller description of the
case in its entirety. This research aims to investigate and draw connections between
themes of context, community participation processes, and the outputs for
implementation of green stormwater infrastructure. While doing so, it acknowledges that
the literature warns against drawing causal connections between participation and
successful implementation (Beierle & Cayford, 2002) since there are multiple, complex
factors that play into the role of implementation, specifically infrastructure
implementation.
33
Framework Description
Theme 1: Context
The literature makes it clear that context factors are necessary for understanding
processes and outputs (Brody, 2003; Luyet et al., 2012; Tang & Brody, 2009). This
framework includes elements of the context theme that both Sabatier et al. (2005) and
Beierle & Cayford (2002) describe. The context elements include the type of issue, the
socio-economic conditions, the ecological conditions, the civic community conditions,
and the institutional settings that surround the case. Context can include many more
elements than outlined here for this case (Beierle & Cayford, 2002); but, preliminary
emergent findings and their theoretical parallels were considered, and the most prominent
issues that are relevant for Proctor Creek are described.
The Type of Issue
The type of issue describes the case situation and its characteristics. It delineates
the case as an issue of watershed-scale natural resource management, as stormwater
management is increasingly considered as such (Roy et al., 2008). The overarching goal
in efforts concerning Proctor Creek watershed, this work’s research area focus, is
watershed restoration and remediation for water quality improvement. As the headwaters
for the Chattahoochee River, it is imperative that activities which impose negative
downstream impacts be addressed.
Defining even further, the issue for this case concerns addressing the lack of
efficient stormwater infrastructure that contributes to the reoccurring flooding problem.
34
Green stormwater infrastructure has similar processes for planning, design and
implementation as other types of civil infrastructure such as roads and buildings
(Benedict & McMahon, 2006) which tend to lend itself to decision processes led by
solely technical professionals. Understanding the type of issue and its relation to
participation and green stormwater infrastructure development can contribute to an
understanding of how non-technical benefactors can contribute to technical decision
making processes.
Ecological Conditions
Within urban watersheds, ecological conditions can give insight into
infrastructure planning and design (Grimm, Grove, Pickett, & Redman, 2000; Pickett et
al., 1997), especially for water infrastructure. The “urban stream syndrome” characterized
by features such as high nutrient concentrations and low biotic diversity (Grimm et al.,
2008), can be used to describe many urban streams including Proctor Creek, that have
been affected by increased pollutant loading, stemming from the effects of urbanization
and increasing impervious cover. Ecologically-based designs can be considered to
counter this urban stream syndrome. For instance, low-impact stormwater solutions and
water capture systems can be used for urban stormwater management (Grimm et al.,
2008). Conversely, storm water infrastructure may influence ecological structures and
processes. For example, storm drains and pipes can influence insect distribution on
household or neighborhood scales (Grimm et al., 2008). Thus, it is important to
35
understand decisions for the built environment within the limits of the natural systems
and as drivers for changes that occur within it.
Beyond the natural characteristics of ecological systems, is the human element of
the system, which introduces far more interrelated factors to consider (Pickett et al.,
1997). An ecosystem’s structure, function, and processes are influenced by human
activity such as land use and development, as well as social processes. The influence of
human activity on ecosystems convey the need to understand issues that arise such as
environmental justice (Grimm et al., 2000).
Socioeconomic Conditions
Socioeconomic conditions describe the general income levels, education status,
and occupations in the case community. One study by Laurian, (2004) found that
financial resources is an indicator of public participation in environmental decisions;
higher income earners participated much more than low-income earners. In addition, the
same study found that education level and employment status of respondents had no
significant effect on participation. Similarly, Tang & Brody (2009) found that context
factors such as wealth and education have an influence on plan quality, though not
statistically significant. The case study area’s socioeconomic conditions and its influence
on community participation is explored and compared with the theoretical findings.
36
Civic Community Conditions
The civic community conditions attribute is described by pre-existing
relationships (Beierle & Cayford, 2002) and human, social and political capitals (Flora,
2004). Civic community conditions identify issues of conflict, and levels of trust among
community participants towards other community participants, government agencies,
organizations and other stakeholders in the participation processes of the case (Sabatier et
al., 2005). For many years, numerous groups, organizations, and institutions have been
working in the Proctor Creek area for revitalization and restoration efforts, some more
consistent and long-standing than others. Considering these groups’ involvement, gives
reason to investigate the community’s response and relationship to all these stakeholders.
Margerum (2011) asserts that one reason that collaboration emerged is due to the
lack of trust in government that created conflict in planning efforts. This conflict is
usually a result of delayed community interaction for decisions and communication
barriers. An understanding of these issues can lead to participants having more prospects
for decision-making roles in collaborative processes (Margerum, 2011).
Government-Institutional Settings
This element of the context theme describes the levels of government involved in
Proctor Creek efforts and their roles, their levels of involvement and the identity of the
lead agency (Beierle & Cayford, 2002). Leach & Pelkey (2001) found that agency
involvement can be a contributing factor to successful watershed partnerships, especially
37
when agencies have sufficient resources for participants to be actively involved in
partnership processes.
Theme 2: Process
Community Participation and Collaboration
Collaboration is one of the higher levels of community participation concerned
with building consensus among stakeholders who are part of the participation process
(Margerum, 2011). Here, we look at how the process of community participation occurs
in reality, and consider how collaboration occurs between the community and other
stakeholders at various stages of the planning processes. The levels of participation,
mechanisms and characteristics are explored to understand the planning process that
influences decisions for implementation stormwater infrastructure in this case.
Type of Mechanism and Characteristics
The types of participation mechanisms were mentioned previously in the literature
review and are studied according to the following characteristics (Beierle & Cayford,
2002):
Type of mechanism and levels of participation
Description of participants
Type of output
Goal of process
38
Motivation for participation and Issues of non-participation
Individual motivation is a key factor that determines community participation
(Laurian, 2004). Motivation looks at the factors such as participants’ interests in the
issues, if participants can be paid for their time (Irvin & Stansbury, 2004), and
commitment levels to the area (Laurian, 2004). For instance, many residents in Proctor
Creek watershed neighborhoods are renters, not home owners – which may affect
participation levels. In addition, the perception of influence on the output and outcomes
can be a motivating factor in participation processes (Beierle & Cayford, 2002).
Laurian (2004) revealed several reasons for non-participation in environmental
decision-making including trust in government agencies and passivity towards the issue.
The same study found that less common reasons for non-participation were “planning to
move from the area” and “lack of interest” (p. 62). It is important to understand non-
participation in order to increase efficiency of future participation efforts.
Education and Capacity Building
This attribute explores how the community learns about the issues and how
available resources are used to build the community’s ability to address the issues
through participation. It is difficult to attain meaningful participation (Margerum, 2011);
educating and capacity building contribute to more meaningful participation by ensuring
residents are equipped to make, contribute to, and support better decisions.
Education on stormwater management and infrastructure can help reduce
community resistance to sustainable stormwater systems like green stormwater
39
infrastructure (Montalto et al., 2012; Roy et al., 2008) especially in urban areas. For
example, demonstration projects can help increase the community’s understanding of
green stormwater infrastructure, thus increasing support for implementation throughout a
watershed. The education the community receives should go beyond understanding the
scientific underpinnings of an issue to establishing an understanding of alternatives for
various solutions and the associated outcomes (Beierle, 1999). Education should not only
be directed towards the community; but it should also include members of the community
educating their government representatives about the issues that affect the community to
allow for informed input about potential solutions. Education in this sense should equip
community members to apply pressure to those who have authority to effect and enforce
necessary changes.
Capacity is considered in terms of ability (Beierle & Cayford, 2002), collective
resources, and human and social capital to solve problems within the community
(Chaskin, 2001). Capacity building is a process that includes strategies such as
“leadership development, organizational development, community organizing, and
fostering collaborative relations among organizations” (Chaskin, 2001 p. 299).
Theme 3: Output
Plans, documents, and reports
Outputs are decisions from the participation processes reflected in documents,
reports, project plans, and the projects themselves (Koontz & Thomas, 2006). Beierle &
40
Cayford (2002) propose that the quality of the output can be evaluated by whether public
values are incorporated into decisions and if the quality of decisions improves as a result
of participation efforts. For instance, decision quality can be improved by incorporating
local knowledge of the problem and ideas for alternative solutions from the community.
These social evaluation goals help to determine the effectiveness of participatory
mechanisms by goals such as identifying their strengths and weaknesses, and also help to
determine ways to improve mechanisms (Beierle, 1999). The outputs of this work focuses
on those decisions directly related to stormwater infrastructure planning, design and
construction.
Theme 4: Implementation
Implementation is defined in five stages, as described by Table 2.1. While the
study describes the successful completion of a project for this case, it is cautious to
consider the insights to success as it relates to participation (Beierle & Cayford, 2002).
Table 2.1: Stages of Implementation (Beierle & Cayford, 2002)
Stage Process
1 Output of the public participation process
2 Design or commitment on the part of the lead agency
3 Changes in law, regulation, or policy
4 Actions taken on the ground
5 Changes in environmental quality
41
This work considers the stages of implementation, the likelihood of
implementation, and describes some the factors presupposing implementation other than
participation (Beierle & Cayford, 2002). Though decision-making processes are intended
to include participation processes, more factors ought to be considered. For example,
external partnerships may accelerate and stimulate actions that improve water quality
through green stormwater infrastructure. Without partnerships, progress may be much
slower and under-resourced. Also, within the planning process many complexities hinder
implementation (Loh, 2012). Loh (2012) suggests that these complexities in the planning
process are likely to occur at four points ̶ including visioning, plan writing, local
government actions, and ordinance enforcement. This research describes the factors that
emerge from the data as it aligns or misaligns with existing theory.
Outcomes reveal the effects of implementation but are much more difficult to
measure than outputs, decisions from participation processes (Koontz & Thomas, 2006).
Perceived and projected outcomes include stormwater control objectives as it relates to
the performance of the implemented infrastructure. The scope of this work does not
include data for performance of implemented systems. However, it is necessary to state
that performance goals are determined by whether stormwater control objectives are met
or not. These objectives are as follows (Design of Urban Stormwater Controls, 2012 p.
37-38):
1. Minimization of runoff
2. Implementation of source controls at point where precipitation reaches the ground
3. Resource protection
42
4. Protection of public safety, health, and welfare
5. Protection of infrastructure and public property
6. Technical feasibility and costs, practicality, public acceptance
To summarize the conceptual framework used for this study, Figure 2.3 shows the
theoretical constructs that guide this work.
Figure 2.3: The interacting themes and attributes represent the case study for
community participation for green stormwater infrastructure
43
Research Objective
Considering the framework, the objectives of this research are to:
1. Investigate how community participation influences decisions for green
stormwater infrastructure.
2. Understand the case context, participation processes, outputs, and implementation
for green stormwater infrastructure development.
To fulfill these objectives, the following research questions guide the study. The
questions are as follows:
1. How do community participation mechanisms facilitate decisions for green
stormwater infrastructure?
2. How do context features and community participation processes influence
implementation of green stormwater infrastructure solutions?
These questions were revised during the data collection and data analysis as the
case study progressed. Originally, the research questions focused on the participation
process only – the mechanisms that facilitated community participation in stormwater
infrastructure design decisions, not factoring in the influence of context, implementation,
and possible outcomes. During data collection, it was determined that this was a limited
scope due to the lack of events focused on stormwater infrastructure and green
stormwater infrastructure alone for the selected case study. The researcher attended
several events and observed that most of the events were generally about a collection of
44
issues in Proctor Creek, not just stormwater management. Also, the design process for
new green stormwater infrastructure projects is set to occur beyond the time span of this
study, later than originally planned by the relevant authorities. Hence, the influence of
community participation on decisions could not be directly studied for the engineering
design process. Though implemented projects are limited, the detail of the implemented
project is worth including and analyzing to understand the perspective of the entire
situation for green stormwater infrastructure in Proctor Creek. Considering that this study
pursued a single case, the focus expanded beyond the participation process to understand
how context plays a role in participation processes and how infrastructure
implementation processes are influenced and carried out.
Chapter Summary
In this chapter, I presented the literature review followed by the conceptual
framework in narrative and illustrative forms. This framework was based on several
iterations of literature reviews, preliminary analysis of interview transcripts and
documents pertinent to this study. I described theoretical constructs that make up the
framework including themes from collaborative watershed management and public
participation in environmental decision making. The study’s conceptual framework
included the context, process, output, and implementation themes.
45
CHAPTER THREE
CASE STUDY RESEARCH METHODOLOGY
Introduction and Overview
This research uses the qualitative case study methodology to examine a single
case. This case study centers on green stormwater infrastructure development in Proctor
Creek Watershed, Atlanta Georgia and examines the context, process, outputs, and
implementation. The context itself, as previously described in the conceptual framework,
delineates the case and highlights the boundaries that are adhered to for the study.
The purpose of this case study is to convey a comprehensive understanding of
community participation in decisions for green stormwater infrastructure to answer the
research questions. The overarching query guiding this research is the role of community
participation in green stormwater infrastructure planning and implementation. This study
draws on data collected through interviews, documents, and field notes from (Creswell,
2013; Yin, 2009) to answer the research questions.
In this chapter, I start with a description of the case study methodology. I continue
with descriptions of data collection methods, the data analysis approach, and the
limitations and challenges of conducting this case study research. I describe the project
area and case selection, the interview participant selection, and gaining access to the
research area and the participants. In addition, I explain the ethical considerations,
validity and reliability relevant to this study.
46
Considerations for choosing the case study method
After conducting a review of community participation and stormwater
management, the preliminary research questions were derived. The Proctor Creek case
study was identified through meetings and conversations with employees primarily from
the United States Environmental Protection Agency who introduced Proctor Creek as one
of the watersheds within the Urban Waters Federal Partnership (UWFP) program. This
program focuses on providing resources for revitalization and restoration of urban
waterways. At the time this study was considered, the Proctor Creek watershed was one
of the most recent watersheds to be a part of the program. The study was determined to
be relevant, due to the preeminence of the issue and the expanding green stormwater
infrastructure applications to help solve some of the stormwater management problems
plaguing some neighborhoods in the watershed.
Only one case study was conducted in order to allow time for a full and detailed
review from context to implementation within the boundaries of the case. The case study
method provides the advantage of examining component parts, process, and
interrelationships. For this research, conducting multiple case studies was considered to
be unfeasible primarily due to limits to adequate data sources, time constraints and
proximity of case study sites. Preliminary data collection through gathering and screening
existing public documents about Proctor Creek confirmed the suitability of the case. In
addition, this case reflects similar situations in urban areas in the U.S. As the literature
review described, many urban areas are adopting green stormwater infrastructure
strategies to help manage stormwater. Lessons learned from this case can inform the use
47
of community participation for green stormwater infrastructure in urban areas across the
U.S.
Choice of Methodology
The questions guiding this research seek explanations of how context and
community participation impact decisions and implementation. The goal is to understand
the issue, explore what the circumstances of the study are as they happen, and draw
connections to learn from the study. The type of questions and the goal of the research
favored the case study methodology to appropriately answer the research questions.
Specifically, community participation is a social complexity that requires in-depth
description within the bounds of this case. Also, the events that occur within the bounds
of the case cannot be controlled or manipulated, and these events happen in real time.
Hence the suitability of the case study method as opposed to more experimental
approaches (Yin, 2009).
Qualitative research seeks to understand the subject in depth by leveraging human
perception and interpretation of their experiences (Merriam, 2009; Stake, 2010). For this
study, the research studies social processes in its context and seeks to convey the
experiences of a case in its complexity. In this research, a qualitative case study is
conducted to provide a detailed understanding of community participation in green
stormwater infrastructure efforts, an issue that is too complex to solely be measured
quantitatively. The qualitative case study approach gives the richness to the story of this
case. Stake (2010 p. 15) characterizes qualitative work by:
48
interpretation – there may be different views for the same phenomenon;
experiences – data collection is field oriented and not pre-arranged;
situation – a detailed description of the context gives a holistic construct; and
personal – for instance, it seeks individuals view points, and the researcher is
the main research instrument.
This work takes on these characteristics, and for these reasons and the aforementioned, a
qualitative stance was taken.
Overview of Case Study Methodology
The case study approach is commonly applied in medicine, law, economics, urban
planning, and social sciences (Creswell, 2013; Yin, 2009). Case studies can either be
entirely qualitative or quantitative, or both - as mixed methods (Yin, 2009). Regardless of
where they fall on the spectrum of qualitative and quantitative research, case studies are
used to detail descriptive, exploratory and explanatory research questions (Yin, 2009).
This research approach enables the researcher to build comprehensive understanding of a
system bounded by place and time by using multiple data sources (Creswell, 2013; Yin,
2009). A case study is defined by Yin (2009 p. 18) as follows.
“A case study is an empirical inquiry that investigates a contemporary
phenomenon in depth and within its real-life context. It copes with the technically
distinctive situation in which there will be many more variables of interest than
data points, and as one result relies on multiple sources of evidence, with data
needing to converge in a triangulating fashion, and as another result benefits from
49
the prior development of theoretical propositions to guide data collection and
analysis.”
Cases can be people, groups, organizations, or processes (Creswell, 2013) and can
be studied as single or multiple case studies. Unlike the multiple-case study approach that
usually involves case comparisons, single case studies are often, by design, “less
constrained” (Miles et al., 2014 p. 39) and require fewer front-end conjectures and
preparations before the study is conducted. As insights are uncovered during the study,
the approach can therefore be reasonably adapted to suit. Since multiple case studies are
used for more comparative analysis to highlight different viewpoints on a central issue
(Creswell, 2013), they require more upfront protocol structure to study effectively even
though adaptation can take place during the study. Whether the single or multiple case
study approach is used, they can be applied to multiple research scenarios that range from
evaluating and describing interventions in reality, to explaining occurrences for
interventions without focused outcomes (Yin, 2009).
There are several challenges associated with case studies, especially single case
studies. One concern is that the single case study cannot be used to make generalizations.
However, the purpose of a single case study, as with this work, is to provide “analytical
generalization” that develops and generalizes existing theories (Yin, 2009 p. 15) for the
issue studied. Another challenge is that this approach can be very resource intensive in
terms of time (Yin, 2009) and sometimes money. To address this issue, the bounds of the
study can be appropriated to increase efficiency, and the data collection methods can be
adjusted to suit the specific case(s).
50
Data Collection Methods
This case study investigates existing and proposed green stormwater
infrastructure projects in the Proctor Creek Watershed. Interviews and relevant
documents are used as the main data sources to fulfil the objectives of this research.
Firstly, the search for context and information began broadly. Gathering
information about the case began with internet searches for documents pertaining to
Proctor Creek, and speaking with individuals familiar with and involved in Proctor Creek
situations and projects. The researcher contacted four individuals involved with Proctor
Creek affairs in different capacities. One of the first individuals was found through a
networking opportunity and the other individuals were found by the snowballing effect,
which involves asking participants if they would recommend other potential participants.
The objective of these initial conversations was to continue assessing the
suitability of the case and to gather information about the context of the case. Also, the
researcher attended two Urban Waters Federal Partnership meetings where there were
representatives from federal and state agencies including the U.S. Environmental
Protection Agency, the Federal Highway Administration, the U.S. Army Corps of
Engineers, Federal Emergency Management Authority, U.S. Forest Service, and the
Georgia Environmental Protection Division. Access to these meetings was granted by an
U.S. Environmental Protection Agency employee. Notes were taken at these two initial
meetings and reviewed to assess the suitability of the case study.
Once the context was established, the researcher continued to collect field notes,
conducted interviews, and reviewed documents to collect case study data.
51
Field notes: The researcher attended seven Proctor Creek Stewardship Council
meetings between July 2015 and March 2016 to continue understanding the context of
community and engagement for the case, to identify research participants, and to take
field notes. The meetings took place on the first Friday of every month. Also, the
researcher attended various community events and meetings that were open to the public,
all relevant to Proctor Creek projects between. In addition, the researcher attended the
three green infrastructure community forums that were held in March 2015, November
2015, and April 2016. The researcher took field notes as a participant observer at events
and meetings. These field notes were used to enhance case study descriptions. Also, they
were used to corroborate interview findings.
Semi-structured Interviews were conducted with participants from different
groups of stakeholders on Proctor Creek projects. These participants included persons
from the city, federal government agencies, community residents, and community non-
governmental organizations. There were 14 interview participants. Potential participants
were first identified from names in documents as those who were heavily involved with
Proctor Creek clean up and development efforts. Table 3.1 shows the range of
stakeholders who were interviewed.
52
Table 3.1: Interviewees represent a range of stakeholders
Role Number of Participants
Community resident and leader 3
Community coordinator 1
Employees of national and community non- profit organizations
4
Students from area universities 2
City of Atlanta, Department of Watershed Management employee
1
EPA employee 3
The researcher informally spoke with potential participants at various times
during events and meetings. These conversations allowed the researcher to understand the
suitability of participants to be interviewed and to establish rapport with potential
interviewees before asking them to be participants. These interviews sought factual
information, perspectives and opinions (Saldana, 2011; Stake, 2010) from interviewees
about the context and community participation processes in moving forward with green
stormwater infrastructure implementation in the Proctor Creek watershed neighborhoods.
The interviews followed the focused structure (Yin, 2009) with an average time
frame of thirty five minutes. The average interview time was forty minutes. Semi-
structured interviews were preferred over structured interviews due to the variety of the
informants’ backgrounds. Their range of experiences influenced additional questions for
insight. This approach was preferred over the unstructured interviews because there was a
specific objective to meet. New knowledge was gained through the perspectives of the
participants in the study. Follow-up information was requested where necessary during
the interview to ensure that the descriptive story is accurately developed. The interviews
53
took place at locations convenient to the interviewees, and over the phone. There were
seven phone interviews and seven site interviews. These sites included interviewees’
offices and community event locations. Each interview was audio-recorded with the
participants’ permission.
Before each interview began, the researcher shared the purpose of the research,
and gave a brief overview of how the interview would proceed. Each participant was
given information about being in the study by describing the risks and discomforts, the
possible benefits, and their protection of privacy and confidentiality. Participants were
given the option of keeping their identities confidential or disclosing their identities for
research reports and writings subject to publication. For phone interviews, the researcher
emailed the participants the consent forms before the interview or read it aloud if email
was not accessible. They were asked for verbal consent, or if they were able to scan and
re-send their written consent, they did so. Participants were asked if they had any
questions before the interview started and were informed that they were free to ask any
questions for clarification. During the interviews, the researcher took handwritten notes
to note key points from responses and ask follow up questions for clarification.
Participants were asked open ended questions and were asked to elaborate and clarify
responses where the researcher thought appropriate.
The first set of interview questions asked for the interviewees’ background in
relation to their connection with Proctor Creek projects and the work that they do, to give
context to each interview. The following set of questions asked for their perspectives and
experiences in line with attributes that were studied. As the conceptual framework
54
continued to be revised, interview questions were adapted accordingly. The protocol
served as a guide, and so all questions listed on the protocol were not asked to every
participant. Additional questions were asked based on the interviewee’s background and
the flow of conversation. See Appendix B for the interview protocol. The researcher
transcribed the first ten interviews. A professional transcriptionist transcribed the
subsequent interviews, in addition to one interview already transcribed by the researcher.
Document Review bolstered findings from interviews with data for each of the
variables being studied. Documents provided rich data especially for context and process.
Additionally, they contributed to the output theme of the conceptual framework because
they hold record of decisions and plans for stormwater infrastructure. For example, one
key document coded and analyzed for this case study is the “Proctor Creek North Avenue
Watershed Basin: A Green Infrastructure Vision” produced by Park Pride, described
further in Chapter 4. The document gives the technical information about the study area
and shows the process of community input in conceptual planning and design for
potential green stormwater infrastructure sites. Another such report is the “Boone
Boulevard Green Infrastructure Conceptual Design” which itself is an output of
collaborative decisions from stakeholders on the project. The City of Atlanta’s “Green
stormwater infrastructure Strategic Action Plan” and “Upper Proctor Creek Watershed
Action Plan: A Waterway on the Rebound” were reviewed as well. A list of documents
reviewed is provided in Appendix C.
55
Data Analysis and Synthesis
Interview transcripts, documents and some field notes were analyzed by coding,
one way to analyze qualitative data (Saldana, 2009) to interpret and explain its meanings
(Miles et al., 2014; Stake, 2010). First cycle coding was done by provisional coding, a
method that uses “a predetermined start list set of codes” (Saldana, 2009 p. 144), and
descriptive coding. Provisional codes were informed by the attributes outlined in the
conceptual framework. The theoretical constructs defined in the conceptual framework
provided the themes for this work. A codebook was developed that defined each code and
highlighted when to use the code (See Appendix D). This codebook was revised during
data collection, conceptual framework development, and the descriptive coding cycle.
Content analysis of the data was further done by descriptive coding, which lead to a
summary of the data content (Saldana, 2009). Not every section of the data sources was
coded, but only the sections relevant to the research questions (Miles et al., 2014).
Further analysis of these provisional and descriptive codes was done by thematic
analysis, which provided extended phrases to summarize the data. Additionally, second
cycle elaborative coding (Saldana, 2009) sought the links and interrelationships across
themes in the data that supported or refuted previous theories from previous studies.
The NVivo program, a computer assisted qualitative data analysis software, was
used to code and categorize text from interview transcripts, documents and field notes to
quicken the research process and provide more time for analysis (Yin, 2009).
56
Validity and Reliability
This section gives insight to the researcher’s actions to preserve authenticity and
accuracy for the process of describing and analyzing the case situation in the study
(Bloomberg & Volpe, 2008). Reliability and validity checks are throughout all stages of
the research process, and are highlighted in the data collection and analysis stages. For
this research, the researcher is the main research instrument, which may subject the
research to human errors and issues in interpretation (Stake, 2010). Thus, several checks
were established to help ensure the unbiased quality of this interpretive research.
A strong case study can be conducted without being in the field, simply through
phone interviews and document review (Yin, 2009). However, the researcher attended
and participated in several events for Proctor Creek watershed, even those unrelated to
stormwater infrastructure. This allowed the researcher to understand the case context
much more fully through experience and interaction with the place and the persons
involved. Also, this helped to dispel initial researcher biases.
Multiple sources of data were used in this study to substantiate findings where
possible. For instance, for green infrastructure community forums, the researcher took
notes at the event, reviewed online published articles about the forum, and gained
additional insight from interviews. Another example is the following. One document –
The Proctor Creek North Avenue Watershed Basin: A Green Infrastructure Vision (PNA
Study) was used to understand participation processes that occurred a few years ago.
Interviews corroborated findings from the document. Additionally, reviewing available
documents allowed the researcher to streamline questions to each interviewee.
57
Several validity and reliability checks were done in the interviewing, transcribing
and analysis phases. During the interviews, there were “member checks” (Saldana, 2009)
to ensure that the researcher understood what the participant said correctly. For example,
after some responses during the interview, the researcher summarized what the
interviewee said, then asked if what was said is correct. During the analysis stage, the
logic of interpretations were evaluated and continually checked against the themes found
in the literature. For transcription reliability, both the researcher and a professional
transcriber transcribed one interview to compare transcriptions and ensure transcription
accuracy. In addition, coder reliability was checked by the level of agreement between
the researcher and a peer for statement excerpts from two interview transcripts.
Limitations of Research
The primary limitation of this research comes from it being a single case study.
As such, the results are not generalizable to green stormwater infrastructure planning and
implementation in all urban areas. A meta-analysis of similar case studies would need to
be done in order to generalize findings on this topic. The scope of this research did not
accommodate such an approach. Though the research is not generalizable, the insights are
transferrable, and it does “expand and generalize” (Yin, 2009, p. 15) the theories used in
this study.
Most events that the researcher attended were not solely on the topics of
stormwater management and green stormwater infrastructure. It was expected that there
58
would be more ongoing participation mechanisms focused on facilitating community
participation for green stormwater infrastructure design decisions. However, the
researcher used this as a tool to understand the context and to ask more focused questions
about participation for green stormwater infrastructure during interviews.
Another limitation was the restricted sample size of interview participants due to
availability and willingness of potential participants. Interviewee insights and experiences
do not represent the views of all those involved in community participation processes.
More participants would increase the credibility of the study. To address this limitation,
findings from documents and field notes helped to support some interview content.
Future work can include more participants, especially more interviewees who are
community residents.
As interviewing progressed, when participants were asked if there was anyone
else they would recommend for an interview, they gave the names of people already
interviewed, or planned to be interviewed. This represented saturation. However it must
be noted that interviewees included only those who are actively involved in Proctor
Creek community affairs. Those who are not involved were not included in the interview
sample. Hence, content of these interviews are not representative of the entire study area
community.
Though interviewees’ perspectives give the advantage of lived experience, their
responses are based on memory at the point in time of the interview. To address this
59
limitation, at the end of each interview, participants were asked if there was anything else
they would like to add to their responses.
Chapter Summary
In this chapter, I described the case study methodology, and the overall research
approach for this study. I detailed how the case study method was used, in data collection
and in data analysis. I presented and addressed issues of trustworthiness for this of
conducting a qualitative case study, and particularly for this research. To conclude this
chapter, I included the methodological limitations of this research.
60
CHAPTER FOUR
CONTEXT FINDINGS AND DISCUSSION
Introduction
The data presented here describes additional information on the context in terms
of the type of issue and civic community conditions. Context factors play a role in
designing participation processes to improve the quality of desired outputs, contributes to
understanding implementation (Koontz & Newig, 2014; Margerum, 2011; Tang &
Brody, 2009). The findings presented in this section shape the understanding of
participation processes, outputs and implementation by providing insight for the most
salient context factors affecting each theme.
Context Description
One discernable finding in the case context was that civic community
characteristics such as social, human and political capital, as well as levels of trust, were
bolstered by collaborative partnerships in the community. Community non-profit
organizations were instrumental in leveraging resources for community development
towards stormwater and other watershed issues. One interviewee from a community non-
profit organization explained,
“So one action of the participatory action that’s occurring is a partnership or a
layer of engagement is of the NGOs, the non-profit organizations that are in the
watershed. So people like WAWA [West Atlanta Watershed Alliance] and the
Chattahoochee River Keeper and the Community Improvement Association and
maybe to some extent National Wildlife Federation and Conservation Fund. So
61
there’s some national and there’s some local NGO’s. We are all attempting to
partner and collaborate and even work to facilitate the pass through of funds and
even resources, so that we support the residents.”
One organization that operated through the collaboration of multiple community
non-profit organizations and residents is the Proctor Creek Stewardship Council. The
group’s characteristics model those of watershed partnerships found in the literature
(Genskow & Born, 2006; Koehler & Koontz, 2007; Leach et al, 2002). For instance, the
Proctor Creek Stewardship Council addresses a comprehensive range of watershed issues
while educating the community on these. Social capital in the community is building
through their work and the work of other groups. The group focuses on collaborative
efforts among the community, various agencies and community non-profit organizations.
Genskow & Born (2006 p. 62) state that “partnerships that form around watersheds are
fluid and often ephemeral, which has implications for how agencies, funding
organizations, and local partners engage, evaluate, and provide resources for the efforts.”
This organization, in collaboration with others, provides a medium and a filter especially
for local and federal government agencies to work through and communicate with the
community. In addition, these groups address other context features such as socio-
economic conditions and ecological conditions through their work by including residents
in citizen scientist activities and participatory research.
62
Type of Issue
The question “Can you describe stormwater issues in the watershed’s
neighborhoods?” elicited responses from interviewees. Though there are many other
issues in the watershed, the focus here is the flooding occurrences. Content analysis of
documents also provided added descriptive data for the type of issue.
At several meetings, residents voiced their frustrations with flooding in their
homes and the subsequent effects on their lives. At a meeting during a week of heavy
rainfall, one resident voiced his concern, “Every time it rains, it gets real scary because
you don’t know how high the water will rise.” When asked to describe the adverse effects
of heavy rainfall events in the area, a young community resident described the following:
“Well I’ve seen houses along that Creek have high percentage of mold in it,
mildew, and asbestos. And it’s an environmental impact as well, because a lot of
people who live in those homes are sick. They’re usually coughing when they’re
talking. And not only that, sometimes when we have heavy storms, the water rises
so high that I’ve seen it wash away a retaining wall before.
I’ve seen water when it does not have anywhere to drain to it just builds up in
neighbors’ yards. So it’s actually quite dangerous in my community due to
stormwater and because of where my neighborhood is located, we’re actually at
the bottom of the slope right before you get to the creek, so all the water that’s
travelling towards the creek doesn’t actually go toward the creek. Sometimes the
water just stops somewhere and it just sits and that creates an environmental
issue.”
The problems for Proctor creek begin in downtown Atlanta ̶ the location of the
headwaters. One interview participant from a national non-profit organization described
that “it's about 265 acres of impervious concrete sits on top of the headwaters for this
creek.” The growing population and the continuous development in the central business
district, downtown Atlanta, contribute to even more impervious surface and thus more
63
runoff. Stakeholders and authorities recognize that stormwater management challenges
must be resolved in the headwaters to mitigate flooding effects in Proctor Creek
watershed neighborhoods. One lifelong community resident described his experiences
with flooding:
“Well, we noticed that our mobility is limited after a hard rain, and that you'll
have a few flooded places. We never related that to other developments adding
more water to our stream, you might say. We just knew that after a rain we'd have
to wait a little longer before streets would dry out, or dry up.
We know now it was because of development of downtown Atlanta. We just
didn't relate it to that. We just know there were certain places that, if you were
driving, you suddenly could flood out. The water would splash up on your tires.
Then there were places where the water would come all the way up to your engine
and drown you out.”
A member of a community non-profit organization similarly explained:
“And so Proctor Creek is receiving a lot of the downtown, central business district
stormwater. It is also one of the corridors that has become the most industrialized,
and it’s also one of the corridors that just so happens to have a lot of the urban
renewal redlining effects. So the property values drops, disinvestments happened.
Proctor Creek just so happened, like in many cities, became the poster child for
urban blight. You know in some places in a city, it’s just a perfect storm for
urbanization to have created perhaps unintended consequences of urban blight.”
64
Civic Community Conditions
Social capital is bolstered by surrounding universities
Many ongoing collaborations draw on the intellectual and resource capitals of the
area’s universities and feed into the social capital of the community. The Atlanta
University Center (AUC), situated in the upper part of the watershed, houses four
universities, includes Spelman College, Morehouse College, Morehouse School of
Medicine and Clark Atlanta University. Georgia Institute of Technology sits on the
border of the watershed boundaries and close to the English Avenue community.
Additionally, Georgia State University and Emory University are close to the watershed
boundaries. Each of these universities has or has had ongoing collaborations with the
community for necessary progress.
For example, a graduate student from Georgia State University led a project that
involved participatory research. Residents were involved with data collection and learned
skills as citizen researchers. The group created an interactive application that allowed
users to map the site of problems in the area. An interview participant who worked on the
project-also a Georgia State graduate student at the time of interview, explained that:
“…when you’re out in the community, you would be able to plot if you saw a
stormwater drain that was collapsed or tires, things like that. You can pull out
your Android phone or your Apple phone…and you can mark-up that point where
that location is.”
The participant also added the community benefits as participants.
“The whole point of that was to provide a tool that the community can be able to
be champions for their own space.”
65
Another example is the relationship between the Atlanta University Center and
the community for the Green stormwater infrastructure Initiatives described in detail
further in this chapter. The initiative aimed to foster collaborations among community
residents and the faculty and staff to promote the implementation of green stormwater
infrastructure on the institutions’ properties.
In the community-university partnerships, the university members leveraged the
residents’ local knowledge and lived experiences to inform the respective works.
Human capital needs to be increased
Despite the intellectual and resource capitals closely available, disconnects still
exist in the community’s skills and capacity needed for problem solving. Though some
the residents who actively participate in meetings and participation events are college
educated, many of the residents lack the skills and education needed to directly be a part
of fixing the problems in the area especially those that contribute to green stormwater
infrastructure development. There is the need for capacity building and education among
residents since the residents are the ones most invested by matter of daily life experiences
and well-being. One participant, a community resident remarked:
“We're often told that there's a mismatch between the jobs that are available in the
community and the people that are available in the community. Some lack skill,
some lack will.”
66
Levels of trust within the community and towards external groups affect working
partnerships
Numerous organizations work within Proctor Creek. The success of the work is
largely based on levels of trust from the community towards these organizations and
levels of trust among these organizations. Leach & Sabatier (2005) identify trust among
various groups and stakeholders as an important indicator of collaborative success. One
question, “Have you seen the community and all these different stakeholders working
together to address the problems and challenges with stormwater?” elicited the response
from a community resident:
“Yes. I see them working together. That needs to be communicated that they're
working on their common goals together. There are those who don't know why
and how others have taken interest in the location if they're not from there, but
that case can very well be presented that the water is your neighborhood before
it's in ours.”
The community has close knit social groups but is cautious of outsiders who come in to
“help” the community; however, once a common goal is expressed caution is dispelled.
“Yeah, there has been some concern, but there are organizations that formerly
were not related or connected, being shown that there is a relationship between
the neighborhoods that's right before, along the Proctor Creek line, and right after
us, along the Proctor Creek line, so we have a common objective as to being able
to manage water that comes through our neighborhoods, where possible.”
While groups are working together, another interviewee, a community coordinator,
thought it was important to consider how conflict occurs.
“[There are] definitely sources of conflict. There's a lot of suspicion in the north
side of Atlanta. There's a whole background history that has led up to that and
caused that. I think communication is really hard. While there might be two
organizations working in the same space that have similar goals, if they're not
67
communicating clearly in a way that each understands, then I think there can be
misunderstandings, grudges can build up and what have you. I think that's really
common, even within a single organization. There are so many filters within the
course of our communication where I say something to you with a certain thing in
my mind of what it means, then you hear it and you're filtering it through based
on your interpretation of that. There are a lot of subtleties that get lost, even in just
face-to-face communication.”
Over the years, many organizations worked within Proctor Creek to help the community.
Over-planning and lack of visible progress is causing lack of trust towards organizations
and government institutions. The community coordinator continued:
“If you were to talk about the English Avenue and Vine City neighborhood,
Washington Park, a lot of folks have expressed feeling like they've been planned
to death. Some organization will see this neighborhood in West Atlanta and
suddenly have this come-to-Jesus moment of, "Oh my gosh, they need our help.
We're going to come in, help organize the community, figure out what their
priorities are, help them come up with their plan." …It comes to the end of the
planning process, they put together some kind of report, which is invariably way
too many pages for most people to care to read, and then leave.”
Concerning trust towards government institutions, there are mixed feeling towards them.
A community resident mentioned:
“…there are those who look to the government, and this is our salvation, the
government. Then others, they look at the governments, whoa! The government,
that's the one that's allowed it to get to this point.”
On the other hand, an EPA employee described the community’s trust towards the EPA
as the community reached out to them:
“We (EPA) were consulted by the community because the City wouldn’t listen.
So many people said that. I can’t discount it. And that’s what happens in these
environmental issues all around the country. Things kind of boil and bubble for 25
years. And then there’s some sort of event, some crisis, then the federal
government comes in.”
68
Another salient finding was the apparent lack of trust and negative perceptions
towards the City of Atlanta Department of Watershed Management. The department
appears to be aware of this distrust. This is evident through one example; Trust for Public
Land, a non-profit organization, will facilitate community participation for a stormwater
project in the upcoming months. This can make a difference with how the project is
received by the community and the type of input they give.
Proctor Creek watershed group gives residents political leverage
The Proctor Creek Stewardship Council is a community-led organization where
stakeholders participate in learning and efforts towards Proctor Creek’s restoration. It was
created to support and sustain resident’s engagement efforts through a collaboration of
several organizations and community members who worked within the area and
surroundings for several years. One of the stated goals of the Council is to “advocate for
the fair treatment and inclusion of the underserved Proctor Creek communities in the
planning and implementation of projects.” According to an interviewee from a non-profit
organization who helped to form the Council, it serves as “the voice of the people
towards any development or any planning pertaining to what to do with Proctor Creek.”
For instance, a new stadium is being built at the headwaters of the watershed and project
managers came to the community through the Proctor Creek Stewardship Council. The
community had input on the stormwater infrastructure designers planned to implement.
The interviewee mentioned:
69
“...the council is space where people at all levels in the state recognize this is
where you can start the conversation about any issue with Proctor Creek. So when
the stadium was being built, they know there was a council so they said ‘can we
present to you what we want to do?’ And the council told them, yes it’s okay.”
As mentioned previously, the U.S. Army Corps of Engineers came and presented
their plan for a feasibility study and requested community input. Councilmen and women
come to the council to present the resolutions they are working on that pertains to the
community. While other stakeholders do have input, the concern is what the residents and
stewards have to say. As they gather in a single voice, they consolidate ideas and action
plans to put pressure on those in office to serve them.
Chapter Summary
This section functions as exposé, a topical examination especially of the civic
community conditions. The most conspicuous and also most salient finding was that the
civic community condition attributes were supported by community partnerships. The
next chapter describes participation processes for visioning, education, and planning and
designing green stormwater infrastructure strategies along with the processes’ output.
70
CHAPTER FIVE
PROCESS, OUTPUT, AND IMPLEMENTATION
FINDINGS AND DISCUSSION
Introduction
The conceptual framework from Chapter 2 continues to provide the structure for
this chapter’s organization. This chapter describes the case study of green stormwater
infrastructure development in Proctor Creek through additional context findings,
followed by process, outputs, and implementation themes. Attributes are linked across
the different themes according to the data, and including linkages from the context theme
from Chapter 4. Each section in this chapter answers the following research questions:
1. How do community participation mechanisms facilitate decisions for green
stormwater infrastructure?
2. How do context features and community participation processes influence
implementation of green stormwater infrastructure solutions?
The case study intends to show how context and community participation process
elements interact to influence decisions for green stormwater infrastructure development
and implementation. The literature addresses both community participation and green
stormwater infrastructure; however, no study details the interaction of the two fields in
depth. The results in this section address the gap in the existing literature by providing an
in-depth, representative case study. Each section continues to share excerpts and quotes
71
from documents and interview transcripts to provide evidence that “supports the findings
of the study” (Merriam, 2009 p. 16).
Process Description
In this section I describe visioning, education and capacity building, and planning
and designing processes for green stormwater infrastructure in Proctor Creek watershed.
The findings in this section answer the second research question:
How do community participation mechanisms facilitate decisions for green
stormwater infrastructure?
To answer this question, I focus on discrete participation processes and their
characteristics in terms of type of mechanism, level of participation, description of
participants, and goal(s) of process. Table 5.1 summarizes the community participation
events directly related to green stormwater infrastructure. I describe these in detail later in
the chapter.
72
Table 5.1: Discrete community participation processes for green stormwater
infrastructure development
Process Stage
Mechanism Level of Participation
Inform Involve Consult Collaborate Empower
Visioning
o o Design workshop o Visioning dinner
Preliminary design
reviews
Draft report review
x
x
x
x
x
x
x
x
x
x
x
x
Education and
Capacity
Building
o o Community forums o Roundtable discussions o Tour of GI demonstration
site
x
x
x
x
x
x
x
x
Planning and
Designing
o Workshops o Meetings o
x
x
x
x
x
x
x
x
x
Figure 5.1 on the following page shows the timeline of events described in this
section. Events were not sequential, but overlapped. Education on green stormwater
infrastructure occurred during sessions of the visioning process to ensure participants
understood the topic and were able to participate effectively. Training for capacity
building was done during the planning for one demonstration project, fully described
later in this section. Finally, three community forums for green stormwater infrastructure
were held between 2015 and 2016. These are not exhaustive participation events, but they
represent the ones commonly highlighted in the community.
73
Figure 5.1: Timeline of participation process events described in this study
The participative processes in this study align with collaborative participation
(Innes & Booher, 2004) rather than traditional participation. There were more
collaborative dialogues than one way information flows of pre-planned projects thus far.
Stakeholders are cognizant of the social and political context, or become aware of it once
involved. Thus, context recognition created more dynamic processes. Luyet et al. (2012
p.217) asserts that specific social, political and legal contexts give a project its constraints
and explain process choices. In this case, the most prevalent context factors influencing
the push for increasing levels of community participation include socioeconomic
conditions and civic community conditions.
74
Social stability largely influenced the type of input the community gave during
participation processes. Interviewees mentioned that the community repeatedly
prioritized prevailing social conditions, such as lack of jobs and abandoned properties
during visioning and planning processes. Some external groups working with the
community learned to keep this socioeconomic context in mind. For example, one group
- the Conservation Fund that worked with the community to implement a park featuring
green stormwater infrastructure, was continually reminded of the need for jobs in the
beginning stages of their community participation processes. An interviewee from that
group said:
“As I mentioned, the loudest message we got was we need jobs…..We went out
of our way to provide not one, but 2 different opportunities for job training for
community members. We really tried to incorporate their needs as much as
possible and to make sure that we thought of this as a community-driven project.”
While this brought the opportunity to align community priorities and stormwater
management priorities, this sometimes stunted achieving higher levels of participation
and prolonged the participation process.
Another main process finding was the perspective and priority for educating the
community on green infrastructure for stormwater management. Interviewees, especially
those who were not community members, spoke of the need for education and outreach
on the topic due to its technical nature. A study on the perspectives of the participation
process for watershed management planning by Webler & Tuler (2001 p. 35) found that
“a good process emphasizes constructive dialogue and education” and that “outreach is of
primary importance.” Participant education on the issue is critical for meaningful
75
participation (Montalto et al., 2012; Ryan & Brown, 2001). Specific green stormwater
infrastructure forums ̶ described in detail later in this chapter ̶ facilitated the growth of
community knowledge on the subject, while using local knowledge to identify
implementation challenges and to formulate steps to move forward with green
stormwater infrastructure (GI) implementation. Other meetings began by educating the
participants on the subject. This facilitates improvement on the quality of input from
participants. These instances describe that process facilitators went beyond simply
informing about the issues and the proposed project, but engaged participants through
education.
One observation at the green stormwater infrastructure forums was that non-
community residents out-numbered community residents. Stakeholders who were non-
community residents present at these meetings included EPA employees, employees of
non-governmental and non-profit organizations, students and faculty from area
universities. While Webler & Tuler (2001 p. 35) found the perspective that “the goal of
the outreach is to involve people who really can participate meaningfully and
constructively not to merely create large turnouts,” there should be more outreach to
community resident participants since they directly feel the impact of the problems.
This case illustrates that education circumvents the public perception challenge
facing the implementation of green infrastructure for stormwater management. Keeley et
al., (2013 p. 1099) found that there were challenges “making the connection between
unmanaged stormwater and environmental degradation” and “addressing green
stormwater infrastructure in the community.” Interviewees mentioned that the community
76
wants green stormwater infrastructure in their neighborhoods to address stormwater
issues. Their perceptions were that green stormwater infrastructure could have
multifaceted benefits and so community residents and other stakeholders advocated for it.
The following descriptions of processes substantiate these findings further.
77
1. Visioning Process
Goal of process
The overall goal of this process was to develop with community input, a
conceptual vision for green space that manages stormwater and acts as a community
amenity. The study proposed parks and green space that included green stormwater
infrastructure strategies on each site.
Type of mechanisms and levels of participation
The visioning process was an 18-month process that began with Steering
Committee meetings involving community leaders. There were twelve recorded Steering
Committee meetings over a nine month period. In addition, there were six public
meetings which began several months into the process. The visioning process hosted by
Park Pride, a nonprofit organization that works with communities in Atlanta to improve
parks, used a more extended and intense visioning process than usual. The Proctor Creek
North Avenue Watershed Basin: A Green Infrastructure Vision (PNA Study) p. 33
reports:
“In addition to coordinating a series of PNA Steering Committee Meetings, the
Design Team has spoken with the English Avenue Neighborhood Association
twice and hosted a dinner for community input with that organization. Park Pride
hosted several weekend public meetings held at the Neighborhood Union Health
Center. Residents and Park Pride staff went door-to door distributing fliers
highlighting the Visioning process, the public process, and advertising the various
ways available for people to get involved. Park Pride hosted a booth at the
Festival of Lights, where the preliminary plans were shared with residents, and
collected contact information from interested persons.”
78
The Steering Committee provided information on threats to the success of the
proposed projects. Thus, the level of participation is considered to be consultation in this
case. The public meetings ̶ open to the wider community ̶commenced by educating the
participants about green stormwater infrastructure, which continued into design
workshops, preliminary design review, and plan reviews. The community was informed
with information to help accommodate their decision making roles in the subsequent
meetings.
There was a crucial education component to these meetings especially since most
participants did not know what green stormwater infrastructure was, and thus couldn’t
make decisions towards green infrastructure technologies for stormwater management.
The education component is represented in Figure 5.1 directly under the timespan of the
visioning process. One informant mentioned that even though people evaluated plans,
they harped on core values such as the need for jobs, respecting the historical and cultural
ties in the area while finding a way to reduce flooding. Decisions involving the more
technical aspects were not apparent. However, the community’s preferences were
included. The levels of participation are considered to be informing, involving and
consulting. The document also stated that the community participants agreed that their
views were represented. When a community leader was asked, “what was your
perception of how much the community was able to actually make input into the
decisions that you see coming out?” He replied:
“I think it was kind of hard at first. The first two to three months they didn’t grasp
it grasp it. They had challenges. Because the only thing they were thinking about
79
was ‘my house is going to be torn down, we don’t have anywhere to stay,’ and we
were like ‘no’. We’re going to build, we going to do some home improvement.
We don’t want to tear it down.”
As to whether he thought they felt engaged in the process, he responded:
“Oh yeah, as a matter of fact those are the ones still there. They’re trying to
further the design plan that we still have in other municipalities and counties and
whatever. Because they’re saying if we can do it in our communities, then we
could do it in our community across the different jurisdictions. The other ones
who left said well look, we’ll take what we know, we’ll add on to it and we’ll
build our own organization. So now we have about 2-3 other organizations that
have been formed since we did this PNA Study.”
Description of participants
The participants included community leaders and residents. The Steering
Committee meetings mostly included community leaders and leaders of non-profits that
worked in the area. The steering committee included approximately 11 persons, and at
the majority of meetings there were more than 5 participants. The public meetings
consisted of residents and leaders, and members of non-profit community groups.
Throughout the visioning process there were approximately 20-30 residents who
participated. Some of these participants were consistent throughout visioning some were
not. With regard to who participated, one interviewee, a community leader said:
“Well we tried to add more people, switch them up because you had different
mindsets coming to the table. Some remained, some didn’t. Some would like to be
part of the planning; some would be a part of the implementation.”
There were intensive outreach attempts to encourage participation. The PNA Study (p. 33)
reported that:
80
“Park Pride reached out to the three communities via e-mails, their neighborhood
leaders, the 30+ churches in the PNA, and various local non-profits and special
interest groups.”
Type of output
The Proctor Creek North Avenue Watershed Basin: A Green Infrastructure Vision
(PNA Study) is the final document from the Visioning process that contains details of
conceptual plans for green stormwater infrastructure sites to promote stormwater
management for combined sewer capacity relief, green space as community amenities,
and greenways for connectivity in the watershed. The document is thought to generally
represent the community’s ideas and input as mentioned by several interviewees and the
document itself. The community vision and goals are incorporated into this document.
2. Education and Capacity Building
Interviewees, documents and informants strongly suggested the need for capacity
building and education to advance green stormwater infrastructure implementation.
While educating and capacity building are considered to be at the informing level of
participation, it is utilized to increase levels of participation. The processes for education
and capacity building aim to empower residents to increase their decision making
capacity towards the issue.
Many efforts were indirectly related to green stormwater infrastructure while
some were more direct. In this section two direct efforts are described in detail. They
include processes for education and capacity building for implementation of a
81
demonstration site. One interviewee, who considered the process from visioning to
implementing on a green stormwater infrastructure project remarked,
“This community probably knows more about green stormwater infrastructure
than any community in America….We’ve been trying to make sure the
community residents understand that much of the environmental health hazards
that they have, the mold issues, the pollution issues, the litter issues, are directly
related to the need for green stormwater infrastructure in their community.”
Green infrastructure community forums and conference
Table 5.2 presents summarized details of the forums and conference. Originally,
there were three forums planned but only two took place before the conference. These
forums were organized by ECO-Action (Environmental Community Action), a non-profit
organization in collaboration with other partners. The U.S. EPA funded the Green
stormwater infrastructure Initiative through the Urban Waters Small Grants program. An
online article published by ECO-Action, Green stormwater infrastructure at the Atlanta
University Center explains that the initiative facilitated teamwork among residents and
the AUC faculty and students to understand the impacts of the AUC’s runoff and
generate solutions. The initiative targeted this area because there is the potential to
capture up to 22.4 gallons of stormwater on these campuses before running off to the
lower elevation neighborhoods plagued by flooding.
82
Table 5.2: Green infrastructure community forums and conference details.
Event Date Goals Site
Green
Infrastructure
Community
Forum I
March 17,
2015
Provide information from community members, non-profits and
governmental organizations outside
of the AUC
Identify next steps for continuing initiatives in green infrastructure
efforts.
(Source: ECO-Action Hosts First Green
Infrastructure Community Forum at Spelman,
online article by ECO-Action)
Spelman College,
Atlanta GA
Green
Infrastructure
Community
Forum II
November 14,
2015
Share information on green infrastructure to increase community
awareness.
Update the community of green infrastructure activities going on in
the Proctor Creek North Avenue and
Vine City area and also the Atlanta
University Center (AUC).
Create a structure, a process and a support system to advance green
infrastructure in the conceptual plan.
(Source: Interview transcripts and researcher
field notes)
Lindsey Street
Baptist Church,
Atlanta GA
Green
Infrastructure
Conference
April 21, 2016
Increase public awareness of green infrastructure
Present student-developed conceptual plans to capture stormwater at the
AUC center
Encourage community and AUC leaders to leverage their resources to
transform these stormwater
conceptual plans into “shovel ready
designs.”
(Source: ECO-Action webpage and researcher
field notes)
Clark Atlanta
University,
Atlanta GA
83
Goals of Process
The goals of these forums and the conference are summarized in Table 5.2. An
interviewee mentioned that these forums provided a way to engage the community and
keep the passion going to move forward with green stormwater infrastructure. The same
interviewee, referring to the second forum, said that he saw all the goals for that session
being fulfilled the day of the forum. However, the follow through on one of the goals
beyond the forum was not apparent. An example of one instance is the follow through for
the goal “create a structure, a process and a support system to advance green stormwater
infrastructure in the conceptual plan.” Even though a plan for next steps was written,
follow up planning meetings did not occur for the group that was tasked with creating
action steps for “advancing conceptual planning for green stormwater infrastructure
through joint student/community efforts.”
Type of Mechanism and Levels of Participation
Type of mechanism was primarily a forum, a meeting where information and
ideas were exchanged. The conference was a similar style to the forums, the difference
being the scale and the content matter. The conference gave information on the
culmination of efforts since the beginning of the initiative and information on the
progress of the PNA Vision, described in the previous section. At the forums and
conference there were presentations and working groups. The presentations gave
information to and from the community while the working groups facilitated discussions
for “next step action plans” that were feasible for pushing forward green stormwater
84
infrastructure implementation. Levels of participation associated with these activities are
informing and involving.
In addition, AUC students had the option of taking an elective course that focused
on developing conceptual designs for green stormwater infrastructure. In the process of
the class they were required to consult with community residents about the impacts of the
runoff in their neighborhoods. Thus, the consultation level of participation was achieved
in this process.
Description of Participants
At all three green infrastructure community events, most of the same stakeholder
groups were represented, and many of the same participants attended. Participants
included community groups, residents and leaders, some who identified as faith-based
leaders from community churches. From the academic community, Atlanta University
Center students and faculty, and Georgia State University students had a strong presence
as they presented projects and speeches related to the forum topic. Representatives from
nonprofit organizations and nongovernmental organizations who have consistent
presence in Proctor Creek projects attended. These included Park Pride, West Atlanta
Watershed Alliance, Metro Atlanta Urban Watershed Alliance, the Conservation Fund,
Community Improvement Association representatives, and ECO-Action, who led the
forums’ organization. Government agencies including the U.S. EPA Region IV Atlanta
85
office, and representatives from the City of Atlanta, Department of Watershed
Management and the Office of Sustainability were present.
Type of output
These forums and the conference allowed time for working groups. Information
was not just given to participants, but roundtable discussions gave opportunities to give
suggestions to improve and advance green stormwater infrastructure efforts. At the first
conference groups discussed and wrote notes on the current status, barriers, opportunities
and realistic next steps. At the second conference discussion groups created written
action plans on four areas including:
1. Developing a Proctor Creek learning exchange
2. Advancing workforce development for green infrastructure
3. Creating a smart relocation resource center
4. Advancing green infrastructure conceptual plans through joint
student/community efforts
(Source: ECO-Action’s online article AUC and Community Together Promote
Green infrastructure at Community Forum 2 and researcher field notes)
The culminating conference enabled students to share their work on conceptual
plans to capture 22 million gallons of stormwater on the AUC campuses. Students gave
suggestions of green stormwater infrastructure strategies suitable for their campuses and
the placement of these technologies on campus. Primary examples included rain gardens
and cisterns.
86
Skills training for participation in construction of green stormwater
infrastructure demonstration site
Type of Mechanism and Levels of Participation
The project management group for one demonstration project, the Conservation
Fund, worked with two workforce training programs to respond to the community’s
request. Young men received paid training in a range of skill building activities including
masonry, concrete, demolition and deconstruction, asbestos abatement, and other
activities that responded to community needs.
The level of participation for participants was at the information level. An
interviewee, who was a participant in the workforce training program, mentioned that
there was no decision making on their part towards green stormwater infrastructure
decisions.
Description of Participants
Participants in this training included four 18 – 24 year old males from the
community.
Type of output
One of the interviewees from a national non-profit organization mentioned that
some of these young men received preference for hiring at the National Park Service, US
Forest Service, and Fish and Wildlife Service due to the number of hours of training they
received and their acquired skillsets. Also, their training allowed them to be a part of the
87
construction of Lindsey Street Park, the green stormwater infrastructure demonstration
site. In addition, the participants received additional training from the contractor who
managed the construction of the park.
Planning and Design for green stormwater infrastructure projects
There are two completed demonstration projects. The planning for one of those
sites – Lindsey Street Park is described in this section, along with an incomplete green
stormwater infrastructure capital improvement project – the Boone Boulevard Green
Street project. The first project incorporated non-conventional aspects to the process that
considered several context features of the community. Both projects stemmed from the
PNA Study described earlier.
GI demonstration site Lindsey Street Park
Types of Mechanisms and Level of Participation
The planning for this project incorporated community participation and
engagement focused primarily on the space as a park rather than a stormwater control.
When asked if the community understood the green stormwater infrastructure component
to the park, the interviewee from the Conservation Fund responded that:
“We've been trying to make sure the community residents understand that much
of the environmental health hazards that they have, the mold issues, the pollution
issues, the litter issues, are directly related to the need for green stormwater
infrastructure in their community. There's massive erosion issues community
members are dealing with downstream. I think we've definitely tried to make that
a very big part of the conversation.”
88
The planning process for this project incorporated some non-traditional topics that
included workshops on “racism, power and privilege” to engage the community. Once
again, socioeconomic conditions and the environmental justice context were considered
among other factors that led to these workshops. The same interviewee explained:
“One of the first things we did was we have a group out of our North Carolina
office called Resourceful Communities. They normally work rural, low-income
communities in rural North Carolina. We asked them to come to Atlanta because
we hadn't really done community engagement before. We didn't know what we
were doing. We needed help.
They came down. The first thing that we did was we hosted a 2-day work group, a
work shop. Initially my office thought we were hosting a work shop related to
park planning Lindsey Street. The folks in my Resourceful Community groups
quickly told us, "No, you don't start with a planning of the park. You start with
the real issues that affect communities."”
While these workshops were facilitated in light of the context, other context
factors such as civic community conditions with respect to levels of trust were increased.
This works towards further development in the area.
“They planned a 2-day workshop on racism and power and privilege. Which I
must say honestly scared me to death. I thought, "What are we getting ourselves
into." It turned out they were so right. It was the best move we ever made. It was
very hard. It was emotional. It was raw. It was painful in many ways. The
community respected us so much more for starting with those big topics for
acknowledging that these issues existed and for acknowledging that we were an
outside national non-profit.”
“I think most the time, the national non-profits, or the bigger groups, come in with
the notion that they're going to solve your problem instead of the idea that the
community has the solutions to their own problems. When we started with those
bigger topics and started talking about ways to provide an opportunity to give the
community members power and to bring their voice to the table, that really
resonated well with the community members. We gained a lot of trust. We kept
with that model for this.”
89
Considering the preliminary workshops followed by facilitating the community’s
priorities and inputs for the park, the level of participation is considered to include
informing to empowering. The interviewee who described this process mentioned that at
times they wanted to move ahead with the project, but spent extra time to accommodate
the community’s decision-making.
Description of Participants: Participants included 20-30 community residents over the
span of the planning process.
Goals of process: The goal of the process was to engage the community in planning the
greenspace, a park that included green stormwater infrastructure strategies on site.
Type of output: The type of output was the final plans for the green space designed by a
landscape architecture company.
Boone Boulevard Green Street project
The conceptual design for this project was done internally by the City of Atlanta
Department of Watershed Management. At the time of writing this report, no community
participation had yet taken place for this project. However, there are plans for community
participation further along in the design process. Considering the technical aspect of the
design work, an interviewee from the Department of Watershed Management explained
that community participation was not suitable up to that point.
90
“Our department is a technical department…they do public involvement on the
projects but it may seem to the community like it is not early enough in the
process. So with the Boone Boulevard project the department needed to get it to a
point to feel like the project is even feasible. There’s a lot of modeling and
technical calculations and coordinating with other agencies to be done to get it to
what we call a 30% design situation.
Now that we have that, we are ready to share it…we’re ready to put it out on the
street, as far as request for proposals for a design build contractor to put a bid on it
to do the design work. It has taken a really long time to get here. I’ve been telling
the community for a really long time that this took 2 years. But to them it seems
like we’re doing our own thing behind closed doors, like we’re doing all this work
without their input. But in the department we didn’t want to put something out
there that was not fully thought through, and get blasted for it. And also, it’s the
people on top, it’s not like we design the whole thing. It took us 2 years just to get
to 30%.”
The interviewee continued to explain that the community can be involved in
decisions for the placements of the green stormwater infrastructure strategies and through
being educated about the project.
Motivation for Participation and Issues of Non-Participation
After interacting with interview participants and attending meetings, it was
evident that motivation for participation came from having a common goal to resolve to
improve current and future residents’ quality of life. Field notes and interviewee
responses supported this finding. For example, during meetings, older residents often
expressed their desire and interest for improvement, especially in the interest of
generations ahead of them. Similarly, Samuelson et al.( 2005 p. 164) found that citizens
partake in collaborative partnerships because “they believe that the collaborative process
91
has the potential to enhance the public good by improving the quality of life for all
residents in the watershed.”
At Proctor Creek Stewardship Council meetings residents expressed frustrations
with the lack of progress. This frustration fueled their presence at meetings. Many
residents who attended were older residents, and expressed wanting to enjoy the benefits
of their participation and giving their local knowledge. Correspondingly, Koehler &
Koontz (2007 p. 150) found that citizens actively participate when they feel “comfortable
sharing their opinions with others, and bringing to the group substantial knowledge about
the watershed.” One community resident shared his reason for continual participation for
Proctor Creek projects,
“My motivation is in, since we've said we want to work toward creating an
ecological balance in the neighborhood that our children, and grandchildren, and
great-grandchildren can live in, we want to makes sure that we create an
economic balance that our children and grandchildren.”
A student, who worked alongside residents on a collaborative project, had similar
comments to the resident’s response based on her experience and interaction with
residents:
“Some of these people have families that have been in this community for
generations, and that just makes it even more meaningful for them to be there.
They want their kids or grandkids to see the community in a different state. And
that’s why they were so eager to be there. And they were able to help.”
Another respondent, who worked with a community nonprofit organization, expressed
that residents want to be partners for progress in their own communities.
“You know, again, by lifting up the fact that the people in the Proctor Creek
community want to be stakeholders in their own community, not to just see them
as residents, but to see them as partners, with the federal governments, with the
local governments, with the state government agencies.”
92
Several different reasons were expressed for issues of non-participation, one
being a lack of visible changes despite efforts in previous participation events. For
example, one interviewee, a community coordinator gave his thoughts on reasons why
there may be a lack of participation.
“They go through those meetings, sit through those charrettes, at the end of the
day, they get this report - or maybe they don't ever even see the report - and they
feel like nothing has really changed. Meanwhile, some grad students or consultant
has made it a nice project for themselves. Of course that generates certain apathy
to participating in any future processes.”
The time of events also posed a challenge. At one community meeting, it was
recounted that meetings should not be on Wednesday evening since that is a common
time for churches in the area to have Bible study. In addition to timing of events, the
respondent shared other reasons.
“Whether it's scheduling and scheduling conflicts when people are available, to a
lot of people are just too busy to be able to go to another meeting. There's the
sheer volume of numbers of the different meetings that you have to go to...Of
course, there's also deliberate exclusion at times, things like that. I would say in
terms of the direct resident engagement, you really need to have a very
strategically planned process to effectively engage at a community. I don't think
that most of the meetings that I have gone to throughout the course of work in
Proctor Creek have been that, have been really true community engagement in a
lot of ways, or holistic community engagement that has been planned out in a
strategic way. A lot of times, that doesn't look like meetings; it just might be a
number of different things.”
Here we see how the socioeconomic conditions played a role in issues of non-
participation. Different interviewees did express that the community voiced their
concerns about lack of jobs in the area. Here is how one EPA employee stated the issue.
“This is a community where it's hard for people to volunteer their time or to
participate because when you have no money, and you're worried about keeping
your lights on, whether or not somebody's building a park is not the most
immediate need. As a matter of fact, we got that as feedback originally. People
93
said, "We've got massive drug problems in this community. We don't have jobs.
We've got all these problems. Why do you all want to waste our time talking
about a park?”
94
Output Description
Many documents and plans exist for Proctor Creek watershed but the ones
directly related to green stormwater infrastructure are discussed here. The most pivotal
document thus far for spurring green stormwater infrastructure in the watershed is the
Proctor Creek North Avenue Watershed Basin: A Green Infrastructure Vision prepared
by Park Pride. From that study and vision document, plans and designs for future projects
are targeted and being generated. Also, the vision was instrumental in helping to spur
collaborations to allow for the realization of the vision recorded in the document.
Proctor Creek North Avenue Watershed Basin: A Green Infrastructure Vision
documents overall planning goals including community goals and stormwater
management goals. The document reveals that the community had input in terms of
making their priorities known and the design team’s stormwater management goals
aligned with the community’s goals where feasible. The product was generated by
educating the community on green stormwater infrastructure, considering and respecting
their priorities, and allowing for the inclusion of their decisions. Though there were some
differing views, interviewees generally agreed that this document represented community
input and there were community decision-making contributions to this document. On the
other hand, technical specifications such as stormwater capture and storage targets of the
study were developed by the technical professionals without direct community input.
However, through the collaborative visioning process, technical specifications of green
95
stormwater infrastructure technologies in green spaces were designed with the
community priorities in mind.
Upper Proctor Creek Watershed Action Plan: A waterway on the rebound,
prepared by the City of Atlanta, Department of Watershed Management includes four
short project descriptions for parks and green space that will function as stormwater
management facilities. The summaries propose that there will be community input to
complete these projects as design work progresses. The Boone Boulevard Green
stormwater infrastructure project, described earlier, is one of the four projects. This
project came out from the PNA Study and is shaped by its stormwater goals. However,
the community was not directly involved in developing this plan.
The current outputs for the Boone Boulevard project include the Boone Boulevard
Green Infrastructure Conceptual Design and Proctor Creek’s Boone Boulevard Green
Street Project Health Impact Assessment. The conceptual design document includes the
conceptual layout, green stormwater infrastructure sizing, stormwater control measures,
technical specifications ̶ soils and size of planter boxes, and the estimated project costs.
The health impact assessment (HIA) document states that “This HIA is informing
DWM’s decision on implementing the proposed Green Street Project as they move
forward in the planning process.” The document also states that “The HIA Core Project
Team conducted the HIA with input and guidance from community residents and an HIA
Technical Advisory Group, which was made up of representatives from several
stakeholder groups.”
96
As mentioned earlier, student generated conceptual green stormwater
infrastructure plans for AUC campuses were prepared as a way to make progress on
dealing with runoff from those campuses. A technical professional, who is also a
community activist, worked with students to develop these concepts said, “Basically,
they're conceptual plans. They are to call people's attention to the possibility.” While
these are written ideas, with community local knowledge input, it can be seen as similar
to the PNA Study document if actions proceed towards working on those ideas.
The output of the visioning process is the document with the most apparent direct
community input. Since the other documents generated thus far were in part influenced
by the study, it can be noted that community participation had indirect roles in the
development of those plans. As more plans move from ideas, to conceptual then final
design plans, there are proposed community engagement strategies throughout the
development processes. Currently, the community had roles in improving the quality of
technical decisions by encouraging and advocating for alternative stormwater
management plans, other than solely traditional infrastructure solutions.
97
Implementation Description
In this section I describe the stages of implementation, likelihood of
implementation and implementation influencing factors for green stormwater
infrastructure. There is a limited understanding in the links between collaborative
planning and implementation (Koontz & Newig, 2014). This work addresses that gap by
recognizing specific elements of the participation process and the context that influence
implementation. Community participation is embedded within collaborative efforts in this
case context. The findings in this section answer the third research question:
How do context features and community participation processes influence
implementation of green stormwater infrastructure solutions?
To answer this research question, participants were asked “What factors do you
believe will move green stormwater infrastructure implementation forward?” and “how
can the community be a part of moving green stormwater infrastructure forward?”
Generally, participants responded that the community’s role was being educated on green
stormwater infrastructure. Education on the subject is necessary to contribute to buy-in
and also for educating elected officials who represent community residents. Concerning
factors to move implementation forward, participants mentioned factors other than
participation such as funding and politics as the main driving forces. Findings from
Koontz & Newig (2014) support these findings. They found that “linking funding to the
collaborative plan recommendations is an important means to foster implementation.., but
even without such a link, the process of collaborative planning can promote networks,
98
coordination, and buy-in that promotes implementation, even if the plan itself is not
directly influential” (p. 436).
Stage of Implementation
The PNA Study (p. 14) reports that “It is expected that the proposed PNA project
will take up to twenty years to implement fully.” The PNA document was published in
2011. From the current implementation trend of green stormwater infrastructure
demonstration projects, that statement appears to hold true, if all the projects in the study
are even feasible and implemented without major delays. This section gives insight to the
current stage of implementation of projects in Proctor Creek watershed, the likelihood of
conceptual projects, and the influencers of project implementation as found in the data.
There are two completed green stormwater infrastructure demonstration projects,
including Vine City Park and Lindsey Street Park previously described. The small 1.2
acre Lindsey Street Park was very resource intensive in terms of time and expense
especially for land acquisition. These two completed projects show that green stormwater
infrastructure has reached to stage four of the implementation, which is “actions taken on
the ground” (Beierle & Cayford, 2002 p. 56). The final stage would be to see the changes
in water quality and runoff quantity, which was observed in its preliminary stage by an
interviewee who worked on the project. However, continuous monitoring over a few
years will determine the project’s effectiveness for water quality, thus limiting the study
of outcomes for this research. When asked about the impact of green stormwater
99
infrastructure strategies at the park, the interviewee, a young community resident who
worked on the project responded,
“Oh yes, this is my favorite part. The water no longer builds up on our street
because, where the park is located, there’s actually a hill that comes down all of it.
So when it rains, that water is traveling in one direction and that’s right there near
the park. And now that we have that bioswale that actually catches and filters the
water, we have less water build up now. That water has somewhere to go and is
actually being filtered before it’s released to the creek.”
Planning and design progress is taking place for the projects that are mentioned in
the Upper Proctor Creek Watershed Action Plan: A waterway on the rebound document
prepared by the City of Atlanta Department of Watershed Management. Published in
February 2016 it states (p. 8):
“Design is under way four each of the four projects, with construction scheduled
to begin as early as 2016 and completed by the end of 2017. Input from the
community will be gathered as project designs continue and before construction
begins.”
The four projects include the Boone Boulevard Green Street, Mims Park Pond,
Westside Park Pond and Proctor Park, stormwater projects that feature green stormwater
infrastructure technologies. Beyond these, there are several more projects that remain at
the conceptual level.
100
Likelihood of Implementation and Influencing Factors
One interviewee was asked about the likelihood of implementation, in reference
to student conceptual plans generated for the AUC campuses. As previously mentioned,
the students’ conceptual plans are “to call people’s attention to the possibility.” They
currently remain conceptual plans, but are being presented to groups that are “all onboard
to try to make some of this stuff happen for Proctor Creek” according to the interviewee.
Thus, the likelihood of implementing them was uncertain according to the technical
expert and community activist, who is from a community non-profit organization. He
mentioned:
“Very supportive of the idea is the fact that we have some 16 federal agencies and
other foundations, corporations, and NGOs. All onboard to try to make some of
this stuff happen for proctor creek. I believe that this process will proceed in a
piecemeal fashion, probably taking as long as 20 years.
Because all we have are the conceptual plans. They still have to go through the
whole business of detailing the sizes of the cisterns and green ways.
We think they will eventually come on board. If we can get to the point where
we're ready to begin implementation of all that stuff, cost/benefits analysis, detail
analysis of the hydrology and all that in the next two years that would be a big
deal.”
These inter-organizational and political networks provide strong implementation avenues
(Koontz & Newig, 2014; Margerum, 2011).
Subsequent interview questions gave insight into the likelihood of implementation
as it relates to factors other than community participation. Interviewees were asked “what
are some factors do you think it will take to advance green stormwater infrastructure
implementation in Proctor Creek?” All those who were asked mentioned factors mostly
101
unrelated to community participation. However, the participation aspect interviewees
referred to was the need for educating the public on green stormwater infrastructure, a
process that has begun to take place through the green stormwater infrastructure forums
and conference held. Also mentioned was that implementation for future demonstration
projects can build from the levels of trust achieved and capitals achieved during past
community participation processes. However, this only is possible if a majority of
participants continue to participate in subsequent processes.
Project feasibility is a major factor especially for projects like this containing
several technical variables. For example, in this case, sites may not be feasible for certain
green stormwater infrastructure technologies even though initially included in the PNA
Study. During the visioning process, the PNA Study (p. 34, 45) reported that the PNA
design team ̶ after site assessments and community input ̶ selected potential project sites.
One technical factor necessary to consider is soil suitability to promote runoff infiltration.
In September 2015, a U.S. EPA team from the Office of Research and Development did
soil assessments at potential green stormwater infrastructure sites to test the suitability of
soils by its infiltration rates. Results from those tests are to inform and guide green
stormwater infrastructure use. An example of a non-technical factor is the issue of land
acquisition. Land titles were difficult to trace and contributed to the lengthy process for
the land at Lindsey Street Park.
Federal partnerships and partnerships among organizations are linked to the
availability of funding and resources. For instance, since the Urban Waters Federal
102
Partnership began, there has been resource allocation for capacity building, community
engagement and other programs. Also, recall that the conceptual design work for the
Boone Boulevard Green Street was funded by an Urban Waters grant from the EPA. That
project is now on track to completion. Political will strongly influences whether or how
quickly a project is finished. In addition, regulatory controls and ordinances can dictate
the type of projects that are implemented. On the local level, one interviewee gave an
example:
“If the Mayor, any Mayor, says I want this done and I want it done before the
soccer stadium opens in October 2017…And you know people just start doing
stuff. It’s because we work for the Mayor. There’s a political push, there’s a
bureaucracy, and you think you’re doing the best thing based on your technical
skills and there’s not always the right type of communication that happens.”
These implementation influencing factors mentioned here are not comprehensive but
highlight the most apparent ones that were found in the data.
103
Summary of Findings and Discussion
The evidence collected for this case presents the role of community participation
in the development of green infrastructure for stormwater management. The analysis and
interpretation provide the framing for a socio-technical view for green stormwater
infrastructure. Social contexts especially influence process dimensions, characteristics
and outputs, which affect the implementation of infrastructure.
Frameworks in the literature describe unidirectional interaction from context to
process (Sabatier et al., 2005), or participation process within the context (Luyet et al.,
2012). In this case, the links between context and process are apparent, and so is the
interrelationship between context and implementation. Collaborative efforts and
partnerships build civic community conditions including human, social and political
capital through community participation processes. Context variables, in particular social
conditions, were considered and accounted for mechanism choices, the flow of the
processes. For instance, recall that social conditions dictated community priorities during
participation processes. Thus, addressing the prevailing social conditions can play a vital
role in creating more efficient participation processes for green stormwater infrastructure.
The multilayered benefits of green stormwater infrastructure can create stronger feedback
by simultaneously addressing multiple goals and priorities for both context and
participation processes.
This work considers education and capacity building as part of the participation
process. Through these processes, residents not only gained knowledge but also had the
opportunity to contribute their local knowledge to discussions. They were consulted for
104
their input and empowered in some cases with decision making. Education on green
stormwater infrastructure allowed for community buy-in and advocacy for green
stormwater infrastructure, and this education is expected to have greater impact for future
implementation.
Analysis and interpretation of the results describe a probable causal link between
context variables and implementation. Government involvement through funding and
collaborative partnerships that facilitate political leverage, provide strong avenues for
increasing implementation feasibility. Community participation processes that capitalize
on these networks influence implementation. Furthermore, the analysis of the results
shows relationship between the process of educating the community on green stormwater
infrastructure and the influence on implementation. Buy-in and educating elected
officials are also driving forces behind implementation. The outcome link is represented
by a dotted line because outcomes of implemented and proposed projects will take
several months, and years to truly recognize. The scope of this research does not include
the realized outcomes. A longitudinal study would be able to show and confirm that
causal link.
To summarize, the most salient findings from this study are listed below.
1. The context attributes interact especially through the influence of civic community
conditions. Collaborative community partnerships help to build social, human, and
political capital while addressing issues such as the ecological issues, flooding and
105
stormwater management, and socioeconomic conditions. Community participation in
this case is embedded in collaborative partnerships.
2. Education on green stormwater infrastructure goes beyond simply informing
participants about the issues and project alternatives. Education and capacity building
is a crucial part in the participation process to gain useful input for technical projects.
It improves the process, creates a more informed public, leverages local knowledge
and addresses public perception challenge of using green stormwater infrastructure.
3. Social conditions highly influence the participation processes by dictating the
priorities the community develops during participation processes. For example, socio-
economic conditions play a role in understanding the characteristics of participation
mechanisms and the levels of participation involved.
4. Factors such as funding and political will promote green stormwater infrastructure
more so than community participation. Context factors including government
involvement and collaborative partnerships have direct influence on availability of
funding and help to facilitate political will respectively. However, community
participation plays a role in implementation through processes to educate the
community, thereby increasing buy-in for green stormwater infrastructure and
facilitating community education towards elected officials.
106
CHAPTER SIX
CONCLUSION
The purpose of this research was to understand the role of community
participation in green stormwater infrastructure development. The findings and
discussion were presented in the previous two chapters, and this chapter focuses on the
contributions of the findings, and its implications. The chapter concludes with a
discussion of future research recommendations.
Research Contributions
The findings suggest that community participation for green stormwater
infrastructure is supported by collaborative approaches to community participation in
planning, design and implementation. Also, it suggests a greater focus is needed in the
educational aspect of participation processes for green stormwater infrastructure. The
infrastructure’s technical nature requires that a base level understanding of the topic is
achieved to have effective and meaningful participation. Additionally, implementation is
encouraged by educating the community on the issue, along with other influencing
context factors.
Mainly, this work contributes to the further expansion and generalization of
public participation theory. Descriptive explanations of context, community participation
processes, and implementation for green stormwater infrastructure development extend
the use of public participation literature. For instance, this work affirms Beierle's (1999)
social goals of public participation in environmental decisions especially with respect to
107
incorporating public values into decisions, and educating and informing the public.
Theories from Sabatier et al.'s (2005) framework are also supported by the findings. For
instance, upon examining civic community conditions such as levels of trust and social
capital for this study, it was found that it corresponds with Leach & Sabatier's (2005)
work that reveal the importance of trust and social capital for partnership agreements.
Additionally, the existing literature that reveals the influence of socio-economic
conditions on aspects of participation processes are affirmed in this study as described in
the previous chapter.
With respect to the growing green stormwater infrastructure literature, this work
addresses the gap in literature by examining its community participation aspect.
Additionally, this study provides a representative case for community participation in
green stormwater infrastructure planning and implementation. However, this case’s
specific contexts such as a high percentage of African Americans residing in the study
area, and low-income levels must be considered for transferring insights from this case;
such context factors are shown to influence participation processes. Still, the attributes
explored and examined in this case can be studied for other similar cases, especially with
respect to their interactions depicted in Figure 2.3 and explained in the previous chapter.
108
Implications of Research
Insights from this work can inform frameworks for community participation and
engagement for green stormwater infrastructure projects in urban areas. For instance, part
of the City of Atlanta’s plan for green stormwater infrastructure implementation is to
develop a framework for outreach and community engagement. This work gives a
comprehensive understanding of a case which can be used to inform these efforts,
especially in this research’s case study area. Similarly, insights can be used in other urban
areas to improve participation processes by capitalizing on case context features such as
collaborative community partnerships.
Furthermore, a second implication is supporting and enhancing the resources of
community organizations and partnerships. Federal, state and local government agencies
can provide funding through grants to support collaborative partnership efforts. These
efforts have been shown to facilitate more effective participation processes that build
social, human and political capital. It is also necessary to contribute to avenues for
capacity building so that communities are better equipped to solve problems in their area.
Within design and engineering practice, one implication is to better understand
social constraints. Understanding social conditions, like the ones explored in in the
context theme of this research, can help to encourage designs that solve multiple
problems simultaneously. For instance, green stormwater infrastructure can be used to
create community amenities while fulfilling stormwater objectives and performance
goals. Thus, designs can address social constraints as well. Traditionally, engineers are
109
adept at technical challenges while considering costs, and more recently, environmental
constraints. However, much more work is needed to develop the consideration of social
constraints.
Within engineering education, findings from this work can be incorporated into
educational materials for civil engineering classes to show relevance of community
participation for stormwater infrastructure projects. This can complement engineering
education in that it can broaden students’ perspectives about engineering approaches to
civil infrastructure. Most students gain an understanding and practice the engineering
design process throughout their education. They are trained to solve problems with
defined constraints, and to apply similar techniques to different problems. Though this is
a necessary component of engineering education, students also need to understand that
they are being trained to address societal needs rather than impose solutions.
Recommendations for Future Research
Further research can build from the descriptive and causal analysis to measure
how much case context factors influence participation process features and
implementation through regression analysis. Similarly, another study can measure how
much participation process variables influence implementation. This approach would use
multiple regression analysis to analyze factors that relate participation process variables
to likelihood of implementation, while measuring other factors that influence
110
implementation as well. Having numeric values of influence can contribute to a variety of
model building techniques, for example, systems dynamics and agent based modeling.
Another avenue for future research involves using social network analysis to
investigate the relationships among stakeholders in collaborative efforts for decentralized
water infrastructure. This work has value to inform and improve planning and design
processes that incorporate a range of stakeholders, which is now more common for
decentralized water infrastructure. To quantify and qualify the impact of collaborative
decisions, implementation outcomes can be measured through investigating technical
performance of water systems.
One straightforward avenue to extend this research is to include additional case
studies with similar context features for multiple case study analysis. Cases can be
compared holistically or with embedded units of analysis. If done considering embedded
units, the units of analysis would be green stormwater projects and would be chosen
based on the scale and the size of the project.
APPENDICES
111
Appendix A
Informed Consent
Information about Being in a Research Study
Clemson University
Understanding the role of community participation in design decisions for
stormwater management
Description of the Study and Your Part in It
Leidy Klotz, along with Nicole Barclay, is inviting you to take part in a research study.
Leidy Klotz is an associate professor of Civil Engineering at Clemson University. Nicole
Barclay is a graduate student at Clemson University, running this study with the help of
Leidy Klotz. The purpose of this research is to understand the influence of community
participation for infrastructure decisions between green and traditional infrastructure with
respect to stormwater management.
Your part in the study will be to respond to interview questions. It will take you about 30
minutes to be in this study. Interviews will be audio recorded and the recordings will be
destroyed when the analysis for the study is complete.
Risks and Discomforts
We do not know of any risks or discomforts to you in this research study.
Possible Benefits
We do not know of any way you would benefit directly from taking part in this study.
However, understanding the role of community participation can lead to more informed
investments in this area, and subsequently encourage more green stormwater
infrastructure decisions for stormwater management.
Protection of Privacy and Confidentiality
With your permission, we would like to include your name in our research reports and
writings subject to publication.
112
If you prefer that we keep your identity private, we will do everything we can to protect
your privacy and confidentiality. We will not tell anybody outside of the research team
that you were in this study or what information we collected about you in particular.
Choosing to Be in the Study
You do not have to be in this study. You may choose not to take part and you may choose
to stop taking part at any time. You will not be punished in any way if you decide not to
be in the study or to stop taking part in the study.
Contact Information
If you have any questions or concerns about this study or if any problems arise, please
contact Leidy Klotz at Clemson University at 864.656.3326.
If you have any questions or concerns about your rights in this research study, please
contact the Clemson University Office of Research Compliance (ORC) at 864-656-6460
or [email protected]. If you are outside of the Upstate South Carolina area, please use the
ORC’s toll-free number, 866-297-3071.
Consent
I have read this form and have been allowed to ask any questions I might have. I
agree to take part in this study.
All information that is obtained with this study and that can be identified with you will
remain confidential unless you agree to disclosure of your identity or as required by law.
Please indicate if your name may be used in publications or presentations by selecting
one of the options below:
____ You MAY use my name in research reports and writings subject to publication.
____ You MAY NOT use my name in research reports and writings subject to
publication.
Participant’s signature: _____________________________Date: _________________
113
Appendix B
Interview Protocol
Background
1. Can you tell me about your background?
Probe questions:
i. How long have live in this neighborhood?
ii. What organizations are you a part of for Proctor Creek efforts/what is
your role in this organization?
iii. How long have you been involved?
Context
1. Can you describe some of the problems related to stormwater management and
infrastructure?
2. How have different groups been working with the community to address
challenges?
Probe questions:
i. Have you seen issues of conflict/different agendas?
ii. Can you tell me about the levels of trust within the community towards
different organizations/government institutions?
Process
1. Tell me about your experience during the _____ participation process.
Probe questions:
i. Do you think that the community’s concerns were addressed? Can you
elaborate?
2. Can you tell me about the PNA Study?
Probe question:
i. Do you think the community’s ideas and contributions were represented in
the final document? Can you elaborate?
114
3. What efforts have there been for capacity building and education for community
residents?
Probe question:
i. Can you describe further?
4. What are the issues with getting community members to participate?
Outputs
1. What documents and decisions have been made for green stormwater
infrastructure development in Proctor Creek neighborhoods?
Implementation
1. What factors do you think it will take to advance green stormwater infrastructure
in Proctor Creek?
2. What do you think is the role of community participation in green stormwater
infrastructure implementation?
Wrap-up Questions
1. Is there anything else you would like to add?
2. Who else would you recommend I talk to?
115
Appendix C
List of Documents
1. Proctor Creek North Avenue Watershed Basin: A Green Infrastructure Vision –
prepared by Park Pride
2. Boone Boulevard Green Infrastructure Conceptual Design – prepared by City of
Atlanta, Department of Watershed Management
3. Proctor Creek’s Boone Boulevard Green Street Project Health Impact
Assessment – prepared by the EPA
4. Proctor Creek – Headwaters to Chattahoochee River: Watershed Improvement
Plan – prepared by Atlanta Regional Commission
5. Visioning for Green Infrastructure – prepared by ECO-Action
6. Upper Proctor Creek Watershed Action Plan: A waterway on the rebound -
prepared by the City of Atlanta Department of Watershed Management.
7. Proctor Creek Problems – prepared by the EPA
8. Proctor Creek Community Engagement 3‐Step Plan – prepared by the EPA
9. Proctor Creek Final Fact Sheet – Making a Visible Difference – prepared by the
EPA
10. Partners for progress in Proctor Creek: Recreating a Sustainable Creekside
Community in the City, The Urban Waters Federal Partnership – prepared by the
EPA
116
11. Implementing Green stormwater infrastructure: Atlanta's Post-Development
Stormwater Ordinance – prepared by City of Atlanta, Department of Watershed
Management
12. City of Atlanta: Green Infrastructure Strategic Action Plan – prepared by the City
of Atlanta
13. AUC Green Infrastructure Community Forum Agenda: Spelman College, Atlanta
– prepared by ECO-Action
14. Green Infrastructure Curriculum Guide: A Resource for Infusing Green
infrastructure into AUC Coursework
15. ECO-Action Hosts First Green Infrastructure Community Forum at Spelman –
prepared by ECO-Action
16. AUC and Community Together Promote Green Infrastructure at Community
Forum 2 – prepared by ECO-Action
117
Appendix D
Codebook
Context
Attribute/Code When to use Brief Definition/Explanation
type of issue flooding conditions;
stormwater
management issues
describes the case situation and its
characteristics
ecological
conditions
issues of water
quality; stream
hydrology
characterized by issues that deal water quality,
stream hydrology, hydrological processes,
species variation
socioeconomic
conditions
income, education
status, employment
the general income levels, education status, and
occupations in the case community
government-
institutional
settings
government
involvement
interacting government agencies at the federal,
state and local levels
civic
community
conditions
human capital "the native intelligence, skills, abilities,
education, and health of individuals within a
community" (Flora, 2004 p. 8)
social capital "community characteristic based on the
interactions among individuals and groups.
Includes mutual trust, reciprocity, collective
identity, cooperation and a sense of a shared
future" (Flora, 2004 p. 9)
political capital "Political capital is the ability of a community
to
influence the distribution of resources and
to
determine which resources are made
available
influence the distribution of resources and
to
determine which resources are made
available" (Flora, 2004, p. 10)
levels of trust participant trust in government agencies and
stakeholders holder groups
issues of conflict
pre-existing issues of disagreements
118
Process
participation
mechanisms
participation
mechanisms
the method that facilitates participation
processes and the level of participation
characteristics
of mechanisms
description of
participants
characteristics of participants
type of output product generated from participation process
goal of process objectives to be accomplished during the
process
Attribute/Code When to use Brief Definition/Explanation
Output
decisions and
plans
decisions recorded in
plans and documents
describes recorded contribution, decisions, and
plans
Implementation
stage of
implementation
describes stage of
implementation
point in the process of implementation
likelihood of
implementation
describes likelihood
of implementation
prospect of implementation
implementation
influencers
implementation
influencing factors
factors that have an impact on implementation
outcomes
119
Appendix E
Data Reference Counts
Table 7.1 presents a summary of number of coded sources and references for the
theoretical constructs of this case which were used as the codes for this case. All codes
are not considered to be equal. For example, the type of issue was not necessarily more
important than the ecological conditions. This table is included to show the
representativeness of the attributes in the data.
Table 7.1: Summary of reference counts for coded data
Theme Attribute Number of
sources
referenced
Number of
references
Type of issue 20 47
Ecological conditions 10 16
Context Socioeconomic conditions
6 16
Civic community conditions
8 21
Government-institutional settings 12 23
Community Participation and
Collaboration
18 62
Type of mechanism and Characteristics
12 43
Process Issues of non-participation
9 13
Motivation for participation 6 10
Education and Capacity Building 18 57
120
Output Decisions and Plans 10 27
Stage of Implementation
Likelihood of Implementation
Implementation Forces other than public participation
influencing implementation
10 31
Stormwater Control Objectives &
Performance Goals
121
REFERENCES
Ahern, J. (2007). Green infrastructure for cities: the spatial dimension. In. In Cities of the
Future: Towards Integrated Sustainable Water and Landscape Management. IWA
Publishing (pp. 267–283).
Arnstein, S. R. (1969). A Ladder Of Citizen Participation. Journal of the American
Institute of Planners, 35(4), 216–224.
ASCE | 2013 Report Card for America’s Infrastructure | Drinking Water: Overview.
(n.d.). Retrieved September 2, 2014, from
http://www.infrastructurereportcard.org/a/#p/drinking-water/overview
Beierle, T. C. (1999). Using Social Goals to Evaluate Public Participation in
Environmental Decisions. Review of Policy Research, 16(3–4), 75–103.
http://doi.org/10.1111/j.1541-1338.1999.tb00879.x
Beierle, T. C., & Cayford, J. (2002). Democracy in Practice: Public Participation in
Environmental Decisions. Resources for the Future.
Benedict, M. A., & McMahon, E. T. (2006). Green Infrastructure: Linking Landscapes
and Communities. Island Press.
Benson, D., Fritsch, O., Cook, H., & Schmid, M. (2014). Evaluating participation in
WFD river basin management in England and Wales: Processes, communities,
outputs and outcomes. Land Use Policy, 38, 213–222.
http://doi.org/10.1016/j.landusepol.2013.11.004
122
Bloomberg, L. D., & Volpe, M. (2008). Completing your qualitative dissertation: a
roadmap frombeginning to end. Los Angeles: Sage Publications.
Brody, S. D. (2003). Measuring the Effects of Stakeholder Participation on the Quality of
Local Plans Based on the Principles of Collaborative Ecosystem Management.
Journal of Planning Education and Research, 22(4), 407–419.
http://doi.org/10.1177/0739456X03022004007
Brody, S. D., Godschalk, D. R., & Burby, R. J. (2003). Mandating Citizen Participation
in Plan Making: Six Strategic Planning Choices. Journal of the American
Planning Association, 69(3), 245–264.
http://doi.org/10.1080/01944360308978018
Burby, R. J. (2003). Making Plans that Matter: Citizen Involvement and Government
Action. Journal of the American Planning Association, 69(1), 33–49.
http://doi.org/10.1080/01944360308976292
Butler, D., & Parkinson, J. (1997). Towards sustainable urban drainage. Water Science
and Technology, 35(9), 53–63.
Chaskin, R. J. (2001). Building Community Capacity A Definitional Framework and
Case Studies from a Comprehensive Community Initiative. Urban Affairs Review,
36(3), 291–323. http://doi.org/10.1177/10780870122184876
Corburn, J. (2003). Bringing Local Knowledge into Environmental Decision Making
Improving Urban Planning for Communities at Risk. Journal of Planning
Education and Research, 22(4), 420–433.
http://doi.org/10.1177/0739456X03022004008
123
Creighton, J. L. (2005). The public participation handbook: making better decisions
through citizen involvement. John Wiley & Sons.
Creswell, J. W. (2013). Qualitative Inquiry & Research Design: Choosing Among Five
Approaches (3rd ed.). SAGE Publications.
Design of Urban Stormwater Controls. (2012). McGraw-Hill.
Dietz, M. E. (2007). Low Impact Development Practices: A Review of Current Research
and Recommendations for Future Directions. Water, Air, and Soil Pollution,
186(1–4), 351–363. http://doi.org/10.1007/s11270-007-9484-z
Duram, L., & Brown, K. (1999). Insights and Applications Assessing Public Participation
in U.S. Watershed Planning Initiatives. Society & Natural Resources, 12(5), 455–
467. http://doi.org/10.1080/089419299279533
Flora, C. B. (2004). Social Aspects of Small Water Systems. Journal of Contemporary
Water Research & Education, 128(1), 6–12. http://doi.org/10.1111/j.1936-
704X.2004.mp128001002.x
Forester, J. (2006). Making Participation Work When Interests Conflict: Moving from
Facilitating Dialogue and Moderating Debate to Mediating Negotiations. Journal
of the American Planning Association, 72(4), 447–456.
http://doi.org/10.1080/01944360608976765
Genskow, K. D., & Born, S. M. (2006). Organizational Dynamics of Watershed
Partnerships: A Key to Integrated Water Resources Management. Journal of
Contemporary Water Research & Education, 135(1), 56–64.
http://doi.org/10.1111/j.1936-704X.2006.mp135001007.x
124
Goonetilleke, A., Thomas, E., Ginn, S., & Gilbert, D. (2005). Understanding the role of
land use in urban stormwater quality management. Journal of Environmental
Management, 74(1), 31–42. http://doi.org/10.1016/j.jenvman.2004.08.006
Grimm, N. B., Faeth, S. H., Golubiewski, N. E., Redman, C. L., Wu, J., Bai, X., &
Briggs, J. M. (2008). Global Change and the Ecology of Cities. Science,
319(5864), 756–760. http://doi.org/10.1126/science.1150195
Grimm, N. B., Grove, J. G., Pickett, S. T. A., & Redman, C. L. (2000). Integrated
Approaches to Long-Term Studies of Urban Ecological Systems Urban ecological
systems present multiple challenges to ecologists—pervasive human impact and
extreme heterogeneity of cities, and the need to integrate social and ecological
approaches, concepts, and theory. BioScience, 50(7), 571–584.
http://doi.org/10.1641/0006-3568(2000)050[0571:IATLTO]2.0.CO;2
Guest, J. S., Skerlos, S. J., Barnard, J. L., Bruce Beck, M., Daigger, G. T., Hilger, H., …
Love, N. G. (2009). A New Planning and Design Paradigm to Achieve
Sustainable Resource Recovery from Wastewater. Environmental Science &
Technology, 43(16), 6126–6130.
IAP2 Public Participation Spectrum. (2014). Retrieved May 28, 2016, from
http://c.ymcdn.com/sites/www.iap2.org/resource/resmgr/Foundations_Course/IAP
2_P2_Spectrum.pdf
Innes, J. E., & Booher, D. E. (2004). Reframing public participation: strategies for the
21st century, Planning Theory & Practice. Planning Theory & Practice, 5(4),
419–436.
125
Irvin, R. A., & Stansbury, J. (2004). Citizen Participation in Decision Making: Is It
Worth the Effort? Public Administration Review, 64(1), 55–65.
http://doi.org/10.1111/j.1540-6210.2004.00346.x
Keeley, M., Koburger, A., Dolowitz, D. P., Medearis, D., Nickel, D., & Shuster, W.
(2013). Perspectives on the Use of Green Infrastructure for Stormwater
Management in Cleveland and Milwaukee. Environmental Management, 51(6),
1093–1108. http://doi.org/10.1007/s00267-013-0032-x
Kloss, C. (2008). Green Infrastructure for Urban Stormwater Management (pp. 1–7).
American Society of Civil Engineers. http://doi.org/10.1061/41009(333)74
Koehler, B., & Koontz, T. M. (2007). Citizen Participation in Collaborative Watershed
Partnerships. Environmental Management, 41(2), 143–154.
http://doi.org/10.1007/s00267-007-9040-z
Koontz, T. M., & Newig, J. (2014). From Planning to Implementation: Top-Down and
Bottom-Up Approaches for Collaborative Watershed Management. Policy Studies
Journal, 42(3), 416–442. http://doi.org/10.1111/psj.12067
Koontz, T. M., & Thomas, C. W. (2006). What Do We Know and Need to Know about
the Environmental Outcomes of Collaborative Management? Public
Administration Review, 66, 111–121.
Laurian, L. (2004). Public Participation in Environmental Decision Making: Findings
from Communities Facing Toxic Waste Cleanup. Journal of the American
Planning Association, 70(1), 53–65.
126
Leach, W. D., & Pelkey, N. W. (2001). Making Watershed Partnerships Work: A Review
of the Empirical Literature. Journal of Water Resources Planning and
Management, 127(6), 378–385. http://doi.org/10.1061/(ASCE)0733-
9496(2001)127:6(378)
Leach, W. D., Pelkey, N. W., & Sabatier, P. A. (2002). Stakeholder partnerships as
collaborative policymaking: Evaluation criteria applied to watershed management
in California and Washington. Journal of Policy Analysis and Management,
21(4), 645–670. http://doi.org/10.1002/pam.10079
Leach, W. D., & Sabatier, P. A. (2005). Are trust and social capital the keys to success?
Watershed partnerships in California and Washington. In Swimming upstream:
Collaborative approaches to watershed management (pp. 233–258).
Leach, W. D., & Sabatier, P. A. (2005). To Trust an Adversary: Integrating Rational and
Psychological Models of Collaborative Policymaking. American Political Science
Review, null(4), 491–503. http://doi.org/10.1017/S000305540505183X
Loh, C. G. (2012). Four Potential Disconnects in the Community Planning Process.
Journal of Planning Education and Research, 32(1), 33–47.
http://doi.org/10.1177/0739456X11424161
Luyet, V., Schlaepfer, R., Parlange, M. B., & Buttler, A. (2012). A framework to
implement Stakeholder participation in environmental projects. Journal of
Environmental Management, 111, 213–219.
http://doi.org/10.1016/j.jenvman.2012.06.026
127
Margerum, R. D. (2011). Beyond Consensus: Improving Collaborative Planning and
Management. MIT Press.
Marsalek, J., & Chocat, B. (2002, January 1). International Report: Stormwater
management. Retrieved July 8, 2015, from
http://www.iwaponline.com.libproxy.clemson.edu/wst/04606/wst046060001.htm
Merriam, S. B. (2009). Qualitative Research: A Guide to Design and Implementation.
Jossey-Bass: A Wiley Imprint.
Miles, M. B., Huberman, A. M., & Saldana, J. (2014). Qualitative Data Analysis: A
Methods Sourcebook (3rd ed.). SAGE Publications.
Montalto, F. A., Bartrand, T. A., Waldman, A. M., Travaline, K. A., Loomis, C. H.,
McAfee, C., … Boles, L. M. (2012). Decentralised green infrastructure: the
importance of stakeholder behaviour in determining spatial and temporal
outcomes. Structure and Infrastructure Engineering, 9(12), 1187–1205.
http://doi.org/10.1080/15732479.2012.671834
Mostert, E. (2003). The challenge of public participation. Water Policy, (5), 179–197.
Neumann, J. E., Price, J., Chinowsky, P., Wright, L., Ludwig, L., Streeter, R., …
Martinich, J. (2014). Climate change risks to US infrastructure: impacts on roads,
bridges, coastal development, and urban drainage. Climatic Change, 1–13.
http://doi.org/10.1007/s10584-013-1037-4
Niemczynowicz, J. (1999). Urban hydrology and water management – present and future
challenges. Urban Water, 1(1), 1–14. http://doi.org/10.1016/S1462-
0758(99)00009-6
128
Nirupama, N., & Simonovic, S. P. (2007). Increase of Flood Risk due to Urbanisation: A
Canadian Example. Natural Hazards, 40(1), 25–41.
Parkinson, J. (2003). Drainage and stormwater management strategies for low-income
urban communities. Environment and Urbanization, 15(2), 115–126.
http://doi.org/10.1177/095624780301500203
Parkinson, J., & Mark, O. (2005). Urban Stormwater Management in Developing
Countries. IWA Publishing.
Paul, S. (1987). Community participation in development projects. Washington, DC:
World Bank.
Pickett, S. T. A., Jr, W. R. B., Dalton, S. E., Foresman, T. W., Grove, J. M., & Rowntree,
R. (1997). A conceptual framework for the study of human ecosystems in urban
areas. Urban Ecosystems, 1(4), 185–199.
http://doi.org/10.1023/A:1018531712889
Priscoli, J. D. (2004). What is Public Participation in Water Resources Management and
Why is it Important? Water International, 29(2), 221–227.
http://doi.org/10.1080/02508060408691771
Randolph, J. (2012). Environmental Land Use Planning and Management (2nd edition).
Island Press.
Rauch, W., Seggelke, K., Brown, R., & Krebs, P. (2005). Integrated Approaches in
Urban Storm Drainage: Where Do We Stand? Environmental Management, 35(4),
396–409. http://doi.org/10.1007/s00267-003-0114-2
129
Reed, M. S. (2008). Stakeholder participation for environmental management: A
literature review. Biological Conservation, 141(10), 2417–2431.
http://doi.org/10.1016/j.biocon.2008.07.014
Roy, A. H., Wenger, S. J., Fletcher, T. D., Walsh, C. J., Ladson, A. R., Shuster, W. D., …
Brown, R. R. (2008). Impediments and Solutions to Sustainable, Watershed-Scale
Urban Stormwater Management: Lessons from Australia and the United States.
Environmental Management, 42(2), 344–359. http://doi.org/10.1007/s00267-008-
9119-1
Ryan, R., & Brown, R. (2001). Value of Public Participation: Policy for Stormwater
Quality for the Watershed. In Watershed Management and Operations
Management 2000 (pp. 1–13). American Society of Civil Engineers. Retrieved
from http://ascelibrary.org/doi/abs/10.1061/40499%282000%2962
Sabatier, P. A., Focht, W., Lubell, M., Trachtenberg, Z., Vedlitz, A., & Matlock, M.
(2005). Swimming Upstream: Collaborative Approaches to Watershed
Management. MIT Press.
Saghafian, B., Farazjoo, H., Bozorgy, B., & Yazdandoost, F. (2007). Flood
Intensification due to Changes in Land Use. Water Resources Management,
22(8), 1051–1067.
Saldana, J. (2009). Coding Manual for Qualitative Researchers. SAGE Publications.
Saldana, J. (2011). Fundamentals of Qualitative Research.
Samuelson, C. D., Vedlitz, A., Whitten, G. D., Matlock, M., Alston, L., Peterson, T. R.,
& Gilbertz, S. J. (2005). Citizen Participation and Representation in Collaborative
130
Engagement Process. In Swimming Upstream: Collaborative Approaches to
Watershed Management (pp. 137–169). MIT Press.
Sanoff, H. (2000). Community Participation Methods in Design and Planning. John
Wiley & Sons, Inc.
Stake, R. E. (2010). Qualitative research: studying how things work. The Guilford Press.
Stratus Consulting Inc. (2009). A Triple Bottom Line Assessment of Traditional and
Green Infrastructure Options for Controlling CSO Events in Philadelphia’s
Watersheds: Final Report.
Tang, Z., & Brody, S. D. (2009). Linking Planning Theories with Factors Influencing
Local Environmental-Plan Quality. Environment and Planning B: Planning and
Design, 36(3), 522–537. http://doi.org/10.1068/b34076
United Nations. (2014). World Urbanization Prospects. Retrieved from
http://esa.un.org/unpd/wup/Highlights/WUP2014-Highlights.pdf
U.S. EPA. (2008). Clean Watersheds Needs Survey 2008: Report to Congress. U.S. EPA.
Retrieved from http://www.epa.gov/sites/production/files/2015-
06/documents/cwns2008rtc.pdf
U.S. EPA. (2010). Green Infrastructure Case Studies: Municipal Policies for Managing
Stormwater with Green Infrastructure. EPA Office of Wetlands, Ocean and
Watersheds.
US EPA. (2014a). Urban Waters Federal Partnership [Overviews & Factsheets,].
Retrieved July 8, 2015, from
http://www.urbanwaters.gov/?_ga=1.26032446.2090089352.1425048440
131
US EPA. (2014b). What is Green Infrastructure? [Data & Tools]. Retrieved June 4, 2016,
from zotero://attachment/280/
Wang, X. (2001). Assessing Public Participation in U.S. Cities. Public Performance &
Management Review, 24(4), 322–336.
Webler, T., & Tuler, S. (2001). Public Participation in Watershed Management Planning:
Views on Process from People in the Field. Human Ecology Review, 8(2), 29–39.
WERF | Online Tools. (2009). Retrieved June 4, 2016, from
http://www.werf.org/liveablecommunities/studies_orlando_fl.htm
Yin, R. K. (2009). Case Study Research: Design and Methods (4th ed.). SAGE
Publications.
- Blank Page