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Abstract: Green infrastructure is a strategically planned network of natural and semi-natural areas,
including green and blue spaces and other ecosystems, designed and managed to deliver a wide
range of ecosystem services at various scales. Apart from the ecological functions, green
infrastructure, as a planning tool, contributes to social and economic benefits, leading to the
achievement of sustainable, resilient, inclusive and competitive urban areas. Despite recent
developments, there is still no consensus among researchers and practitioners regarding the concept
of green infrastructure as well as its implementation approaches, which makes it often difficult for
urban planners and other professionals in the field to develop a robust green infrastructure in some
parts of the world. To address this issue, an integrative literature review was conducted to identify
which green infrastructure planning principles should be acknowledged in spatial planning
practices to promote sustainability and resilience. As a result of this literature review, the most
common eight green infrastructure planning principles were selected—connectivity,
multifunctionality, applicability, integration, diversity, multiscale, governance, and continuity.
These principles intend to promote and simplify the development and use of green infrastructure
by different academic and implementation organizations and provide a more defined model for
sustainable landscape management in order to help practitioners and decision makers during the
conceptualization and planning of green infrastructure.
1. Introduction
In 2018, more than 4 billion people lived in urban areas, and, according to the United Nations
[1], the urban population will increase by 2.5 billion by 2050. This, however, creates enormous social,
economic and environmental pressures in cities [2,3], like poverty, unemployment, criminality
increase, political crisis, biodiversity loss, pollution and natural resources depletion. Urban areas also
contribute significantly to climate change, since they are responsible for greenhouse gas emissions
[4], as well as other man-made activities, such as agriculture. To address these challenges, several
nature-based solutions and ecosystem services strategies have been developed across the world, that
simultaneously contribute to human well-being and environmental protection [5–9], such as, for
example, green infrastructure implementation.
Green infrastructure assumes an important role regarding the challenges previously presented,
since it comprises a network of green and blue spaces, designed and managed to deliver different
published in the same period, which contributed to the greenway movement in the United States.
With the publication of Greenways: The Beginning of an International Movement in 1995, Fabos & Ahern
[40] present a large range of international literature and research, as well as case studies about this
issue, contributing to the beginning of an unprecedented international movement at the time.
However, it was probably the statement of President’s Commission on Americans Outdoors in 1987
that started that movement [34].
The President’s Commission [41] was responsible for stimulating the interest in this topic, since
it recommended a network of greenways in order to bring people together and provide outdoor
recreation opportunities and open spaces close to their homes [30,33,34,39,42]. Nevertheless, Little
[43] might have been the first person to present a clear definition of greenways in his book, in 1990.
Here, greenways were “…described broadly as linear parks, open spaces, and protected areas in
cities, suburbs, or the country-side…”. Fabos, [34], however, went further and addressed greenways
as “[nature] corridors of various widths, linked together in a network in much the same way as our
networks of highways and railroads have been linked” and categorized them in three groups:
ecological greenways, recreational greenways, and historical heritage and cultural corridors. For him,
greenways were not simply open spaces and corridors with environmentally significant natural
systems that meant to be protected, but also areas and places that could have a recreational,
educational, and scenic use. Ahern [31] even added that “greenways are networks of land containing
linear elements that are planned, designed and managed for multiple purposes, (…) including the
ones compatible with the concept of sustainable land use”.
Greenways were described as planning tools with the potential to serve both human and nature
purposes [29]. But what were exactly the arguments that supported this greenway movement and
why was it so important at that time? According to Searns, [29], in the second half of the 20th century,
the increase of human population and development of urban settlements have contributed to
environmental degradation and ecosystem alteration. Besides all the environmental problems
originating due to the rapid urbanization and economic growth, negative externalities such as
poverty, congestion, unemployment and crime [44,45] started to arise as well. As a result, greenways
started to be seen as an adaptative response to the physical and psychological pressures of
urbanization, as they pursued multiple environmental and ecological purposes [29,39,46], along with
cultural and social ones [47].
Although the greenway movement was starting to spread around the globe, due to different
geographical, political, and scientific systems [37], different definitions of this concept have arisen. In
Europe, for example, the term ecological networks was prevalent [36,37]. Ecological networks were
defined by Jongman [36] as “systems of nature reserves and their interconnections that make a
fragmented natural system coherent, so as to support more biological diversity than in its non-
connected form”. Opdam, Steingröver, & Rooij [48] complemented this definition referring to
ecological networks as “(…) a set of ecosystems of one type, linked into a spatially coherent system
through flows of organisms, and interacting with the landscape matrix in which it is embedded.
Hence, the ecological (or ecosystem) network is a multi-species concept, linking ecosystems (…)”.
Both these definitions reinforce the perception that ecological networks have specific functions and
objectives related to the protection and enhancement of biodiversity, as well as wildlife conservation
and respective habitats [49,50]. Additionally, ecological networks were seen also as planning tools
that contributed to improving urban areas aesthetics, as well as cultural identity, to create more
sustainable and greener communities [6].
In fact, according to Ignatieva et al. [6] and Walmsley [32], the greenway movement contributed
widely to the development of ecological networks in Europe and helped to provide an inclusive
urban green infrastructure, along with greenbelts and green wedges. However, it was not until 2001
that the concept of green infrastructure was introduced by Benedict & McMahon [10] as an
“interconnected network of green space that conserves natural ecosystem values and functions and
provides associated benefits to human populations”. One year later, Sandström [51] reinforced this
idea, emphasizing the multifunctional role of the green infrastructure and its importance for urban
planning, stating even this planning instrument was as important as any other “technological
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infrastructure” for people’s life quality. The green infrastructure should, therefore, be seen as
essential in every urban area, as opposed to something nice to have [32] and must be planned,
designed and financed like other “regular” infrastructures.
The green infrastructure concept has, since then, gained attractiveness among researchers and
decision-makers, and its definition has evolved significantly over the years, with hundreds of papers
being published with multiple approaches [52]. As a result, in 2013, the European Commission
presented its definition of green infrastructure in order to enhance it and to become an integral part
of spatial planning and territorial development in all its member states [53]. Green infrastructure is
thus referred to as “a strategically planned network of natural and semi-natural areas with other
environmental features designed and managed to deliver a wide range of ecosystem services. It
incorporates green spaces (or blue if aquatic ecosystems are concerned) and other physical features
in terrestrial (including coastal) and marine areas. On land, GI is present in rural and urban settings”.
This definition captures the role that green and blue spaces take regarding ecosystem services
provision at different spatial scales [12]. However, according to the United States Environmental
Protection Agency [54], “green infrastructure is a cost-effective, resilient approach to managing wet
weather impacts that provides many community benefits (…) designed to move urban stormwater
away from the built environment, green infrastructure reduces and treats stormwater at its source
while delivering environmental, social, and economic benefits”. This definition, contrary to what
happens in Europe, highlights the focus of many American planning strategies on stormwater
management and water flows control [55–57] and influences a majority of planning practices in
America. However, even though green infrastructure started as a tool to address urban stormwater,
today it is seen as an instrument that provides other environmental benefits, such as climate
regulation. According to Salmond et al., [17] that has been a number of initiatives to promote the
‘greening’ of cities through urban reforestation and protection programs to increase thermal
comfort—such as the New York City ‘Million Trees’ program and other initiatives that can be found
in other North American cities, as stated by EPA [58].
Despite the ecological functions being often the main focus of green infrastructure planning,
social benefits are also very important criteria in the planning interventions. Not only do green spaces
allow numerous recreational activities—which have a positive impact in people’s health [59] and
well-being—but they also contribute to increasing the connectivity between urban and rural areas,
and, therefore, local distinctiveness, social inclusion, and sense of community [28]. Apart from that,
due to a decrease in health expenses, the capacity of attracting skilled workers and tourists and the
increase of property value [28,60], green infrastructure can promote economic growth in urban areas
[59,61]. However, to fulfill these multifunctional purposes, both the quantity and quality of urban
and peri-urban green spaces must be addressed in planning processes [59] and the development of
green infrastructure planning principles is fundamental. Green infrastructure principles are, in fact,
underlying grounds that help guide and facilitate the planning procedures of green infrastructure, in
order to ensure that it contributes to a network of quality and functional green spaces, capable of
meeting the needs of a determined urban area, contributing in the best way to the sustainability of a
given region or local area, depending on its scale.
Even though the green infrastructure, and all its elements, compensate for many flaws in the
traditional planning models, this instrument can only be identified as a “good practice” for achieving
urban sustainability when it is combined with traditional grey infrastructure [62]. How well other
planning instruments are designed and put into practice and the political agenda is developed
directly influences the conservation of green spaces and the functionality of green infrastructure.
Understanding the mechanisms between urban design and human actions on ecological functions
are significant to achieve sustainability, at a time where effective urban planning is needed. By
ensuring green infrastructure planning follows the planning principles that guarantee the right
functioning of green spaces, it is possible to meet the growing needs of the population for recreational
spaces and natural environments, as well as increasing resilience in urban areas.
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3. Methods
There are several methods used for literature reviews processes that are helpful to address new
or already known issues, and each provides different insights for knowledge creation, text
development, and individuation [63]. As a growing research topic, green infrastructure planning
principles is an issue that would highly benefit from a synthesis of the literature, since there is still
no consensus among researchers, practitioners, and political actors on what principles should be
taken into consideration in green infrastructure planning [64]. To do so, this research focuses on an
integrative literature review on green infrastructure planning principles. An integrative literature
review of a growing topic like this provides the opportunity for a holistic conceptualization and
synthesis of the literature to date; that is, an initial or preliminary conceptualization of the topic [65].
The choice to conduct an integrative literature review to select the principles to take into
consideration in green infrastructure planning is appropriate, as it allows the selection of relevant
studies through a broad sampling of diverse sources, including theoretical and empirical sources, or
experimental or non-experimental studies [66,67].
The integrative literature review conducted in this research was structured using a combination
of several procedures inspired by Klein et al. and Pickering et al., among other authors, [66,68–72],
that assure the quality and effectiveness of the review. As presented in Figure 1, to define the
sampling frame, the methodological approach relied on three main phases: planning of the research;
screening and selection of the publications; and content analysis of the remaining documents.
Figure 1. Overview of the methodological approach adapted from Klein et al. [66].
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The first phase consisted of two steps. The first one was to identify and define the research topic,
to ensure that it is original and appropriate, as well as to identify what the questions are that should
be addressed in the literature [69]. Since the focus of the research question is what principles green
infrastructure planning must consider to promote sustainability and resilience at the local scale, a
combination of two sets of terms were selected to ensure a high level of relevance of the resulting
documents. Firstly, the expression “green infrastructure planning” was included to make sure that
the articles were consistent with the main topic, and then, the terms “principles”, “urban”, “local”
and “practices” were added using the operator “and” in between them in the search expression to
incorporate terms related to green infrastructure planning principles at local scale in urban areas. It
is important to refer that all these words were selected due to their correlation with the topic studied
and the query was designed to search in all fields in the databases, which means the information was
screened in all fields (including title, abstract, topic, authors, affiliations, etc.). It is important to state
that no filter was applied for the year of the papers, so the sample extracted from the databases
included all publication years.
Using Scopus and Web of Science databases, the search query returned a total of 200 documents
(at the time this research was conducted), which were then run through a screening and selection
process (phase II). This process consisted of the development of specific criteria to scrutinize the
papers and, thus, select only the relevant ones [66,73]. The titles, abstracts, and the full text of the
resulting sample were screened for relevance according to the criteria presented in Table 1: (1)
conceptual and empirical studies on green infrastructure planning practices; (2) inclusion of explicit
or implicit green infrastructure planning principles. Although all the criteria were chosen based on
their relevance for the research topic, the specific reasons are as follows. First, the inclusion of both
conceptual and empirical studies is important to understand not only the theorical concepts around
the topic of research, but also the actual practices conducted worldwide, in order to understand the
implementation developments regarding green infrastructure planning principles. Although there is
a relation between ecosystem services and green infrastructure, all studies only focused on ecosystem
services integration in spatial planning were excluded. Since the main focus on this integrative
literature review is to understand what the principles that should be considered in green
infrastructure planning are, the inclusion of green infrastructure planning principles in the full text
of the papers is a valid and essential criterion. The principles could be either explicitly represented in
the full text of the article, or implicitly (that is, when even not clearly expressed in the text, the authors
approach the principles in a more subtle yet comprehensive way). In addition to the database results,
to obtain a larger sample beyond peer-reviewed sources, a total of 9 publications were added to the
initial sample, including peer review papers, as well as other non-academic studies, that were
considered relevant for this research and did not appear in the sample obtained from the databases.
These 9 additional papers were identified based on the authors’ knowledge of various sources outside
of the scope of the search query. Only documents written in English were considered in this analysis.
Criteria Description
Conceptual and empirical
The paper may focus on the theory of the topic, or may include
studies on green infrastructure
evidences from practical application
planning practices
The paper contains explicit information regarding green
Inclusion of explicit or implicit
infrastructure planning principles or may briefly describe a
green infrastructure planning
green infrastructure planning principle without using the word
principles
“principle”
After the screening and selection of the final sample, the 104 documents were scrutinized
through a qualitative content analysis to summarize the content of the selected data [74]. Content
analysis is a research method used to test theoretical issues to enhance understanding of the data,
where it is possible to obtain a condensed number of concepts or categories describing a
Land 2020, 9, 525 7 of 20
phenomenon, a theory or a research topic [75]. For the purpose of this study, the main objective of
the content analysis of the final sample of papers is to build up a number of green infrastructure
planning principles based on theorical studies, evidences, and implemented projects. So, during the
analysis of the papers, the word “principle” was located in each document and, from there, the
authors identified what other words or phrases appear next to it, that were organized into categories
(principles). As the research went further, more words were searched in the documents each time an
item was reported that did not fit into existing words that were being searched. Through a careful
interpretation of the documents and the all the resulting categories, the authors were, then, able to
identify the most common green infrastructure planning principles in the literature.
Table 2. Green infrastructure planning principles identified in the integrated literature review.
succeed which will not be appreciated and supported by the local 9,143,146,150,
population and its objectives and goals will not be accomplished. 155–166]
A major flaw of green infrastructure projects has been a lack of post-
implementation monitoring or empirical measurements of outcomes of
the ecosystem services and functions they claim to provide. In this [21,23,77,78,8
sense, to be effective, green infrastructure must require frequent 0,88,90,91,105
investment, management and updates, and municipalities must be able ,114,117,124,1
Continuity
to frequently release new information about their projects, their goals, 28,135,139,14
what was accomplished and what are their prospects regarding 0,146,150,154,
green/blue spaces. In this sense, green infrastructure plans must have 157,167]
a monitoring system well identified, or periodic reports with the
evolution of the planned green projects.
Because the rapid urbanization is affecting the availability of green open spaces in urban areas,
the ecological functions of ecosystems and the provision of ecosystem services are at risk. So, the need
to incorporate nature-based solution into the building environment (grey infrastructure) has become
more urgent. As a result, the implementation of green infrastructure to deal with environmental
problems in urban areas has been growing, especially the problems related with stormwater
management and flood control [85,87]. Although it can also be applied to other functions [87], in the
literature, the integration principle is frequently mentioned in studies related to stormwater systems.
However, despite green infrastructure practices in North America having a clear focus of stormwater
management, compared to other regions [55,57], it was interesting to observe that only three out of
the 21 publications that mentioned the integration principle were conducted in American Institutions
or have American sites as case studies. These results do not mean, however, that there has been a
decreasing trend in green infrastructure planning studies in North America, but rather that other
regions in the world are becoming more aware of the benefits of green infrastructure planning as a
tool to manage water flows in urban areas sustainably and are considering the integration principle
as a key component to be included in their planning strategies.
Public participation has become an important element in spatial planning. The involvement of
citizens and local actors in spatial planning processes is an opportunity to take into consideration
their knowledge into decision-making, which could be lost in cases where public participation is
lacking [156]. Stakeholder engagement in green infrastructure planning is an important issue that is
discussed in several studies, as shown in Table 2. In fact, in this study, governance was mentioned in
50 papers out of the 104 analyzed, which is consistent with the findings of Dorst and Davies &
Lafortezza [21,120], that is, social inclusion is increasingly considered a key feature of green
infrastructure planning. These results suggest that strategic approaches to green infrastructure
planning must include stakeholders inputs and considerations, which could involve new planning
processes, knowledge and resources [21].
Although citizen engagement in green spaces planning has been recognized as crucial for the
success of green infrastructure implementation, few authors considered this a key green
infrastructure planning principle. Even though governance, similar to integration and diversity
principles, is related to more practical studies, from the 50 papers where it was mentioned, only 10
of them actually defined governance (or social inclusion) as a key principle for green infrastructure
planning. The remaining publications acknowledge its importance in spatial planning, especially for
green space planning and ecosystem services integration in policy making, but they do not consider
it as a core principle. These results, however, may be linked to the fact that most of the literature
concerning green infrastructure still focuses on the theorical fundaments of this topic, where
multifunctionality, connectivity, and multiscale are the prevalent principles in green infrastructure
planning. In addition, the involvement of multiple actors in the management of green infrastructure
is mentioned by some authors as fundamental to improve other principles of green infrastructure,
such as multifunctionality, for example [114]. As much as governance may in fact contribute to the
success of other principles, for example continuity, governance has gained such an importance in
planning procedures in recent years that it must be considered by itself a core principle of green
infrastructure planning. In reality, governance intends to facilitate more equitable access to green
space services [87] and strengthen green infrastructure resilience. Even though the majority of papers
analyzed concerning governance focused on implementation practices, the importance in considering
governance in policy making process is unanimous.
One of the findings of this research was the fact that some authors pointed out several green
infrastructure principles in their studies that were not seen in any others. For that reason, they were
not selected for this study, as they were not mentioned and validated by other peers in different
studies. However, there were two principles in particular that stood out in more than one study and
seemed to be mentioned by several authors. Those principles were accessibility [91,100,115,139,147]
and evidence-based approaches [10,24,105]. The accessibility principle refers to the guarantee that all
people can use, enjoy, and positively contribute to green infrastructure [91], and it is an important
ground to be acknowledged in green infrastructure planning. However, in the eyes of the authors of
Land 2020, 9, 525 11 of 20
this study, when it comes to green spaces planning, accessibility is something that is already intrinsic
in the concept of green infrastructure. Since one of the most well-known functions of green spaces is
recreation and leisure, accessibility is already considered in the planning process of these areas, as
well as other public spaces in urban areas. Besides that, other green infrastructure principles that
were considered in this research already contemplate (even if indirectly), the accessibility of people
to green spaces. In addition, green infrastructure includes not only urban and manmade green spaces,
but also natural areas and spaces, green or otherwise, for non-recreational purposes, that are not
accessible to everyone. For those reasons, accessibility was not identified as a core green
infrastructure principle and was not included in the results in Table 2. As for the evidence-based
approached, some studies defended the idea that green infrastructure planning must be based on
robust scientific knowledge gained from a number of different fields [105]. Nonetheless, as much as
this is important and crucial for a successful green infrastructure planning and implementation, this
principle applies to every planning process or project. Nothing can be planned without sufficient
evidence-based knowledge and, for that reason, the authors of this research also considered this an
implicit green infrastructure principle, and for that, it was not considered as a core principle of green
infrastructure planning.
Unlike the previous principles (accessibility and evidence-based approach), none of the 104
papers analyzed in this research directly mentioned the applicability or the continuity principles as
core green infrastructure principles. Similar to the findings of Lennon and Scott [95], there is still
limited attention in the literature regarding practical procedures and implementation strategies of
green infrastructure. In addition, some studies also mentioned the lack of detailed action strategies
or policies, as well as implementation approaches in most of green infrastructure plans already
developed [77], and how much this was a problem for the application of green infrastructure. For
these reasons, the authors of this research consider that the applicability should be considered a core
green infrastructure principle that must be recognized in the planning processes. As stated
previously, green infrastructure planning must consider the applicability, adaptability and
implementation of the projects, which accounts for whether the plan (and the green projects) are
realistic, can be implemented and developed, and if the solutions presented and adaptable to the
considered area or not.
Similar to applicability, the lack of post-implementation monitoring or empirical measurements
of the outcomes and benefits of green infrastructure was also referred by several authors as
something that damaged the implementation of green infrastructure. As stated by Kim and Tran [77]
local plans should reflect changes as well as follow a monitoring process to ensure plan consistency
and future green infrastructure plans should include a continuously monitoring performance and
identify barriers to implementing green infrastructure planning. These issues, brought in 21
publications out of the 104 analyzed, made the authors of this research consider continuity as a core
and important principle of green infrastructure planning.
5. Conclusions
Due to its multiple benefits, which include climate change adaptation, risk mitigation, social
cohesion human well-being improvement, and urban regeneration, green infrastructure planning has
seen an increase around the world. Nevertheless, due to the ambiguity of the term, there is still no
uniform process of green infrastructure development. Additionally, some of the existent planning
procedures are too complex and difficult to put in practice, and some policymakers may not consider
green infrastructure viable as a planning tool. For those reasons, the purpose of this research was to
identify the most common green infrastructure planning principles through an integrative literature
review of relevant studies and diverse sources, including theoretical and empirical sources, or
experimental or non-experimental studies. Those principles are connectivity, multifunctionality,
multiscale, integration, diversity, applicability, governance, and continuity, and identify important
factors that need to be addressed in future green infrastructure planning procedures.
The literature has pointed out several strategies, guidelines and principles for innovative green
infrastructure planning. The integration of the principles presented in this research in the green
Land 2020, 9, 525 12 of 20
infrastructure planning procedures is crucial to evaluate and understand the level of commitment of
policymakers regarding green infrastructure planning. The analysis of the publications in this
research shows different approaches to identify, select, and evaluate green infrastructure planning
principles, that may be explained by the different priorities in the pollical agendas, which may be
influenced by different geographical locations and cultural dynamics. Still, future research should be
conducted to understand the reasons of such different principles presented in the literature and how
the principles selected can be evaluated and how can they be put into practice.
Author Contributions: Conceptualization, methodology, and writing was carried out by R.M.; J.C.F. and P.A.
reviewed and edited previous draft versions and provided supervision. All authors have read and agreed to the
published version of the manuscript.
Acknowledgments: The authors acknowledge and thank the support given to MARE and CENSE by the
Portuguese Foundation for Science and Technology (FCT) through the strategic projects UIDB/MAR/04292/2020
and UIDB/04085/2020, respectively.
Conflicts of Interest: The authors declare no conflict of interest in the manuscript, or in the decision to publish
the results.
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