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Article

Specific Features of Parks and Their Impact on Regulation and Cultural Ecosystem Services Provision in Warsaw, Poland

Department of Landscape Architecture, Warsaw University of Life Sciences—SGGW, ul. Nowoursynowska 159, 02-776 Warsaw, Poland
*
Author to whom correspondence should be addressed.
Sustainability 2017, 9(5), 792; https://doi.org/10.3390/su9050792
Submission received: 31 December 2016 / Revised: 4 May 2017 / Accepted: 7 May 2017 / Published: 10 May 2017
(This article belongs to the Special Issue Maintaining Ecosystem Services to Support Urban Needs)

Abstract

:
Urban parks are important elements of city green infrastructure. Many studies highlight their positive influence on the quality of life and human well-being as well as their significance for sustaining natural processes in built-up areas. For the last decade, much has been written about urban ecosystem services (ES), however in comparison with the abundance of studies on the potential for delivering ecosystem services by different land use and land cover types, research on the capacity of parks to deliver these services depending on site-specific elements, is relatively uncommon. Thus, this paper reports on research that explored levels of local regulating and cultural ecosystem services delivered by Warsaw parks, as these services are considered as the most important for urban dwellers. The authors based the study on data included in existing policy documents related to environmental and spatial planning for Warsaw, and evaluation of Warsaw green spaces. The assessment included 10 ecosystem services: micro-climate regulation, air quality regulation, noise reduction, balancing rainwater peaks, recreation, social inclusion, physical health benefits, nature experiences, aesthetic appreciation, and sense of identity. The assessment was performed for all Warsaw public parks, covering an area over 2 ha (n = 82). The results enabled us: (1) to assess all parks with respect to their actual impact in delivering 10 studied ecosystem services; (2) to designate their potential capacity to deliver regulating and cultural services; and (3) to allocate all assessed parks into categories that represent their predominant character (multifunctional, with cultural advantage, with regulating advantage or without any predominant function).

Graphical Abstract

1. Introduction

Parks, beside water bodies and forests are regarded as basic elements of green infrastructure (GI) that provide ecosystem services (ES) in urban areas [1,2,3,4,5]. The green infrastructure concept is tightly linked with ES, as green infrastructure is designed and managed in order to deliver a wide range of ES to residents [6]. Among the wide variety of ecosystem services listed in CICES (The Common International Classification of Ecosystem Services), urban parks provide mostly ES in regulating and maintenance, as well as cultural services. It is widely acknowledged that urban parks provide primarily regulating and cultural services of local importance [1,7,8] thus; these services directly influence human wellbeing and quality of life [9]. A review of recent research revealed that the most frequently quoted ES provided by urban parks are: microclimate regulation, air quality regulation, noise reduction, water peak balancing, flood control, erosion control, recreation, social inclusion, psycho-physical health benefits, nature experience, aesthetic appreciation, sense of place and identity, and cognitive development (Table 1).
Many authors underline a positive influence of ES provided by urban parks on quality of life [1,12,15] or human health [16], as well as their significance for sustaining natural processes in built-up areas [17,18,19]. However, in comparison with the abundance of studies on the potential for delivering ecosystem services by different land use and land cover types, studies of the capacity for particular parks to deliver these services, are relatively uncommon (e.g., [2,20,21]).
Since urban ES are site-specific and dependent on local conditions [1,8,11], the characteristics and features of particular parks influence the set and degree of ES they offer. The capacities of urban parks in delivering ecosystem services may depend on various factors, e.g., size of the park [1,20], vegetation structure [2,17,22,23], land cover [11,22], user’s perception [14], accessibility, safety, aesthetics, facilities [20], or location [24]. In this study, we aimed to assess Warsaw parks: (1) in respect to their actual significance in delivering regulating and cultural services, and (2) to measure their potential for multifunctionality. Also, since multifunctionality is one of the principles of green infrastructure [25], the degree of potential multifunctionality of GI objects (e.g., urban parks) is a valuable information source for urban planners and local city authorities [26]. The concept of green infrastructure is in its initial phase of implementation in Warsaw, yet ecosystem services are not regarded as a planning target in official planning documents. In other words, the ES concept is discussed by academics, but not implemented into practice, even though an ecological approach has been present in Polish planning practice for decades [26]. We believe that research on Warsaw parks can advance the implementation of the ES concept into Warsaw green space planning policy. In regards to changing paradigms in understanding the role of urban green spaces, the authors have attempted to translate existing data into prospective indicators of park ES capacity levels. This paper demonstrates that there is a potential to develop an extensive assessment of Warsaw ES on the basis of existing data.

2. Materials and Methods

To assess the potential for parks to provide ecosystem services, we applied a qualitative tool based on a set of expert judgments, including official analytical and planning documents. The main body of our research was based on analysis of existing data. As the concept of ES is not yet included in Polish urban planning and management practice, this analysis uses indirect references to the ES concept. Alike Hansen et al. [27] we based our research on conceptual frameworks similar to ES—“landscape/ecological functions” and “benefits” that humans derive from nature. Following Burkhard et al. [10], we assumed that urban parks deliver ecosystem services at varying degrees. Parks contain different site-specific elements that affect the level of ecosystem services provision [21,24]. The possibility of ecosystem service evaluation at the city scale requires an application of uniform data for all ES providing units. Thus, the first step of our research was to identify comparable data sources for all urban parks. From the point of view of the purpose of this study, the most important sources of information about Warsaw parks were: Warsaw Public Parks’ Assessment (WPPA) [28], Warsaw Spatial Policy (WSP) [29] and Warsaw Environmental Study (WES) [30].
The WPPA is a non-mandatory sectoral study evaluating all Warsaw parks in regards to four issues: recreational qualities, technical state and safety of equipment and vegetation, environmental functioning, and cultural values. The WPPA methodology includes 34 criteria addressing the 4 above mentioned issues, and each criterion is described by a set of questions to be answered. Altogether, there are 217 cross-cutting questions to be responded, and their scope requires both field studies, GIS (Geographic Information System) analyses (e.g., of vegetation cover), and a review of official registers (e.g., a register of monuments). Thus, the WPPA also serves as a data base for Warsaw parks and green squares. It should be noted that the authors of this paper are the main authors of a methodology for the Warsaw Public Parks Assessment and they are experts who perform park assessments. The WSP and the WES are obligatory spatial planning documents elaborated at the city level. The WSP addresses issues such as directions and conditions for future spatial development, while WES presents characteristics of environmental principles that should be taken into account in a planning process.
The WSP, among other issues, explicitly defines the directions of change in the spatial structure and the land-use of a municipality, areas and the rules of preservation of the environment and its natural resources, and moreover, areas and rules of cultural heritage conservation.
The main role of the WES is to provide planners and policy makers with a wide environmental background for their development decisions. WES recommendations may refer to the adjustment of function, structure and intensity of spatial management to natural conditions, assuring the sustainability of natural processes, ensuring conditions for the renewability of natural resources, eliminating, limiting and mitigating threats or adverse impacts on the environment or people’s health, or determining the directions of degraded areas reclamation.
Both documents, the WSP and the WES, include detailed inventories and judgments related to land use, land cover, natural and cultural capital, and a quality of life. These documents are elaborated on the commission of the Warsaw municipality (i.e., Bureau of Environmental Protection and Bureau of Architecture and Planning) by experts from the fields of: spatial planning, landscape architecture, ecology, transport, social sciences, economy, cultural heritage and technical infrastructure. It should be noted that in general, planning and the policy documents are accepted by local governments and represent the up-to-date discourses of city urban planning practice [27].
The next step was to determine the scope of ES possible to address. Given the range of the available data and information examined, basing on the CICES conceptual framework [31] and literature review, we selected a set of regulating and cultural ecosystem services for further analyses (Table 2 and Table 3).
The ES related to urban parks studied in this paper included: micro-climate regulation, air quality regulation, noise reduction, water peak balancing, recreation, social inclusion, physical health benefits, nature experiences, aesthetic appreciation, and sense of identity. Other ES that may be of relevance to Warsaw parks were not considered in this study, due to a lack of available and comparable data on such services.
Using data included in the WPPA, the WSP and the WES, we determined the extent to which selected regulating and cultural ecosystem services were provided by Warsaw parks. All Warsaw parks covering an area exceeding 2 ha (n = 82) were assessed. For the purposes of this study, Warsaw parks were categorized in three size groups: small parks up to 5 ha, medium parks up to 30 ha, and large parks exceeding 30 ha. Table 4 presents the number of surveyed parks categorised by size, and the statistics calculated for each category: mean area (in ha), standard deviation, and a range of park sizes (in ha).
For each ecosystem service listed in Table 2 and Table 3, basing on the existing data, we identified its capacity. First, we performed a content analysis of existing documents in order to extract data relevant for evaluation of selected regulating and cultural ES (Table 5). As already mentioned, all surveyed documents contained expert judgments for different ecosystem functions. These judgments were essential for our assessment process. The characteristics assigned to parks’ features included in expertise (e.g., size, vegetation structure, noise level) were the point of departure for further multi-criteria analysis. For each ES we have attributed qualitative (e.g., dominance of high vegetation with diverse vertical layers, dominance of infiltration and interception), and/or quantitative (e.g., size in hectares, vegetation cover in percentage) indicators (Table 6 and Table 7), which allowed us to estimate the level of ES provision. Data contained in examined documents indirectly let us determine the extent to which the regulating and cultural services were realised.
For each individual ecosystem service based on performed assessments we applied a three level estimation scale of the ecosystem capacity level, assuming that depending on multiple park conditions and features, each park can deliver ES at low, medium or high level (Table 6 and Table 7).
This detailed evaluation of particular ES enabled us to perform an overall assessment of park’s regulating and cultural ES provision capacity. The assessment procedure involved awarding of 1 point for a “low” level, 2 points for a medium level, and 3 points for a “high” level of fulfilling the criteria. This allowed us to count the total outcome (referred later in this paper as summary score). The maximum summary score that could be gained by each park for regulating and cultural ES was 12 and 18 points respectively.
For this total outcome, we again applied a three level scale with equal intervals, and thus, we assumed that the park provided regulating or cultural ES at:
A “superior level”—if its combined result in provisioning of all individual ES (within regulating or cultural) was above 66%.
A “satisfactory level”—if its combined result in provisioning of all individual ES (within regulating or cultural) was between 34% and 66%.
A “noticeable level”—if its combined result in provisioning of all individual ES (within regulating or cultural) is less or equal to 33%.
Next, all assessed parks were qualified into four categories representing their predominant character and their potential multifunctionality:
  • Multifunctional (if capacity level for providing both regulating and cultural ecosystem services is superior);
  • Regulating advantage (if capacity level for providing the regulating ecosystem services is superior, and for the cultural services, is satisfactory or noticeable);
  • Cultural advantage (if capacity level for providing the cultural ecosystem services is superior, and for regulating services, is satisfactory or noticeable);
  • No predominant function (if capacity level for providing both regulating and cultural ecosystem services is satisfactory or noticeable).
To check the impact of particular variables on the summary score for regulating or cultural ES capacity levels of parks, a multiple linear regression was performed. Moreover, a multinomial logistic regression was applied for the selection of variables that had a significant effect for the final classification of the parks into one of the four categories (cultural advantage, regulating advantage, multifunctional, no predominant role). All statistical analyses were performed in IBM SPSS Statistics for Windows, Version 23.0 (IBM Corp, Armonk, NY, USA).

3. Results

Most of the assessed parks (51.2%) exhibited a superior capacity to deliver regulating ES, whereas only 32.9% of evaluated green spaces demonstrate superior capacity in cultural ES delivery (Figure 1). The results showed that provisioning of regulating ES by parks is more effective and easier to achieved, which was confirmed by the capacity level of regulating ES for 41.5% of parks being characterised as satisfactory, and only 7.3% of parks delivering them at a noticeable level. Furthermore, 65.85% of parks exhibited a satisfactory capacity for cultural ES provision, and only 1.2% of parks provided cultural ES at a noticeable level.
To summarise the results, and to measure the degree of potential multifunctionality among the urban parks examined, we qualified the parks according to their predominant character. The analysis revealed that the majority of Warsaw parks (41.5%) could not be characterised by their principal role in ES delivery (Table 8). Though these parks delivered both cultural and regulating ES at satisfactory and noticeable levels, they did not assume a leading role in terms of the two mentioned ES. On the other hand, 25.6% of parks were multifunctional, as they delivered both regulating and cultural ES at superior levels. Furthermore, another 25.6% of parks presented a regulating advantage (as their capacity level for providing the regulating ecosystem services was superior, and the cultural services were satisfactory or noticeable), and 7.3% of parks showed cultural advantage respectively.
Analyses of the ES delivery levels of parks allowed us to assume that the predominant character and potential multifunctionality of parks were linked with the size of the parks. Only large and medium parks were classified as multifunctional, as multifunctionality requires “space” to deliver ES at a superior level. At the same time, most large parks are multifunctional, and the rest demonstrate a regulating advantage. A very low p value for the statistical test indicated a significant relationship between the predominant character and the size of the parks (Table 8). To check the possible correlation, and to measure how well the size of parks and their regulating or cultural ES capacity levels were related, we calculated the Pearson’s correlation coefficient. The Pearson’s correlation coefficient suggested a moderate correlation and substantial relationship between the size of parks and their regulating ES capacity levels (r = 0.4258), and only a slight correlation and almost negligible relationship in relation to cultural ES was observed (r = 0.2669).
Furthermore, the results for medium parks demonstrated the widest differentiation, as they represented all park categories (Table 8). This means that size is not the only, or a leading, criterion for classifying parks into any of the four categories—other criteria play a role. Among medium parks, those with a regulating advantage predominated. Most of those parks played an important role in microclimate regulation and in balancing rainwater peaks.
In most cases, small parks did not show any predominant role in delivering ES, and only few of them demonstrated a cultural advantage. We can assume that their limited capacity in delivering regulating ES was caused by their minor size.
Figure 2 shows different average capacity levels of ES delivery depending on the size of evaluated parks. The bigger the park was, the more complete its potential in delivering ES.
In order to check the impact of particular variables on the summary score for regulating or cultural ES capacity levels of parks, multiple linear regression was applied (Table 9).
From the multiple linear regression results, a significant positive effect (p < 0.05) on the summary regulating score was observed for following factors: “park size”, “compact shape” and “presence of water bodies”. This meant that bigger park size, the presence of water bodies, and a compact shape (rather than fragmented) clearly raised park’s capacity to perform regulating ES. At the same time, a significant negative effect of “noise level within the entire park exceeding 60 dB” and “domination of infiltration” was noticed. Thus, the presence of these factors decreased the delivery level of regulating ES. As it concerns the delivery levels of cultural ES, the significant positive effect was caused by three variables: “large number of recreational facilities”, “habitats for rare wild fauna” and “parks listed in monument register”.
Moreover, in order to check which variables mostly influenced the final classification of parks into categories describing their predominant character (i.e., “cultural advantage”, “regulating advantage”, “multifunctional”, “no predominant role”), a multinomial logistic regression was applied (Table 10). This multinomial logistic regression was performed only for selected variables, which had a significant effect based on a Chi-square test (p < 0.05). Basing on the results of this multinomial logistic regression, amongst significantly important variables, the strongest influence was observed for: “park size”, “large number of recreational facilities” and “individual character of equipment”. For further interpretation of achieved coefficients of regression (B), we assumed that the two variables—“individual character of equipment” and “large number of recreational facilities” also influenced a potential for the park’s multifunctionality and cultural advantage, while on the contrary, a variable “park size” was linked with the potential for the park’s regulating advantage and multifuctionality. Besides, the park’s regulating advantage was better predicted by “presence of water bodies” than size. The multinomial logistic regression model may have caused ambiguous interpretation of results, due to strong correlations between variables (e.g., high coefficients’ values for domination of infiltration).
ES that were delivered at the highest possible level for the group of large parks were: microclimate regulation, air quality and balancing rainwater peaks. Besides this general trend, there were differences between particular parks. Within the group of large parks (which were represented only by multifunctional and regulating advantage categories) there were parks that exhibited varying potential for particular ES, e.g., “Kabaty Forest Park” and “Lasek na Kole Park”, both of which played an important role in natural experiences, however “Lasek na Kole Park” had a limited potential for other services, mainly recreation, social inclusion, and physical health benefits. This was resultant of a shortage of recreational facilities (Figure 3).
On the contrary, medium parks in general were important for recreation, aesthetic appreciation, microclimate regulation, air quality, and balancing rainwater peaks. However, the capacity level of the latter ES was lower than the case of big parks. As shown in Table 8, medium parks were multifarious. In this category, the example parks showed the most diverse results. “Kepa Potocka Park” was classified as a multifunctional, mainly due to its high level in delivering 6 out of 10 ES (Figure 4). Conversly, “Szypowskiego Lesnika Park” had no predominant role in delivering ES (Figure 4). This was due to a low level of maintenance, a big proportion of sealed surfaces, poorly differentiated vertical vegetation structure, and a smaller range of recreational facilities.
Warsaw’s small parks distinguished themselves by high-maintenance regimes, ornamental plantations, and an overall manicured character. Performed analyses demonstrated that these small green spaces served for local recreation and aesthetic appreciation. Due to their limited size, they had a low or medium capacity in delivering ES, e.g., “Lasek Brzozowy Park” (Figure 5). However, some small parks, especially those recently refurbished, provided dwellers with high-levels of recreational services, e.g., “Znicza Park” (Figure 5).

4. Discussion

Our study revealed that larger parks were generally more effective at providing regulating ES, while small parks were more likely to confer an advantage toward cultural ES. However, ES provision varied substantially based on a park context, and we identified a number of other natural and anthropogenic park features impacting both types of ES. The adopted approach fitted well a non-monetary assessment of ecosystem services that has gained popularity as a tool for supporting decision makers in valuing and promoting ES supply [21]. Measuring the capacity of the ecosystem to provide regulating services is a challenging task, and involves a broad understanding of ecological and hydrological processes [32]; however qualitative tools raise the potential for primary screenings, or rough assessments [33]. Also, quantifying cultural ES is arduous, as despite being commonly recognised as providing cultural ES, they are often reckoned as “intangible”, “subjective” and difficult to assess in monetary terms [34,35]. At the same time, there are many examples showing that certain landscape features (e.g., specific type of vegetation cover) are strongly associated with cultural identities and social practices, and understanding these relationships is a prospect for defining the right indicators for cultural ES evaluation [34]. Moreover, these intangible or nonmaterial dimensions of cultural ES can be potentially more desirable for people than material ones [35]. Thus, the importance of our research lies in advancing the knowledge on understanding how parks provide ES, and as highlighted by Maes [36], this knowledge is essential for responsible environmental management. Furthermore, the presented method can be considered as a low-cost tool that can act as a departure point for ecosystem service mapping, modelling or valuation [33].
According to Bennett et al. recommendations [37], the analysis of ES delivery cannot be based on a single type of data, i.e., a land cover, as such analysis lacks a socio–ecological connection, which is critical to understand the relation of multiple ecosystem services. Thus, in our research we tried to further incorporate park characteristics, or parameters describing park qualities. Our scope of criteria and results are in line with findings of Ibes [11] showing that the provisioning of recreation in urban parks is related to their accessibility, safety, aesthetics and facilities. On the other hand, our research revealed that the capacity of forest parks to provide ES was not always higher than other urban green spaces, as noted by Burkhard et al. [38]. The examples of studied Warsaw parks showed that depending on actual parks’ characteristics, the levels of ES provision may vary. Besides, the results of performed linear regression showed that the presence of water bodies increased the overall level of regulating ES provided by parks, which is also underscored in research by Burhard et al. [38].
Urban pressure on open spaces located within built environments also leads to local authorities being urged to design and manage multifunctional green spaces. An evaluation of the capacity of parks to deliver ES can help to acknowledge their significance both from a social and an environmental perspective. Moreover, quantifying those capacity levels can become an important tool for local authorities, in order to enhance sustainable open space management and planning. Our findings are in line with a current trend in wider research exploring the social recognition of the importance of biodiversity conservation, and the understanding of people’s attitudes and perceptions about ecosystem services [14,39,40,41]. It should be taken into account that ES capacity levels are site- and time-specific, but not static [32], and this capacity reacts to temporal and spatial changes of both natural and human-made conditions.
However, it should be also noted that as each research has its limitations, also in our case, we found some shortcomings. Those related, first of all, to data availability and their timeliness. The question of appropriate criteria for ES assessment was a key issue, as applying different measures could lead to other outcomes. Our research also may have been regarded as subjective, although expert-based assessments are strongly dependent on the experts’ experience, knowledge and objectivity [42].

5. Conclusions

In this paper we piloted a methodology to assess the capacity levels of parks in delivering ES. The presented research enabled us to determine the predominant character of Warsaw parks, and to measure their multifunctionality potential. We believe that our research fills the knowledge gap in regards to elaboration of a complete methodology enabling a diagnosis of the capacity levels of public parks in delivering ES. The elaborated methodology, and the elucidated criteria for the measurement of those capacity levels of ES, is an attempt to work out an assessment tool for allowing the integrated analysis of overlapping ecosystem services. Acknowledging those criteria for evaluation creates a possibility for intentional design, and planning and management of urban green spaces, which are extremely important, especially at present when we are facing challenges of increasing consumption of open spaces worldwide.
In general, Warsaw parks delivered ES at varied levels, depending on their characteristics. Our research showed that urban ES are site specific and rely on local conditions. Thus, altering the park’s features, such as enhancing bioretention facilities or vertical vegetation structures, can result in changes in regulating ES provided by particular parks. Likewise, enhancing access to recreational facilities can improve cultural ES provision. As a consequence, conscious planning of green spaces can influence the benefits that people obtain from specifically from parks.
Integration of the ES concept with planning and green space management practices requires the translation of scientific findings into actionable knowledge [36], which can be achieved by defining recommendations on how parks could be managed in the future. These recommendations may refer to the quality and quantity of park features. The study results showed that the size of a park is a very influential variable defining the delivery level of regulating ES. However, most cities struggle with urban pressure on green open spaces, and it is often not possible to enlarge the area of existing parks. Nevertheless, basing on the presented research results, some recommendations enhancing ES delivery levels of urban parks can be listed. The capacity level to deliver cultural ES of a park can be increased by introducing a wider array of recreational possibilities for urban dwellers. Moreover, designing park equipment with individual character is a very important factor. This individualisation of park space/park design should be a result of a co-creation process involving local residents and artists. The level of delivery of regulating ES can also be enhanced by taking greater account towards native vegetation, and dedicating spaces for water retention.
It should be emphasized that knowledge about how landscape features affect the ability for parks to deliver ES, is crucial for sustainable planning and management of green spaces. Hence, for ultimate success, constant monitoring of park features, and a systematic data collection are needed. Furthermore, users’ preferences in regards to design and management of parks should be taken into consideration, as they are the recipients of ecosystem services. Understanding the ability of parks to deliver multifarious ES is a sine qua non condition in reaching GI multifunctionality.

Acknowledgments

The work presented in this paper is a part of the project “The concept of green infrastructure” carried out in the Department of Landscape Architecture of Warsaw University of Life Sciences—SGGW. The research grant was provided by the Ministry of Science and Higher Education of Poland (in the framework of statutory research support, 2015–2016). The authors would like to thank Dariusz Gozdowski for his insights and help in statistical analyses.

Author Contributions

The overall planning and design of the presented research was done by Renata Giedych. The data collection, content analyses of documents and other subsequent investigations, interpretation of data, as well as writing the manuscript was done equally by Renata Giedych and Gabriela Maksymiuk.

Conflicts of Interest

The authors declare no conflict of interest. The founding sponsors had no role in the design of the study; in the collection, analyses, or interpretation of data; in the writing of the manuscript, and in the decision to publish the results.

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Figure 1. Distribution of ES delivery levels for Warsaw parks (in % total parks surveyed).
Figure 1. Distribution of ES delivery levels for Warsaw parks (in % total parks surveyed).
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Figure 2. Average ES capacity levels delivered by Warsaw parks (3—superior, 2—satisfactory, 1—noticeable).
Figure 2. Average ES capacity levels delivered by Warsaw parks (3—superior, 2—satisfactory, 1—noticeable).
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Figure 3. Provision on ES by selected large parks—Capacity levels (3—high, 2—medium, 1—low) of 10 studied ES (MCR—microclimate regulation, AQR—air quality regulation, NR—noise reduction, BRP - balancing rainwater peak, R—recreation SI—social inclusion, PHB—physical health benefits, NE—nature experience, AA—aesthetic appreciation).
Figure 3. Provision on ES by selected large parks—Capacity levels (3—high, 2—medium, 1—low) of 10 studied ES (MCR—microclimate regulation, AQR—air quality regulation, NR—noise reduction, BRP - balancing rainwater peak, R—recreation SI—social inclusion, PHB—physical health benefits, NE—nature experience, AA—aesthetic appreciation).
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Figure 4. Provision on ES by selected medium parks—Capacity levels (3—high, 2—medium, 1—low) of 10 studied ES (MCR—microclimate regulation, AQR—air quality regulation, NR—noise reduction, BRP—balancing rainwater peak, R—recreation SI—social inclusion, PHB—physical health benefits, NE—nature experience, AA—aesthetic appreciation).
Figure 4. Provision on ES by selected medium parks—Capacity levels (3—high, 2—medium, 1—low) of 10 studied ES (MCR—microclimate regulation, AQR—air quality regulation, NR—noise reduction, BRP—balancing rainwater peak, R—recreation SI—social inclusion, PHB—physical health benefits, NE—nature experience, AA—aesthetic appreciation).
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Figure 5. Provision on ES by selected small parks—Capacity levels (3—high, 2—medium, 1—low) of 10 studied ES (MCR—microclimate regulation, AQR—air quality regulation, NR—noise reduction, BRP—balancing rainwater peak, R—recreation SI—social inclusion, PHB—physical health benefits, NE—nature experience, AA—aesthetic appreciation).
Figure 5. Provision on ES by selected small parks—Capacity levels (3—high, 2—medium, 1—low) of 10 studied ES (MCR—microclimate regulation, AQR—air quality regulation, NR—noise reduction, BRP—balancing rainwater peak, R—recreation SI—social inclusion, PHB—physical health benefits, NE—nature experience, AA—aesthetic appreciation).
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Table 1. Local regulating and cultural ecosystem services (ES) relevant to urban parks (based on a survey of literature).
Table 1. Local regulating and cultural ecosystem services (ES) relevant to urban parks (based on a survey of literature).
Type of ESKey References
Regulating Services
Microclimate regulationBolund and Hunhammar [1], Breuste et al. [2], Burkhard et.al. [10],
Gómez-Baggethun and Barton [8], Niemelä et al. [11], TEEB [4].
Air quality regulationBolund and Hunhammar [1], Burkhard et al. [10], Gómez-Baggethun and Barton [8], Niemelä et al. [11], Breuste et al. [2].
Noise reductionBolund and Hunhammar [1], Gómez-Baggethun and Barton [8],
Niemelä et al. [11], Valles-Planells [12].
Water peak balancingBolund and Hunhammar [1], Niemelä et al. [11], Breuste et al. [2].
Flood controlGómez-Baggethun and Barton [8], TEEB [4].
Erosion controlBurkhard et al. [10].
Cultural Services
RecreationBolund and Hunhammar [1], Breuste et al. [2], Gómez-Baggethun and Barton [8], Niemelä et al. [11], TEEB [4], Valles-Planells [12].
Social inclusionKazmierczak [13], Larson [14].
Psycho-physical health benefitsNiemelä et al. [11], TEEB [4], Valles-Planells [12].
Nature experiencesBreuste et al. [2], Niemelä et al. [11], Valles-Planells [12].
Aesthetic appreciationTEEB [ 4], Valles-Planells [12].
Sense of place and identityTEEB [ 4], Valles-Planells [12].
Cognitive developmentGómez-Baggethun and Barton [8], Valles-Planells [12].
Table 2. The scope of possible regulating ES assessment due to accessible data—based on CICES (The Common International Classification of Ecosystem Services) [31].
Table 2. The scope of possible regulating ES assessment due to accessible data—based on CICES (The Common International Classification of Ecosystem Services) [31].
The Common International Classification of Ecosystem ServicesSurveyed Regulating ES of Urban Parks
SectionDivision GroupClass
Regulation & MaintenanceMediation of waste, toxics and other nuisancesMediation by biotaBio-remediation by micro-organisms, algae, plants, and animals
Filtration/sequestration/storage/accumulation by micro-organisms, algae, plants, and animals
Mediation by ecosystemsFiltration/sequestration/storage/accumulation by ecosystems Sustainability 09 00792 i001
Dilution by atmosphere, freshwater and marine ecosystems
Mediation of smell/noise/visual impacts Sustainability 09 00792 i002
Mediation of flowsMass flowsMass stabilisation and control of erosion rates
Buffering and attenuation of mass flows
Liquid flowsHydrological cycle and water flow maintenance Sustainability 09 00792 i003
Flood protection
Gaseous/air flowsStorm protection
Ventilation and transpiration
Maintenance of physical, chemical, biological conditionsLifecycle maintenance, habitat and gene pool protectionPollination and seed dispersal
Maintaining nursery populations and habitats
Pest and disease controlPest control
Disease control
Soil formation and compositionWeathering processes
Decomposition and fixing processes
Water conditionsChemical condition of freshwaters
Chemical condition of salt waters
Atmospheric composition and climate regulationGlobal climate regulation by reduction of greenhouse gas concentrations
Micro and regional climate regulation Sustainability 09 00792 i004
Table 3. The scope of possible cultural ES assessment due to accessible data—based on CICES (The Common International Classification of Ecosystem Services) [31].
Table 3. The scope of possible cultural ES assessment due to accessible data—based on CICES (The Common International Classification of Ecosystem Services) [31].
The Common International Classification of Ecosystem ServicesSurveyed of Urban Parks
SectionDivision GroupClass
CulturalPhysical and intellectual interactions with biota, ecosystems, and land-/seascapes (environmental settings)Physical and experiential interactionsExperiential use of plants, animals and land-/seascapes in different environmental settings
Physical use of land-/seascapes in different environmental settings Sustainability 09 00792 i005
Intellectual and representative interactionsScientific
Educational
Heritage, cultural Sustainability 09 00792 i006
Entertainment
Aesthetic Sustainability 09 00792 i007
Spiritual, symbolic and other interactions with biota, ecosystems, and land-/seascapes (environmental settings)Spiritual and/or emblematicSymbolic
Sacred and/or religious
Other cultural outputsExistence Sustainability 09 00792 i008
Bequest
Table 4. Surveyed parks’ basic data.
Table 4. Surveyed parks’ basic data.
Total Large ParksMedium ParksSmall Parks
Number of surveyed parks82143533
Mean area (ha)33.92158.2112.883.52
Standard deviation110.78237.006.830.97
Range (ha)2.05–902.6830.11–902.685.06–29.52.05–4.92
Table 5. The basis for determining the capacity of Warsaw parks to provide ES.
Table 5. The basis for determining the capacity of Warsaw parks to provide ES.
The Scope of Evaluation Related to Warsaw Parks in Existing DocumentsData Retrieved from DocumentName of Document
REGULATING SERVICES
Micro-climate regulationInfluence on local climate conditions• Park size WPPA
• Area shapeWPPA
• Vegetation structureWPPA
• Water bodiesWPPA
Air quality regulationImportance to air regeneration• Park sizeWPPA
• Vegetation coverWPPA
• Vegetation structureWPPA
Noise reductionNoise level reduction• Noise level within a parkWSP
Balancing rain water peaksOutflow reduction• Park sizeWPPA
• Hydrological processesWES
• Drainage systemWSP
• Vegetation coverWPPA
• Vegetation structureWPPA
CULTURAL SERVICES
RecreationRecreation quality• Recreational facilitiesWPPA
• Conflicts between usersWPPA
• AccessibilityWPPA
Social inclusionFostering social inclusion• Mass events facilitiesWPPA
• Accessibility for disabled peopleWPPA
• Educational facilitiesWPPA
Physical health benefitsFostering active recreation• Sport and active recreation facilitiesWPPA
Nature experienceNature functioning and preservation of nature heritage• Naturalness of vegetationWPPA
• Habitats for wild faunaWPPA
• Legal protectionWSP
Aesthetic appreciationAesthetic value• Spatial structureWPPA
• MaintenanceWPPA
• Character of park equipmentWPPA
Sense of identityPreservation of cultural heritage• Historical valueWPPA
• Iconic objectsWPPA
• Legal protectionWSP
Table 6. Capacity of parks in providing regulating ES.
Table 6. Capacity of parks in providing regulating ES.
ESPark Characteristics (Based on Data Retrieved from Surveyed Documents)Capacity Level
LowMediumHigh
Microclimate regulationShapeFragmentedX 1,2X 2
Compact X 1X 2,3
Vegetation structureDominance of low vegetation and groups of shrubs and single treesX 1,2X 2
Dominance of high vegetation with diverse vertical layers X 1X 2,3
Water bodiesNo water bodiesX 1,2
Presence of waterbodies X 1,2X 2,3
Air quality regulationVegetation structureDominance of low vegetation and groups of shrubs and single treesX 1,2X 2
Dominance of high vegetation with diverse vertical layers X 1X 2,3
Vegetation coverLess than 60%X 1,2
60–70% X 2
Over 70% X 1X 2,3
Noise reductionNoise level A noise level within all park exceeding 60 dBX
A noise level within all park varies from 50 to 60 dB X
A noise level does not exceed 50 dB in more than 50% of park X
Balancing rain water peaksHydrological processesDominance of infiltrationX 1,2
Dominance of infiltration and interception X 1,2
Dominance of infiltration and interception, water retention X 2,3
Drainage systemWater partially drained to the sewage systemX 1,2
Vegetation coverLess than 60%X 1,2X 2
60–70%
Over 70% X 1X 2,3
Vegetation structureDominance of low vegetation, groups of shrubs, and single treesX 1,2
Dominance of high vegetation with diverse vertical layers X 1,2X 2,3
Park characteristics: true for all parks sizes (small medium, big)—X; X 1—for small parks; X 2—for medium parks; X 3—for big parks.
Table 7. Capacity of parks in providing cultural ES.
Table 7. Capacity of parks in providing cultural ES.
ESPark Characteristics (Based on Data Retrieved from Surveyed Documents)Capacity Level
LowMediumHigh
RecreationRecreational facilitiesLimited number of recreational facilitiesX
Large number of recreational facilities XX
Unique recreational facilities at the district scale X
Unique recreational facilities at the city scale X
Conflicts between usersPotential conflict of recreational usage X
No potential conflicts between users X
AccessibilityLimited accessXX
Free access X
Social inclusionAccessibility for disabled peopleA limited accessibility for disabled peopleX
Full accessibility for disabled people XX
Educational facilitiesLimited educational facilities X
Park adapted to the educational function X
Mass events facilitiesPark adapted to the mass events X
Physical health benefitsActive recreation facilitiesLimited number of active recreational facilitiesX
Large number of active recreational facilities XX
Sport facilitiesLimited number of sport facilities X
Large number of sport facilities X
Dominance of participatory sport facilities X
Nature experienceVegetation characterDominance of ornamental plantsX
Dominance of native vegetation XX
Fostering biodiversityHabitats for rare wild fauna X
Legal protectionNature reserves X
Aesthetic appreciationSpatial structureUnclear spatial structureX
Clear spatial structure XX
Equipment Individual character X
Innovative design solution X
Standard equipment X
Equipment in poor conditionX
MaintenanceWell maintained X
Poorly maintainedXX
Sense of identityHistorical valueLow historical valueX
High historical value XX
Image of placeIconic objects X
Legal protectionObjects listed in monument register X
Table 8. Overview of the predominant character and multifunctionality potential of parks (% total parks surveyed); (A) in relation to a number of parks in particular size group (large n = 14, medium n = 35, small n = 33), (B) in relation to a total number of assessed parks (n = 82).
Table 8. Overview of the predominant character and multifunctionality potential of parks (% total parks surveyed); (A) in relation to a number of parks in particular size group (large n = 14, medium n = 35, small n = 33), (B) in relation to a total number of assessed parks (n = 82).
MultifunctionalRegulating AdvantageCultural AdvantageNo Predominant Role
(A)(B)(A)(B)(A)(B)(A)(B)
Large parks71.4312.228.574.90000
Medium parks31.4313.448.5720.72.861.217.147.3
Small parks000015.156.184.8534.2
All parks 25.6 25.6 7.3 41.5
Chi-square test (based on number of observations in columns B): Χ2 = 66.62; p value < 0.001.
Table 9. Results of multiple regression based on a linear model where dependent variables are summary regulating ES score and summary cultural ES score.
Table 9. Results of multiple regression based on a linear model where dependent variables are summary regulating ES score and summary cultural ES score.
Regression Coefficient (B)Standard Error for BStandardized Regression Coefficientp Value
Dependent Variable: SUMMARY REGULATING ES SCORE
R2 = 0.528
Intercept7.9110.669
Park size0.0070.0020.347<0.001 *
Compact shape 0.8860.4000.1880.030 *
Dominance of high vegetation with a diverse vertical layers0.8750.4070.1880.035 *
Presence of water bodies1.3420.4000.2930.001 *
A noise level within the entire park exceeding 60 dB−1.1990.392−0.2610.003 *
Domination of infiltration−1.5770.497−0.2660.002 *
Rainwater partially drained to the sewage system−0.6680.569−0.0950.244
Dependent Variable: SUMMARY CULTURAL ES SCORE
R2 = 0.638
Intercept4.9471.488
Large number of recreational facilities2.0310.4560.409<0.001 *
Free access1.6811.0780.1260.128
Mass events facilities0.9920.5160.1590.058
Educational facilities0.2160.5120.0410.668
Dominance of native vegetation1.5811.0350.2940.131
Dominance of ornamental plants0.6660.9780.1180.495
Habitats for rare wild fauna1.5620.5830.2770.009 *
Equipment in a poor condition−0.3940.747−0.0460.612
Well-maintained0.7930.5900.1160.185
Individual character of equipment0.5060.4610.1030.269
Innovative design solutions1.0270.9920.0840.344
Historical value−0.0220.574−0.0240.809
Iconic objects0.9620.7120.1250.188
Parks listed in monument register1.2400.6610.2190.037 *
* Indicate significant effect at p < 0.05.
Table 10. Results of multinomial regression based on logistic model where dependent variable is the park’s predominant character (categorical variable with four levels) and their reference category is: “no predominant role”.
Table 10. Results of multinomial regression based on logistic model where dependent variable is the park’s predominant character (categorical variable with four levels) and their reference category is: “no predominant role”.
Coeff. of Regression (B) (vs. No-Predominant Role)
Cultural AdvantageMultifunctionalRegulating AdvantageChi-Square Statisticsp Value
Intercept−5886.7−2023.3−341.7
Park size−12.5149.9150.2109.3<0.001
Compact shape−2460.6−142.9195.249.2<0.001
Presence of water bodies307.7−14.9656.017.00.001
A noise level within all park exceeds 60 dB233.010.2336.710.90.012
Domination of infiltration2468.1199.7216.951.2<0.001
Rainwater partially drained to the sewage system114.9−1067.6−386.127.0<0.001
Large number of recreational facilities2802.8655.8−351.768.3<0.001
Free access−7.3−108.4−1126.226.8<0.001
Educational facilities328.9−138.1−465.410.70.013
Dominance of native vegetation969.7−69.3278.946.6<0.001
Habitats for rare wild fauna−912.3262.8−765.529.0<0.001
Well maintained149.0−56.0−401.219.9<0.001
Individual character of equipment2661.5730.1387.758.9<0.001
Innovative design solutions2463.31479.0−266.724.0<0.001
Cox and Snell pseudo R2 = 0.916.

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Giedych, R.; Maksymiuk, G. Specific Features of Parks and Their Impact on Regulation and Cultural Ecosystem Services Provision in Warsaw, Poland. Sustainability 2017, 9, 792. https://doi.org/10.3390/su9050792

AMA Style

Giedych R, Maksymiuk G. Specific Features of Parks and Their Impact on Regulation and Cultural Ecosystem Services Provision in Warsaw, Poland. Sustainability. 2017; 9(5):792. https://doi.org/10.3390/su9050792

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Giedych, Renata, and Gabriela Maksymiuk. 2017. "Specific Features of Parks and Their Impact on Regulation and Cultural Ecosystem Services Provision in Warsaw, Poland" Sustainability 9, no. 5: 792. https://doi.org/10.3390/su9050792

APA Style

Giedych, R., & Maksymiuk, G. (2017). Specific Features of Parks and Their Impact on Regulation and Cultural Ecosystem Services Provision in Warsaw, Poland. Sustainability, 9(5), 792. https://doi.org/10.3390/su9050792

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