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Article

Analysis of Regulatory Possibilities and Obstacles to Expand Renewable Energy and Preserve Landscape Quality in the Silesian Voivodship

by
Hanna Szumilas-Kowalczyk
* and
Renata Giedych
Department of Landscape Architecture, Warsaw University of Life Sciences-SGGW, ul. Nowoursynowska 159, 02-776 Warsaw, Poland
*
Author to whom correspondence should be addressed.
Submission received: 8 January 2022 / Revised: 15 February 2022 / Accepted: 16 February 2022 / Published: 19 February 2022

Abstract

:
Current international works on strategies for climate change mitigation and adaptation cite energy transition as one of the main challenges of the 21st century. Many social, economic, and ecological aspects have to be addressed, especially in regions which, for decades, relied on coal energy. One of those are changes in spatial planning and land use, which will significantly affect the landscape of those regions. One of these examples is Silesian Voivodship in Poland, where the coal-mining tradition dates back to the 17th century. This research focuses on the question of how and where renewable energy development is planned in the Silesian Voivodship, based on provisions from local spatial polices and to what extent post-mining and industrial sites are planned to be reused and how many other types of landscapes would be transformed into renewable energy landscapes. We argue that permitting development of renewable energy (RE) without appropriate regulations on where and how it should be developed may contribute to irreversible changes in the landscape and, as a result, to its degradation. Methods consisted of query and analyses of available publications, datasets, strategy and planning documents, both at regional and municipal level. The main results show that existing renewable energy and its development is mainly planned away from mining and post-mining industrial areas. In the future, this will have a significant impact on the transformation of, e.g., rural, natural and agricultural landscapes into new industrial energy landscapes, changing views and perception of these places.

1. Introduction

The use of renewable energy technologies, in particular wind and photovoltaic (PV) systems, is a key pillar of European climate change policy [1]. According to the State of the Energy Union 2021—Contributing to the European Green Deal and the Union’s recovery Report [2] in 2020, renewables overtook fossil fuels for the first time in the EU, generating 38% of electricity (compared to 37% for fossil fuels). However, in many countries, including Poland, the share of renewable energy in the energy mix is still small. Currently in Poland, power generation from coal is predominant (64.95%). Similar situation can be observed in the Czech Republic (62.16%) and Slovenia (42.83%). However, these countries have almost twice the share of renewable energy in their energy mix than Poland (23.3% Czech Republic, 21.68% Slovenia, 12.7% Poland) [3]. The benefits of renewable energy for environment, society, and the economy have been acknowledged for a long time, despite many advantages of renewable energy sources (RES) their negative impacts are also reported [4]. One of them, which has become more and more important recently, is the impact on the landscape [5].
Transition to renewable energy sources is inseparable linked to the availability of land for renewable energy infrastructure, which require more surface area to produce an equivalent amount of power as from fossil fuels [6,7,8]. This high land demand arise negative impacts on the landscape [9]. This impact vary according to the RES type, the context and scale of development [10], the landscape type, perceived naturalness, and landscape aesthetic value [11]. RES can affect the landscape by transforming land use and/or by reshaping the visual character of the landscape. The land use impact is the most important concern for on-ground photovoltaic farms, and the visual impact is most noticeable for wind energy facilities development [5]. The impact of RES on landscape quality brings specific challenges for energy planning to avoid the degradation of landscape quality [5]. Defining siting requirements for renewable generation and transmission, and recognizing particularly sensitive areas excluded in advance from RES development, can help municipalities to deal effectively with developers and can prevent the negative impacts of RES facilities development [12]. Nowadays, people are becoming more aware that among other elements of the environment not only pollution of air or water is affecting their quality of life but the landscape is also important for human well-being. It is important especially in densely populated Europe, where energy landscapes are even more visible by many users, than in any other part of the world [13]. Considering how NIMBY phenomenon slows down the process of energy transition from coal to renewable, it is important to understand that landscape has to be seen as a resource that, in general, is heavily exploited in the energy production process. Therefore, to improve the process of sustainable transformation it has to be politically more visible [14]. There is a clear need to carefully locate wind and PV farms to minimize their visual impact [15]. Many landscape and visual impacts of wind and PV farms could be minimized by the appropriate selection of design, layout, and location, by avoiding their visibility from sensitive viewpoints [10].
An important tool in the implementation of the renewable energy development policy, and a key step in finding sustainable solutions for RES projects is spatial planning [16]. Sustainable energy landscape planning and designing, where landscape architects and urban planners are engaged in the process of implementing energy production facilities from the beginning, may help to create a positive experience for landscape users. Specific provisions in spatial plans that include character of existing cultural landscapes, limitations towards parameters of the facilities, such as their height, number, spacing, color, and spatial arrangement, are crucial in this case [17,18,19]. On the one hand, it helps to maximize the wind and solar energy potential in an area and, on the other hand, to simultaneously achieve environmental protection (including human population and natural heritage) in the same space [20]. Spatial planning is also a powerful tool that can be used to find ways of reusing land that has become redundant, e.g., because of land contamination or sunset industries [21]. In the whole system of elements, the role of planning is to reconcile specific conditions by introducing spatial order. The purpose of planning is to protect the quality and value of space.
The development of RES investments involves trade-offs in terms of spatial sustainability, e.g., between minimizing energy system costs, mitigating impacts on people, landscape and biodiversity [8]. However, the use of RES may provide an alternative for the development of post-industrial, post-mining, and poor-quality agricultural land. New energy sources represent an opportunity for the rehabilitation of degraded environments and to design new forms of landscape [12,22]. PV farms can be used for conversion of brownfields in a productive landscape [5]. Landscapes that previously contained large technical installations (e.g., mining or harbor areas) can more easily assimilate RES, due to thematic association with industrial structures [10]. Wind turbines and PV installations can be used to temporarily discourage other developments, e.g., increase of suburbs [13]. Renewable power can also be co-located with other land uses, such as solar generation on city rooftops and wind and solar facilities sharing land with agriculture [12]. In Poland, as in Europe, wind energy has the largest share among renewable energy. Another RES, in terms of installed capacity, is photovoltaics, which, thanks to its dynamic development, may overtake wind energy in the coming months [23]. The share of energy from renewable sources in the total primary energy production in Poland is growing and, in the years 2014–2018, increased from 12.12% to 14.46%. However, still around 80% of electricity in Poland is still generated from coal [24]. The most coal-dependent region in Poland is the Silesian Voivodship. At the same time it is the region with one of the lowest proportions of energy production from renewable sources. The biggest challenge in energy transition in the Silesian Voivodship is the strong legacy of coal in the region. Mines are still one of the biggest employers in the region, and the miner community is one of the most powerful professional groups of employees in the country. That, unfortunately, means that aspects of climate change and obligations towards the European Union Green Deal goals are hard to achieve, even though Poles understand that modernization of the energy sector is crucial to improving the energy security of the country [25,26]. However, when finally started, the process of energy transition will affect the Silesian Voivodship landscape, just as the development of coal-based energy has changed it in previous centuries.
In Poland, there are very general rules regarding the location of renewable energy installations and no direct regulations for landscape protection in Polish legal system There are some limitations regarding the proximity of housing resulting from the so-called Distance Act of 2016; limitations related to distancing from forms of nature protection areas resulting from Act of Nature Protection of 2004 and cultural landscapes in Act on Monuments Protection and Maintenance of 2003. Other than this, cultural heritage protection zones are established on a local level in local spatial development plans [27]. There are also no specific guidelines for renewable energy spatial planning and introduction to the landscape. Additionally, in SEA and EIA, required by the Act of 2008 on the provision of information on the environment and its protection, public participation protection, public participation in environmental protection, and environmental impact assessment procedures, landscape character is not taken into account when assessing the impact of the energy investments [28]. A lack of regulatory frameworks means that spatial planning on a local level determines the impact of renewable energy development on the landscape in the most specific way.
The detailed development of the RES is usually specified at this level and is regulated by spatial planning documents, so we decided to look there for the provisions for landscape protection as they are required in, e.g., Studies of Conditions and Direction of Spatial Development for cultural landscapes or nature conservation areas.
The main goal of this research was to explore the provisions of local spatial policies of the Silesia Region municipalities to provide a comprehensive overview on extension of RE landscapes in this area. We were interested in the extent to which landscapes already heavily transformed by coal-fired energy production are planned to be used, and the extent to which the energy transition will cause further transformation of other types of landscapes to those associated with renewable energy sources.
We consider that permitting renewable energy development, without appropriate regulations on where and how it should be developed, may contribute to irreversible changes in the landscape and, as a result, to its degradation. These regulations should be included in spatial planning documents, which are one of the most important tools for landscape protection. Special attention should be paid to municipal spatial policies as the local self-government in Poland have the decisive influence on how the land will be developed.

2. Study Area

2.1. General Characteristics of the Silesian Voivodship

The Silesian Voivodship is one of the 16 regional I tier units of administrative division of Poland. Voivodships coterminous with NUTS-2 units (with the exception of Mazovian Voivodship, which is split into two NUTS units). The Silesian Voivodship borders correspond to NUTS-2 PL22. The voivodship covers an area of 12,333 km2, i.e., 3.9% of the of the national territory. Administrative structure of the voivodship consists of poviats (II tier units which do not have equivalents in NUTS units) and municipalities (III tier units which coterminous with LAU units). There are 36 poviats in the Silesian Voividship, including 17 rural poviats (which consists of rural areas and smaller towns) and 19 urban poviats (cities with poviat rights, i.e., with more than 100,000 inhabitants or/and cities located in large urban agglomerations). In total, 167 III tier units are grouped in three types of municipalities: urban, which comprises cities (49); urban–rural, which comprises towns with the surrounding countryside (22); and rural, which comprises countryside (96). The breakdown by type of municipality differs from the DEGURBA classification. It is based on the criterion of the size of the unit in terms of population and employment of inhabitants. Thus, an urban municipality must have at least 2000 inhabitants, at least two-thirds of whom are not working in agriculture. Table A1 in Appendix A shows the municipalities of the voivodship with the DEGURBA and LAU Eurostat codes, as well as its area and population.
The Silesian Voivodship is inhabited by 4.5 million people, which is 11.8% of Poland’s population. It is the most urbanized region of Poland (76.7% of the of urban population) with the highest population density (368 persons/km2, with national average of 123 persons/km2). In the land use structure of the voivodship, agricultural land dominates, making up 50.9% of its total territory, and is followed by forests (32.8%).
The Silesian Voivodship, despite the fact that it is regarded as one of Poland’s most anthropologically transformed areas, has many valuable natural and cultural assets. Areas covered by different forms of nature protection constitute almost 34% of the voivodship area; they are: 8 landscape parks, 65 nature reserves, 15 landscape protected areas, 81 ecological sites, 22 nature–landscape complexes, 11 geological sites, and 1455 nature monuments. The Silesian Voivodship is an area with a unique, diverse, and rich cultural heritage. They are of particular importance in preserving the identity of the region and shaping the economic and tourist attractiveness of the voivodship. The register of monuments in the Silesian Voivodship includes 2702 immovable monuments, including those relating to the coal-legacy.
The Silesian Voivodship is divided into four subregions (which differ for functional and landscape reasons): northern (covering an area of 3049 km2), southern (2354 km2), central (5577 km2), and western (1353 km2). The boundaries of the northern, southern, and western subregions correspond to the boundaries of the NUTS-3 units. The southern subregion coincides with PL224 (Częstochowski), the southern subregion with PL225 (Bielski), and the western subregion with PL227 (Rybnicki). The central subregion includes five NUTS-3 units: PL228 (Bytomski), PL229 (Gliwicki), PL22A (Katowicki), PL22B (Sosnowiecki), and PL 22C (Tyski). The largest sub-region of the voivodship, the central one, is inhabited by 2.72 million inhabitants (i.e., 60% of the region’s population). It is the most industrialized region in Poland. Northern and southern subregions are characterized by the highest proportion of rural areas (85.8% and 80%, respectively).
These areas also have the highest percentage of population who living in rural areas (42.2% and 50.5%, respectively). The south subregion is characterized by high tourist attractiveness. It is the mountain area, known for its diversity of cultural and natural landscapes, which makes it attractive all year round. Figure 1 presents the administrative structure (a) and population density (b) of Silesian Voivodship.

2.2. Current Stage of Renewable Energy Development in Silesian Voivodship

According to the Report “Renewable Energy Sources Installations—state as of 31 December 2020” [29], there were 31 individual wind power plants with a total capacity of ca. 37.5 MW in the Silesian Voivodship in December 2020. Most wind power plants were built in the northern part of the voivodship in the following rural poviats: częstochowski (10), lubliniecki (9), kłobucki (7), and in the urban poviat Częstochowa (1). In the southern part of the voivodship wind power plants are located in the raciborski (3) and gliwicki (1) rural poviats. None of the mentioned power plants were established in mining or post-mining areas, which are mainly located in the central part of the voivodship. This is strictly related to the fact that the best conditions for the development of this type of power plants are in other parts of the voivodship.
In contrast, photovoltaic farms were more dispersed throughout the voivodship. The report indicates that in December 2020 there were 171 photovoltaic farms operating with a total capacity of 17.65 MW. Most of them were located in urban poviat Katowice (17) and cieszyński (17), częstochowski (13), bielski (13), and żywiecki (9) rural poviats. Other photovoltaic power plants were located in the following rural poviats: będziński (5), bieruńsko-lędziński (6), gliwicki (7), kłobucki (5), lubliniecki (6), myszkowski (4), pszczyński (3), raciborski (1), rybnicki (1), tarnogórski (3), wodzisławski (2), zawierciański (5), and in urban poviats: Bielsko-Biała (4), Bytom (3), Chorzów (4), Częstochowa (4), Dąbrowa Górnicza (2), Gliwice (9), Jastrzębie-Zdrój (10), Jaworzno (2), Piekary Śląskie (1), Ruda Śląska (3), Rybnik (3), Siemianowice Śląskie (5), Sosnowiec (5), Tychy (2), Zabrze (8), and Żory (1). Special attention should be paid to the fact that more photovoltaic power plants are located in the cities of Silesian agglomeration in contrast to wind energy. Thus, in the case of photovoltaics there is an example of an installation which was located in industrial areas connected with coal-mining. It was installed on the premises of the Halemba mine in Ruda Śląska. It consists of 1109 photovoltaic cells with a capacity of 410 kWp placed on the roofs of nine buildings of the mine [30].

2.3. Transition to Renewable Energy—Development Directions from the Regional Perspective

There are two main documents which shape future plans for spatial development of the Voivodship: Strategy of the Silesian Voivodship Development „Śląskie 2030” [31] and Spatial Development Plan od the Silesian Voivodship 2020 + [32].
Table 1 presents differences in aspects covered in the documents above.
According to both of these documents, mining is still one of the most important branches of the economy of the Silesian Voivodship and this has also a great spatial impact on the landscapes of the region. Strategy of the Silesian Voivodship Development “Śląskie 2030”, indicated that 24 municipalities have spatial problems related to the transformation, where management of closed mining exploitation areas is a significant problem that needs to be solved. Both of the documents mentioned that, due to the process of restructurization of economy this, however, started to change recently. Even though Silesian Voivodship is still in the beginning of the process and percentage of renewable energy investments is the lowest in the country, strategy for transition from coal to renewable is widely planned in whole area of this region, which is described in the above-mentioned documents.
The first document, Strategy of the Silesian Voivodship Development “Śląskie 2030”, describes only the general need of renewable energy development in the Silesia Voivodship. There are no provisions related to spatial distribution of renewable energy facilities, preferred renewable energy type, and type of the land use where renewable energy infrastructure should develop. The Strategic Environmental Impact Assessment of this document [33], however, draws attention to such aspects of the development of renewable energy as negative impact on the landscape, soil degradation, and transformation of the earth’s surface in connection with the construction of installations based on energy from wind, sun, and water, especially in, or close to, nature protection areas but this influence would only be local.
The second document, Spatial Development Plan of the Silesian Voivodship, focuses on the need for distributed energy development based on the construction of small generating units in places best suited to use specific environmental resources such as, for example, water, wind, or solar. According to this document, there are average conditions for renewable energy development in this region, with only exception for biomass energy and biogas, which can be perceived as high. In general, the areas indicated for wind energy development concern mainly rural areas. Figure 2 presents areas of renewable energy development according to Regional Spatial Development Plan (a) vs. urban and rural areas in the voivodship (b).
To sum up, the provisions of these documents are very general and limited in terms of sitting and parameters of renewable energy facilities. There are also no specific provisions for land use type where renewable energy objects could be implemented and encouragement for the use of already degraded post-mining landscapes.

3. Materials and Methods

In our research, we focused in particular on two types of renewable energy installations that specifically alter landscape character, i.e., wind and photovoltaic farms. To estimate the extent of further development of renewable energy in Silesian Voivodship, basic spatial planning documents applied at municipal level were analyzed, i.e., Studies of Conditions and Directions of Spatial Development of Municipality. In the spatial planning system in Poland, these documents are mandatory, and determine the directions of change in the spatial structure and in the land use. We applied a document analysis method using the READ approach—a systematic procedure for collecting documents and gaining information from them [34]. In line with the method adopted, our research involved four steps: (1) ready materials, (2) extract data, (3) analyze data, and (4) distil findings.
In step one, we tried to collect the Studies of Conditions and Directions of Spatial Development for all the municipalities in the Silesian Voivodship. Analyzed documents were obtained from the public information bulletin of municipalities. In total, Studies for 133 out of 167 municipalities of Silesian Voivodship were analyzed. Documents for 20 municipalities were not publicly available and 14 municipalities were in the process of amending the Study.
To extract data, we used an Excel spreadsheet where we have collected equivalent data for each document. We checked whether and in which of the municipalities the locations of new RE facilities are planned, and then if they are related to wind energy and photovoltaic energy in particular. This way it was verified whether the provisions are in line with the voivodship plan. It was also checked whether these were mainly municipalities, whose landscapes were already heavily industrialized due to the coal-mining infrastructure located there, or whether renewable energy would be developed in new areas, in municipalities with different landscape features. At the same time, it was checked which of the two types of renewable energy is more favored for development in each municipality. It was then checked whether the studies make a distinction for the development of wind and photovoltaic energy based on the capacity of the installation.
In the third part of the research, we analyzed on which types of land use the development of wind and photovoltaic farms is most often planned, and whether the municipalities, in their studies, designate zones for renewable energy sources development, including wind and solar ones. It was also checked whether the municipalities define specific parameters for these zones related to renewable energy development in particular. It was examined how detailed the municipal studies set out the parameters for renewable energy development affecting the perception of the landscape in which renewable energy facilities will be located, including issues relating to the type of installation and its appearance, the length of time for which it is to be installed, ageing infrastructure, decommissioning, and repowering. This was particularly important in view of the scale of potential transformations associated with renewable energy development.
Additionally, in this part of the research, it was investigated whether cultural landscapes of Silesian Voivodship, including heritage and historic monuments related to mining, limit the development of renewable energy in municipalities where they exist and if they were protected from the negative impact of these changes by the provisions in the analyzed studies. It was also verified whether historic areas related to coal-mining are planned for energy transition and renewable energy development. In the same part, it was analyzed whether renewable energy development is planned in municipalities with any legal form of nature protection established to protect unique and valuable landscapes. It was also checked whether the studies contained any provisions regarding protection of these areas from the possible negative impact of renewable energy facilities.
We assumed that in order to distill findings and thus achieve the research objective and predict the impact of the energy transition of Silesian Voivodship on the landscape, by analyzing the provisions of the Studies of Conditions and Directions of Spatial Development for each municipality, we should answer the following questions:
  • What is the spatial extent of renewable energy development, and which municipalities are favored in this respect?
  • What types of land use are designated for renewable energy development, and what are the specific provisions for RE facilities?
  • Are valuable natural and cultural landscapes protected from the negative impacts of renewable energy development by specific provisions of Studies of Conditions and Directions of Spatial Development?
As a result, this has helped us determine to what extent the regulations contained in municipal planning documents will support landscape protection in the energy transition process.

4. Results

4.1. General Provisions for Renewable Energy and in Particular Wind Energy and Solar Energy Development in Studies of Conditions and Direction of Spatial Development

In general, renewable energy development was planned in 115 out of 133 analyzed studies.
Results of this part of the study show that development of renewable energy based on wind energy is usually more restricted than other types of renewable energy. Research of the Studies of Conditions and Directions of Spatial Development showed that only 34 out of 167 municipalities planned development of wind farms. Figure 3a presents the percentage of municipalities where further development of wind energy is allowed. Even though legal regulations in Poland for wind energy below 100 kW are less restrictive, only eight municipalities indicated locations for the development of wind energy below 100 kW. At the same time, 15 municipalities indicated locations for development of wind energy above 100 kW. These numbers do not include existing power plants. In some cases, such as in Opatów, further development of wind energy is not allowed due to a lack of space needed for buffer zones around each wind turbine. Establishment of these zones, where housing is forbidden, has been required since 2016 due to the, so-called, Distance Act.
Construction of photovoltaics is planned in 80 out of 167 municipalities. Figure 3b shows the percentage of municipalities where further development of solar energy is allowed. Although, in some cases, it is not explicitly described that development of solar energy facilities is allowed, it can be assumed that it is one of the many types of renewable energy facilities that can be developed apart from wind energy. Studies of 15 municipalities indicated locations for the development of photovoltaics in micro-installations or below 100 kW. At the same time studies of 61 municipalities indicated locations for the development of photovoltaics above 100 kW.

4.2. General Character of the Municipalities Where Renewable Energy Based on Wind and Solar Energy May Be Developed

As it was mentioned in Section 2.1 General Characteristics of Study Area, in the Silesian Voivodship there are 96 rural municipalities, 49 urban municipalities and 22 urban–rural municipalities. In this research, we analyzed 74 rural municipalities, 43 urban municipalities, and 16 urban–rural municipalities. Research shows that 63 studies of rural municipalities, 14 studies of urban–rural municipalities, and 38 studies of urban municipalities have provisions for renewable energy development. According to the analyzed studies, wind energy development is planned mainly in rural municipalities (19), mainly in the northern part of the voivodship. It is also allowed in seven urban–rural municipalities and in four urban municipalities. Solar energy development on the other hand is allowed in 42 rural municipalities, 28 urban municipalities, and 10 urban-rural municipalities. Figure 4 shows rural, urban, and urban–rural municipalities of the Silesian Voivodship with provisions for renewable energy development.
If we look into other types of classifications of municipalities of voivodship, we can notice that, in general, renewable energy may be developed in 45 out of 60 municipalities that are classified as mining municipalities [35], in 37 out of 45 typically industrial municipalities where over 80 ha consists of industrial area [36] and in 36 out of 52 municipalities with an extensive agriculture—High Nature Value Farmland [37]. Wind energy development is allowed in 10 out of 60 mining municipalities, 10 out of 45 industrial municipalities (9 of these municipalities overlap), and in 12 out of 52 municipalities with extensive agriculture. Solar energy development is allowed in 30 mining municipalities, 24 industrial municipalities (18 of those municipalities overlap), and in 22 municipalities with extensive agriculture. Figure 5 shows provisions for renewable energy development in Studies of Conditions and Directions of Spatial Development in spatial relation to (a) mining, (b) industrial, and (c) extensive agriculture municipalities of Silesian Voivodship.

4.3. Types of Land Use Zones for Renewable Energy Development, Wind Energy Development and Solar Energy Development in the Studies of Conditions and Directions of Spatial Development

Analyses of the Studies of Conditions and Directions of Spatial Development shows that in 48 out of 133 of the researched municipalities renewable energy may only be developed in established specific zones/localizations. They are either designed as a separate type of land use only for renewable energy development or they cover one or more zones with other types of land use. Although not all of the municipalities where renewable energy development is planned designated specific localizations for RE infrastructure in their studies, a number of municipalities permitted renewable energy development in zones with other type of land use, as an accompanying function to the main one. These would be for, e.g., agriculture, services, housing, etc. In some municipalities, renewable energy development as an accompanying function is allowed in more than one zone with specific main type of land use.

4.3.1. Land Use Zones for Wind Energy Development

Research showed that the most frequent land use type where wind farms are permitted are agriculture zones, agricultural production zones, and meadows (11 municipalities). In total, nine of them were in rural municipalities, the other two were in urban-rural municipalities. Only four municipalities planned wind farms in renewable energy development zones, which were designed as a main form of land use. One of them was an urban municipality, three were urban–rural municipalities. Technical infrastructure zones were chosen for wind energy development in one rural municipality, services zones in one rural municipality. Three municipalities planned wind energy in areas of multifunctional use, such as service and production zones or services, production and trade areas, or areas for the location of service facilities, warehouses, bases, production-zones of various economic activities. One of them was an urban municipality and two were rural municipalities. Only two municipalities planned wind energy in production and mining zones, which already represent industrial landscapes. These were both rural municipalities. Surprisingly, three municipalities planned wind energy development in housing zones in installations both below and above 100 kW. Two were urban–rural municipalities and one was a rural municipality. Green areas are rather protected from wind energy development. Only one rural municipality allowed for its development on these areas. Other types of land use where wind energy is planned are areas excluded from development and with limited development possibilities, for which development parameters and indicators are not specified, in one rural municipality. Figure 6 presents a bar chart with the number of urban municipalities, rural municipalities, and urban–rural municipalities, which allow wind energy development on specific types of land use. Table 2 shows municipalities which allow wind energy development on specific type of land use.
When we assigned these results to other types of municipality classification mentioned in the previous chapter, we learned that four mining municipalities, four industrial municipalities, and nine extensive agriculture municipalities specified in which zone, with specified land use type, wind energy development is planned.
Wind energy development in two mining municipalities is planned in an agriculture land use zone, in one municipality it is planned in a service/production zone, and in another in a mining/production land use zone. In one industrial municipality, wind energy may be developed in renewable energy development zones, in one housing land use zone, and in one services/production land use zone. One industrial municipality planned wind energy development in both an agriculture zone and in a mining activity zone. Most of the extensive agriculture municipalities planned wind energy development in areas where the main land use is agriculture. Five of the nine planned wind power plants were to be constructed in agricultural zones, two in service and production zones, one in housing zones, one in services zone, one in production zone, and one in ‘other’, such as areas excluded from development and with limited development possibilities. Only one of these municipalities has planned wind energy development in a specific wind energy development zone. Table 2 shows municipalities which allow wind energy development on specific type of land use with a distinction to urban, rural, urban–rural municipalities, and also mining, industrial, and extensive agriculture.

4.3.2. Land Use Zones for Solar Energy Development

Development of photovoltaics, such as wind farms, is mostly planned in agricultural zones (25 municipalities); of these, 7 were urban municipalities, 3 were urban–rural municipalities, and 15 were rural municipalities. Solar energy infrastructure is also often planned in services and production zones (22 municipalities); of these, 8 were urban municipalities, 1 was an urban–rural municipality, and 13 were rural municipalities. More municipalities plan solar energy development in renewable energy zones (16); Five of them were urban municipalities, six were urban–rural municipalities, and five were rural municipalities. Development of solar energy is more often allowed in technical infrastructure zones (15 municipalities). It is planned in six urban, seven rural, and two urban–rural municipalities. It is also planned in service zones (including one with green areas) by 15 municipalities. Seven of them were urban municipalities, three were urban–rural municipalities, and five were rural municipalities. Studies of only 10 municipalities have designated production and mining zones for this type of renewable energy development, which would enable the reuse of these energy production and industrial areas. Five of them were urban and five were rural municipalities. Seven municipalities permitted solar energy development in housing zones (four of them were urban–rural municipalities and three were rural municipalities) and six in green areas and in forests (five of them were urban municipalities and one was a rural municipality). Other zones where solar energy may be developed are areas of mining waste deposition (one urban).
Results of the study showed that 24 mining municipalities, 19 industrial municipalities, and 18 extensive agriculture municipalities specified land use zones where solar energy development is planned.
Solar energy in mining municipalities is mostly planned in services and production zones—12 municipalities; and technical infrastructure zones—8 municipalities. There are seven municipalities which plan solar energy in service zones. Additionally, in 6 out of 24 mining municipalities solar energy may be developed in zones of agricultural land use. In five mining municipalities it is planned in production zones and in four mining municipalities it is planned in renewable energy development zones. Two mining municipalities planned solar energy development in a housing zone. One mining municipality allowed solar energy development in green areas, and in one municipality it is planned in another type of land use, which are areas of deposition (management) of mining waste.
Additionally, in industrial municipalities solar energy is most often planned in service and production zones—9 in total. Eight of the industrial municipalities planned solar energy development in service zones. Six municipalities designated technical infrastructure zones for solar energy facilities. Five municipalities planned it in production and mining zones, and four in green areas, and five municipalities planned it in agricultural zones. Only two municipalities planned solar energy in a renewable energy zone, one municipality in a housing zone, and only one municipality decided to reuse areas of mining waste deposition (management) for solar energy development.
The most frequent land use type for planned solar energy development in extensive agriculture municipalities of the Śląskie Voivodship is, again, service/production zones—9 out of 18 municipalities planned solar energy on this type of land use. Six of these municipalities planned it in agricultural zones; five municipalities designated for that renewable energy development zones; four municipalities planned solar energy in technical infrastructure zones; three municipalities in production/mining zones; and three planned it in services zones. There are two municipalities that planned solar energy in housing zones and one municipality in green areas. Table 3 shows municipalities which allow solar energy development on specific type of land use with a distinction to urban, rural, urban–rural municipalities and also mining, industrial and extensive agriculture.
In addition to indicating the localization of renewable energy development in particular zones, the Studies of Conditions and Development mostly do not have specific provisions on rules for locating renewable energy facilities. In most cases there are no specific urban parameters or indicators to describe how these facilities may be added to the main land use function, including how much space of the zone they can use. Only some of the analyzed municipalities, which designated renewable energy zones, have set parameters to those zones, such as color of the facilities, their maximum height, biologically active area, or maximum development area ratio.

4.4. Heritage and Valuable Landscape Protection

The system of spatial planning in Poland requires that Studies of Conditions and Spatial Development have specific provisions for all types of heritage that are in these municipalities. All studies should have a list of heritage objects that are protected by national and local law and designated zones where heritage is protected through defined land use restriction. These restrictions mainly require maintenance of view exposition or high quality of the surroundings of the heritage.
According to the ‘List of all objects entered in the register of historic monuments’ (as of 19 November 2021) [38] in the Silesian Voivodship there are currently 2702 monuments in 156 municipalities, including buildings, constructions, and urban and rural arrangements that are without archeological monuments or monuments which are still in the legal parameters of inclusion. Objects on this list consist of historical monuments, which are protected on national level. In addition to this national list, each municipality has their own list of monuments called the Communal Historic Monuments Register, all of which are protected by the local laws of this municipality.
In 127 out of the 133 analyzed municipalities, there is at least one historic monument (29 of 156 of the municipalities which have historic monuments did not provide access to the Studies of Conditions and Directions of Spatial Development). Research showed that renewable energy development is allowed in 110 of them. More specifically, wind energy development is planned in 31 and solar energy in 77 of them. Although transition to renewable energy development is planned in a large number of the analyzed Studies of Conditions and Spatial Development, only 8 out of 133 have any provisions for protecting heritage from the negative impacts of renewable energy development, which accounts for only 4.8% of all analyzed studies (Table 4). Figure 6a shows the percentage of the municipalities that have provisions for heritage and historic monuments protection from negative impact of renewable energy facilities in their Studies of Conditions and Directions of Spatial Development.
In all of the eight municipalities mentioned above, renewable energy development is planned. This means that more than 92% of analyzed municipalities that have historic monuments, planned renewable energy development without any provisions to protect heritage and historic monuments from negative spatial and visual impact on those monuments.
In total, 25 of the historic monuments on the ‘List of all objects entered in the register of historic monuments’ are monuments related to the mining-heritage of the region. They may be found in eight municipalities in the central part of the Silesian Voivodship. Table A2 in Appendix B presents the list of these historic monuments related to mining-culture in the Silesian Voivodship.
There are no historic monuments of national importance related to mining in any of the eight municipalities with provisions for heritage and historic monument protection. This means that, due to the possibility of renewable energy development, this type of monument may be affected by the negative impacts of renewable energy facilities, but on the other hand the lack of legal regulations related to heritage and monument protection might allow the introduction of alternative types of energy production in areas where the landscape has already been heavily transformed by facilities related to coal mining. Figure 7 shows municipalities with monuments related to the mining-heritage of the voivodship in relation to municipalities where renewable energy is planned in Studies of Conditions and Directions of Spatial Development and municipalities whose studies have provisions for valuable landscape protection from the negative impacts of renewable energy development.
In the Act of Nature Protection from 16 April 2004 there are three legal forms of nature protection that may be established to protect valuable landscapes: landscape parks, protected landscape areas, and natural and landscape complexes [39]. According to the legal definitions coming from this Act, landscape parks are established to protect “the areas with natural, historical, cultural and landscape values in order to preserve and popularize these values in the conditions of sustainable development”, protected landscape areas “include areas protected due to the distinctive landscape with diverse ecosystems, valuable due to the ability to meet related needs with tourism and leisure or with the function of ecological corridors”, and nature and landscape complexes are ”fragments of the landscape that are natural and cultural heritage deserving protection due to their scenic or aesthetic values”.
In the Silesian Voivodship there are 8 landscape parks in 67 municipalities. Their total area constitutes around 18.5% of the entire area of the Silesian Voivodship [40]. There are also 15 protected landscape areas in 18 municipalities and 26 nature and landscape complexes in 18 municipalities [41]. Table A3 in Appendix C contains the list of landscape parks in municipalities of the Silesian Voivodship, Table A4 contains the list of protected landscape areas and Table A5 contains the list of nature and landscape complexes.
All three legal forms of nature protection, established to protect valuable landscapes, are found in 90 municipalities. In total, 74 of these municipalities have available Studies of Conditions and Spatial Development.
According to provisions from the analyzed studies, renewable energy is planned in 63 of these municipalities. Despite the fact that 32 out of 133 analyzed studies have provisions for valuable nature areas and landscape protection from negative renewable energy impacts, only 18 from the aforementioned 63 municipalities have any provisions regarding protection from the negative impacts of renewable energy facilities on valuable landscapes in their studies. Figure 6b shows the percentage of the municipalities that include provisions for valuable landscape protection (Landscape parks, areas of protected landscape, and nature and landscape complexes) in their Studies of Conditions and Directions of Spatial Development.
This means that more than 70% municipalities with any legal form of valuable landscape protection including landscape parks, protected landscape areas or nature and landscape complexes, where renewable energy is planned, have no provisions in their studies that limit the possible negative impacts of the renewable energy facilities. Figure 8 presents municipalities with landscape parks, protected landscape areas, and natural and landscape complexes in relation to municipalities where renewable energy is planned in Studies of Conditions and Directions of Spatial Development, and municipalities whose studies have provisions for valuable landscape protection from the negative impacts of renewable energy development.
Wind energy development is planned in 20 municipalities with any legal form of valuable landscape protection. Of those municipalities, 10 had some sort of provisions for protection of valuable landscapes (Table 4).
In most cases the main aim of these provisions is to forbid development of wind or wind and solar energy facilities in areas of nature protection. In two municipalities, wind energy may be developed, but the locations for the power plants require local spatial development plans to study the visual and landscape impact.
Solar energy development is planned in 43 municipalities with at least one legal form of valuable landscape protection. However, only 12 of them had any provision for protection of valuable landscapes. Due to these provisions, in most cases, it is forbidden to develop energy facilities inside established forms of nature protection. According to the provisions of the studies for five municipalities, development of renewable energy should only be permitted a significant specific distance from nature protection forms, including those established for valuable landscape protection.

5. Discussion

The subject of renewable energy development in Poland is a very broad one. In this article, we intentionally do not discuss in detail aspects related to national energy policy, social consequences of energy transition, as well as technical and economic conditions which significantly influence the pace of energy transition to renewable sources. With this publication we would like to draw attention to the fact that the development of renewable energy must also be more thought out in terms of spatial policy and the distribution of facilities in space in order to make this development more sustainable. It should be remembered that landscape resources are limited and the need for contact with the untouched landscape is becoming more and more difficult to satisfy [13].
RES already, even with the small number of existing installations, causes social conflicts at a local and regional level; however, due to the climate and the environmental protection resulting, the developments received from this technology should unite people [42]. Planning RE as far as possible in places that have already been transformed is a goal that should guide us in order to protect the landscape and its visual representation. Moving facilities to new locations means that other infrastructure also has to be constructed, such as roads, power lines, etc., so the impact on the landscape increases more in that situation and the economic cost of that is also higher. It also does not force people to migrate to new locations for jobs in the energy industry.
This study analyzed the spatial policies of municipalities in the Silesian Voivodship in order to determine the scope of wind and solar energy spatial development and to assess possibilities of predicting the effects they will have on the landscape.
The visual intrusion associated with the large-scale use of wind and solar energy has been linked by many researchers to two important aspects that can affect landscape quality. The first is the physical characteristics of wind and solar farms, and the second is where they are located. The physical characteristics include: size [1,43,44], area [1,7,8], color [43,45,46].
The impact associated with the siting of wind and solar farms is mostly related to: distance [11,44,47], land cover [11,47,48], and existing landscape character [1,47,49].
Most of the provisions in the analyzed spatial policies regarding renewable energy development are limited to a short description about whether renewable energy development is allowed in a particular municipality or not. Some of the municipalities provide more specific descriptions regarding renewable energy development, however in most cases they do not contain such essential provisions as:
  • Specific types of renewable energy facilities that are allowed in particular municipality;
  • The area that they can occupy;
  • Height of allowed facilities;
  • Areas that should be protected from the negative impact of renewable energy development.
In only three of the analyzed municipalities—Toszek (LAU 1001241470507), Pyskowice (LAU 1001241470502), and Orzesze (LAU 1001241510803), the studies have provisions to restore the land to agricultural use after the decommissioning of planned photovoltaic facilities. The aspects of repowering of renewable energy facilities were not taken into account in any of the municipalities. However, it should be an important issue in RE facilities development [48,50].
To a large extent, the poor provisions of analyzed spatial policies may be due to the lack of formal requirements on the content of local spatial policies related to the development of RES in Poland. Another problem is the lack of a coherent planning system for renewable energy at the various administration levels. This is reflected in the differences in the extent of renewable energy development according to the provisos of the Regional Spatial Development Plan (Figure 2a) and the provisions of Studies of Conditions and Directions of Spatial Development prepared by local authorities (Figure 5). Under regional plan renewable energy should be developed in rural areas, while analysis of municipal documents showed that urban and urban–rural municipalities are also willing to develop RES in their territories. The UK National Planning Policy Framework encourages the development of solar farms on previously developed and non-agricultural land, provided that it is not of high natural value [51]. In Germany, agricultural land and industrial land are usually designated as concentration zones of RES development [52]. In the US, building on previously disturbed land and combining renewable power with other land uses, such as agriculture, is one of the means to minimize land use conflicts [12].
In view of the above, the impact of RES development on the landscape cannot be unambiguously determined.
However, considering the importance of pushing forward the energy transition, due to the goals of the European Green Deal, the high pressure in the European Union to change the continent into, first, carbon neutral by 2050, and then to switch from coal-based energy production, the lack of proper and detailed spatial planning of RE facilities regarding characteristics of each region should be taken into account more seriously than it is for now [2,26].
Since World War II, in Poland it has been assumed that the source of energy is a guarantee of energy independence. Today, the technology of energy production from coal is outdated, but many factors slow down the transition. In Poland, sentiment towards mining-traditions seem to be strong. A lack of proper legal landscape conservation tools for protection against possible negative impacts has caused strong social resistance. The NIMBY effect has blocked many investments. At the same time, transition is difficult from the economic and technological perspective because the country is dependent on coal as a main energy source. The ambitious goals of the Green New Deal are rather difficult to be achieved in Poland [26,42]. Even though Energy Policy of Poland by 2040 [53] has very optimistic arrangements for development, the Report of the Supreme Audit Office NIK of 2020, shows that the current strategy for transition does not work and needs improvement [54]. However, if the trend would change, in line with Energy Policy of Poland by 2040 (share of RES energy in the electric power industry will reach about 40% net due to legal support and technological and economic level of development and the visible growth will start after 2025).
This means that there is a potential risk that resources, such as the landscape and its visual representation, would become soon largely affected. In a situation where the spatial planning of renewable energy facilities is marginalized, the quality of the new type of energy landscapes and the scale of their impact will be big issues for sustainable development in terms of nature conservation and valuable landscape protection [9]. Having that perspective, there is not much time to improve provisions in Studies of Conditions and Directions of Spatial Development and other documents on local and regional level towards renewable energy development for landscape character protection and quality planning.
Using the example of the Silesian Voivodship, it is clear that the energy transition in spatial terms is not taking place only directly in the same locations where the landscape was previously altered by coal-mining and the related industrialization. At the same time, the rather general Strategy and Spatial Plan of the Silesian Voivodship translate into equally not detailed provisions on the willingness to develop RES in the vast majority of municipalities in the province. The fact that provisions in the studies are so general may be due to the willingness of local governments to encourage investors to develop renewable energy within their municipalities. However, the frequent lack of detailed provisions on the spatial distribution of RE facilities and planning RE in areas other than mining and industrial areas, or provisions for protection of cultural landscapes with historical monuments and valuable natural landscapes, may in the future have serious consequences for the quality of life of residents of these areas, by introducing spatial chaos with installations which can become the new landscape dominants and drastically alter the perception of their surroundings. In fact, there are already proven examples of places where property values and the quality of life of residents have decreased by the appearance of RES in the vicinity [47]. Thus, examples of good practices of thoughtful spatial planning and design of solar energy facilities directly in the abandoned mining sites (with sufficient solar exposure conditions), coming from other coal-regions, such as in Saarland in Germany, might be both cost and spatial effective solutions in municipalities mentioned in the introduction, with spatial problems related to economic transformation of the Silesian Voivodship [55].
The current state of RES planning in municipalities may be due to a lack of legal tools, specific guidelines, and, from the beginning, mainly the understanding of local authorities in the municipalities of the scale of spatial changes that need to take place in order to transition and replace mines and coal power plants with large-scale wind farms or photovoltaic farms [18,56,57]. RES planned in new areas, e.g., agricultural or residential areas, change the landscape character and perception and affect a new, larger group of landscape users than before. Currently the development of RES in Poland is slowed down by the unstable legal situation related to RES, changing ways of accounting and support systems for this type of investments, as well as the so-called Distance Act of 2016 with 10H rule (In Poland, the current regulations limit the development of wind energy to locations far away from residential buildings) [58]. However, if the position of the government changes, investors will be able to change most of the land in the Silesian Voivodship into industrial energy landscapes on the basis of the current planning documents.
It is, therefore, important to monitor and analyze planning documents for the development of RES on a municipality scale, as they have the final impact on landscape changes on a regional scale. It is important to remember that while planning the transition to renewable energy sources that they often constitute new spatial dominants and influence the environment not only on a municipality scale. In the case of RES planning, the importance of landscape audits according to the European Landscape Convention 2000 [59] is clearly visible, which will allow the identification of priority landscapes in the whole voivodship and to take into account their protection in the planning documents. (Currently, a landscape audit is being prepared for the Silesian Voivodship to identify such landscapes). It is also necessary to encourage municipalities to plan RES on their territory in a more precise way, specifying the parameters of particular installations which can be constructed in a given location. They should also pay attention to whether the planned installations are likely to fit harmoniously into the existing landscape, by specifying the minimum and maximum number of objects, their maximum height, colors, or spatial distribution. Good provisions and appropriate planning may limit the negative impact of RES on the landscape and, thus, improve its perception by users [18].

6. Conclusions

Concluding the obtained results, it has to be said that methods used in this research has enabled us to determine that local regulations do not take into consideration the type of municipality, as well as the land use and landscape value in the development of renewable energy. Renewable energy facilities are often planned in non-mining and non-industrial municipalities. This will involve the creation of new industrial cultural landscapes—energy landscapes related to the development of wind farms and photovoltaics and modification of other types of landscape, such as Highly Valuable Natural Landscapes.
The analysis of the municipal studies indicates that the municipalities have a preference for photovoltaic energy development over wind energy development. Wind energy development is allowed in 34 (20.4%) municipalities, while photovoltaics are allowed in 80 (47.9%) municipalities. Wind farms above 100 kW are banned in the vast majority of municipalities, even if RES development is allowed in them. To a large extent, this is related to the introduction of the Distance Act of 2016, which requires the designation of protection zones around wind farms above 100 kW, in which buildings may not be located.
Renewable energy development will have a significant impact on the perception of rural landscapes of Silesian Voivodship, because the development of wind farms is mostly planned on agricultural land in rural municipalities due to the best capacity of the wind in these areas. This will be particularly felt in the southern sub-region of the voivodship, which is mountainous in character.
Less than half of the municipalities whose studies were analyzed designate renewable energy zones. In most municipalities renewable power will be co-located with other land uses. According to analyzed studies, wind and solar installations will most often share land with agriculture, services, and production.
Results of the research confirmed our hypothesis, that provisions for RE development of most of the analyzed Studies of Conditions and Development are too general to maintain the quality of the landscape. Renewable energy development is planned in the large number of analyzed municipalities. However, aspects such as localization, permitted type of the facility, and their basic parameters, such as number, height, spacing, and color are often not provided in the Studies of Condition and Spatial Development. Facilities are planned not only in mining and industrial municipalities, but also in extensive agriculture municipalities. There are also not many examples of reusing post-mining areas by planning RE infrastructure there. However, RE development, if this information is provided, is not only planned in renewable energy zones or in service and production land use zones. It is also allowed in a large number of agriculture land use zones, housing zones, green areas, and other types of land use, which will extend the area occupied by energy landscapes. Without the proper regulations further transition towards renewable energy can cause landscape degradation by its further industrialization and can be perceived as unsustainable. Impact of the renewable energy facilities often extends beyond the municipality boundaries and may affect also landscapes of neighboring municipalities. Our research showed also that without more specific regulation on the regional level, renewable energy landscapes may appear in most of the municipalities. This is something that should be avoided on regional level, by analyzing sensitivity and capacity of voivodship landscapes and eliminating important ones that should be protected from renewable energy development [19]. Identification of priority landscapes based on landscape audit of the Silesian Voivodship and more specific provisions for energy production areas may help to improve this situation in the future and fulfill the most important goal of spatial planning by reducing possible social, economic and environmental conflicts.

Author Contributions

Conceptualization, H.S.-K. and R.G.; methodology, H.S.-K. and R.G.; software, H.S.-K. and R.G. validation, H.S.-K. and R.G.; formal analysis, H.S.-K. and R.G.; investigation, H.S.-K. and R.G.; resources, H.S.-K. and R.G.; data curation, H.S.-K. and R.G.; writing—original draft preparation, H.S.-K. and R.G.; writing—review and editing, H.S.-K. and R.G.; visualization, H.S.-K. and R.G.; supervision, H.S.-K. and R.G. project administration, H.S.-K. and R.G. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

Not applicable.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. General characteristics of Silesian Voivodship municipalities (source: own elaboration based on: Eurostat database https://ec.europa.eu/eurostat/web/nuts/local-administrative-units (accessed on 5 January 2022)).
Table A1. General characteristics of Silesian Voivodship municipalities (source: own elaboration based on: Eurostat database https://ec.europa.eu/eurostat/web/nuts/local-administrative-units (accessed on 5 January 2022)).
Name of MunicipalityNUTS 3LAUDEGURBAPopulation
(2021)
Area (ha)
(2021)
BestwinaPL2251001241440202211,9503792
BędzinPL22B1001241500101156,0083737
Bielsko-BiałaPL22510012414461011169,75612,451
BieruńPL22C1001241511401219,3754049
BlachowniaPL2241001241460401212,8316661
BobrownikiPL22B1001241500104212,1225148
BojszowyPL22C1001241511404380453469
BoronówPL2281001241450702334495728
BrennaPL2251001241440304311,3739561
BuczkowicePL2251001241440203211,2261946
BytomPL22810012414562011163,2556944
Chełm ŚląskiPL22C1001241511405264032333
ChorzówPL22A10012414863011106,8463324
ChybiePL2251001241440305298323175
CiasnaPL22810012414507033738813,395
CieszynPL2251001241440301233,9812861
Czechowice-DziedzicePL2251001241440204245,4906648
CzeladźPL22B1001241500102231,0391638
CzernichówPL2251001241441702366635640
Czerwionka-LeszczynyPL2271001241491201241,90911,464
CzęstochowaPL22410012414664011217,53015,971
Dąbrowa GórniczaPL22B10012415065011118,28518,873
Dąbrowa ZielonaPL22410012414604023384810,021
DębowiecPL2251001241440306358454264
GaszowicePL2271001241491202298561985
GierałtowicePL2291001241470503212,2523806
GilowicePL2251001241441703263272795
GliwicePL22910012414766011177,04913,388
Goczałkowice-ZdrójPL22C1001241511001267354739
GodówPL2271001241491505213,8453805
GoleszówPL2251001241440307313,1426587
GorzycePL2271001241491506221,3706458
HażlachPL2251001241440308310,9194878
HerbyPL2281001241450704367698591
ImielinPL22C1001241511402292692799
IrządzePL22B1001241501603325797100
IstebnaPL2251001241440309312,1848432
JanówPL22410012414604033595814,675
JasienicaPL2251001241440205324,6819167
Jastrzębie-ZdrójPL2271001241496701188,0388533
JaworzePL2251001241440206274432113
JaworznoPL22B1001241506801190,36815,259
JejkowicePL227100124149120324185759
JeleśniaPL2251001241441704313,21017,062
KaletyPL2281001241451301285487629
Kamienica PolskaPL2241001241460404355144645
KatowicePL22A10012414869011290,55316,464
KłobuckPL2241001241460601320,21313,001
KłomnicePL2241001241460405313,42214,773
KnurówPL2291001241470501237,8013395
KobiórPL22C1001241511002349714819
KochanowicePL2281001241450705369598002
KoniecpolPL22410012414604062928314,662
KonopiskaPL2241001241460407310,7287851
KornowacPL2271001241491102351652620
KoszarawaPL2251001241441705323463156
KoszęcinPL2281001241450706311,81012,918
KoziegłowyPL2241001241460902314,34815,964
KozyPL2251001241440207213,0912674
KroczycePL22B10012415016043623911,005
Krupski MłynPL2281001241451305331773908
KruszynaPL2241001241460408348029355
KrzanowicePL2271001241491103356764720
KrzepicePL2241001241460602390107894
KrzyżanowicePL2271001241491104311,1856970
Kuźnia RaciborskaPL2271001241491105211,64112,662
LelówPL22410012414604093479412,369
LędzinyPL22C1001241511403216,7313165
LipiePL2241001241460603362049905
LipowaPL2251001241441706210,8725872
LubliniecPL2281001241450701223,5518936
LubomiaPL2271001241491507279034178
LyskiPL2271001241491204396765739
Łaziska GórnePL22C1001241510801222,1302011
ŁazyPL22B1001241501605315,85113,293
ŁękawicaPL2251001241441707245604277
ŁodygowicePL2251001241441708214,6373586
MarklowicePL2271001241491508254171369
Miasteczko ŚląskiePL2281001241451302274186783
MiedźnaPL22C1001241511003216,6605009
MiedźnoPL22410012414606043751811,277
MierzęcicePL22B1001241500105376234943
MikołówPL22C1001241510802241,0037921
MilówkaPL2251001241441709310,0409888
MstówPL2241001241460410310,84611,957
MszanaPL2271001241491509276843122
MykanówPL2241001241460411315,16414,156
MysłowicePL22A1001241487001174,5596562
MyszkówPL2241001241460901231,2617359
NędzaPL2271001241491106374465722
NiegowaPL2241001241460903356048796
OgrodzieniecPL22B1001241501606290188473
OlsztynPL22410012414604123783510,910
OpatówPL2241001241460605368057348
OrnontowicePL22C1001241510804261791545
OrzeszePL22C1001241510803221,2908371
OżarowicePL2281001241451306358064588
PankiPL2241001241460606350355494
PawłowicePL22C1001241511004318,1567568
PawonkówPL22810012414507073661511,893
Piekary ŚląskiePL2281001241457101154,7023998
Pietrowice WielkiePL2271001241491107368886793
PilchowicePL2291001241470504312,1386983
PilicaPL22B10012415016073853414,276
PoczesnaPL2241001241460413212,6415998
PopówPL22410012414606073583510,229
PorajPL2241001241460904210,8225706
PorąbkaPL2251001241440208215,5816443
PorębaPL22B1001241501601284613999
PrzyrówPL2241001241460414337378040
PrzystajńPL2241001241460608358498883
PsaryPL22B1001241500106212,2684616
PszczynaPL22C1001241511005252,82317,473
PszówPL2271001241491501213,7342044
PyskowicePL2291001241470502218,4553089
RacibórzPL2271001241491101254,2597501
RadlinPL2271001241491502217,6651253
Radziechowy-WieprzPL2251001241441710213,0686486
RadzionkówPL2281001241451303216,9031320
RajczaPL22510012414417113870913,142
RędzinyPL2241001241460415298504123
Ruda ŚląskaPL22A10012414872011136,4237773
RudnikPL2271001241491108351507388
RudziniecPL2291001241470505310,68215,914
RybnikPL22710012414973011137,12814,836
RydułtowyPL2271001241491503221,3851495
Siemianowice ŚląskiePL22A1001241487401166,2702550
SiewierzPL22B1001241500107312,38711,385
SkoczówPL2251001241440310226,7886355
SławkówPL22B1001241500108269353667
SosnowiecPL22B10012415075011197,5869106
SośnicowicePL22910012414705063890611,650
StarczaPL2241001241460416328532009
StrumieńPL2251001241440311313,2565854
SuszecPL22C1001241511006212,4697508
SzczekocinyPL22B10012415016083753813,393
SzczyrkPL2251001241440201257103907
ŚlemieńPL2251001241441712335344502
ŚwierklaniecPL2281001241451307212,5054463
ŚwierklanyPL2271001241491205212,5402417
ŚwiętochłowicePL22A1001241487601149,1081331
ŚwinnaPL2251001241441713280543918
Tarnowskie GóryPL2281001241451304261,7568388
ToszekPL2291001241470507393619982
TworógPL22810012414513083828212,504
TychyPL22C10012415177011126,8718181
UjsołyPL22510012414417143440610,981
UstrońPL2251001241440302215,9895903
Węgierska GórkaPL2251001241441715215,0407647
WielowieśPL22910012414705083582111,618
WilamowicePL2251001241440209217,7945734
WilkowicePL2251001241440210213,3823440
WisłaPL2251001241440303211,00711,017
WłodowicePL22B1001241501609352037679
Wodzisław ŚląskiPL2271001241491504247,5764951
WojkowicePL22B1001241500103288771279
WoźnikiPL22810012414507083956812,762
Wręczyca WielkaPL2241001241460609317,86114,828
WyryPL22C1001241510805286003462
ZabrzePL22910012414778011170,9248040
ZawierciePL22B1001241501602248,7038525
ZbrosławicePL2281001241451309316,38514,836
ZebrzydowicePL2251001241440312213,2204142
ŻarkiPL22410012414609053845110,100
ŻarnowiecPL22B10012415016103454612,480
ŻoryPL2271001241497901162,8446464
ŻywiecPL2251001241441701230,7335054
Total 4,492,3301,233,309

Appendix B

Table A2. Historic monuments related to mining-culture in Silesian Voivodship (source: own elaboration based on the list of all objects entered in the register of historic monuments (as of 19 November 2021)).
Table A2. Historic monuments related to mining-culture in Silesian Voivodship (source: own elaboration based on the list of all objects entered in the register of historic monuments (as of 19 November 2021)).
Municipality (Type)NUTS 3LAUDEGURBADescription of Historic Monument
Bytom (urban)PL22810012414562011The hoisting tower of the Krystyna Shaft of the former Szombierki coal mine together with the immediate surroundings and the remains of equipment
Bytom (urban)PL22810012414562011Cemetery of the Roman Catholic Parish St. Jack with mass grave of miners who died in the catastrophe in the “Heinitz” mine
Bytom (urban)PL22810012414562011Building complex of the main area of the former “Rozbark” mine
Bytom (urban)PL22810012414562011Building of the shaft of the “Western” ventilation shaft with the steel shaft structure of the Preusen mine (later KWK Miechowice)
Bytom (urban)PL22810012414562011Building of the hoisting machine of the Preusen mine (later KWK Miechowice)
Katowice (urban)PL22A10012414869011Former buildings of the “Alfred” shaft of the former “Wełowiec” mine
Katowice (urban)PL22A10012414869011Former villa of the director of the Giesche mine
Katowice (urban)PL22A10012414869011Building of the Nowa Łaźnia Łaźnia in the area of the Wujek coal mine
Katowice (urban)PL22A10012414869011Building of the former clothing and fuel warehouse of the OHEIM mine, currently the Museum, the Wujek Mine Memorial Room
Katowice (urban)PL22A10012414869011Avenue consisting of 150 trees, birches, located along both sides of the road leading from the Murcki railway station to the Murcki mine
Pszów (urban)PL22710012414915012Buildings included in the development of the “Anna” coal mine
Ruda Śląska
(urban)
PL22A10012414872011Steam hoisting machine (two-cylinder, so-called twin, horizontal, type BB-4.5, power 428KM, year from 1893) on the “Jurand II” shaft with the building in which it is located in the “Karol” coal mine
Ruda Śląska
(urban)
PL22A10012414872011Top-shaft building of the “Andrzej” shaft of the former mine “God’s Blessing” (now “Peace”)
Ruda Śląska
(urban)
PL22A10012414872011Complex of buildings of the former “Franciszek” shaft of the Wawel mine
Rybnik (urban)PL22710012414973011Workers’ housing estate at the “Rymer” coal mine with an adjacent park
Rybnik (urban)PL22710012414973011Development complex and the immediate surroundings of the former Ignacy-Hoym mine (now Kompania Węglowa SA KWK Rydułtowy-Anna Rejon Ignacy)
Świętochłowice (urban)PL22A10012414876011Two hoisting towers no. I and II of the former Polska mine and their surroundings within the plot
Tarnowskie Góry (urban)PL22810012414513042Former ore mine
Tarnowskie Góry (urban)PL22810012414513042City park with its components including topography, mainly the area of the iron ore mine with preserved warps on the shafts
Zabrze (urban)PL22910012414778011Building complex of the former “Królowa Luiza” mine
Zabrze (urban)PL22910012414778011Building of the former workers’ hotel of the Ludwik mine
Zabrze (urban)PL22910012414778011“Ludwik” mine development complex
The “Liberation” shaft and the main gallery in seam 510 of the former “Królowa Luiza” mine
Zabrze (urban)PL22910012414778011Complex of buildings and headings of the former “Guido” mine
Zabrze (urban)PL22910012414778011Excavations of the former Luiza and Zabrze-Bielszowice mines
Zabrze (urban)PL22910012414778011Cloakroom and mining bath building on the site of the former Castellengo hard coal mine
Zabrze (urban)PL22910012414778011Fall corridor no. 1 at level 320—part of the complex of buildings and road pits of the
Zabrze (urban)PL22910012414778011Former “Guido” hard coal mine

Appendix C

Forms of nature protection that may be established to protect valuable landscapes: landscape parks, protected landscape areas and natural and landscape complexes in municipalities of Śląskie Voivodship (source: Central Register of Nature Conservation Forms of Republic of Poland).
Table A3. Landscape parks in municipalities of Silesian Voivodship (source: own elaboration based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms).
Table A3. Landscape parks in municipalities of Silesian Voivodship (source: own elaboration based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms).
Landscape ParkMunicipality
(Administrative Type)
NUTS 3LAUDEGURBA
Landscape Park “Cysterskie Kompozycje Krajobrazowe Rud Wielkich”Sośnicowice (urban–rural)PL22910012414705063
Racibórz (urban)PL22710012414911012
Jejkowice (rural)PL22710012414912032
Suszec (rural)PL22C10012415110062
Pilchowice (rural)PL22910012414705043
Żory (urban)PL22710012414979011
Kuźnia Raciborska (urban–rural)PL22710012414911052
Nędza (rural)PL22710012414911063
Rybnik (urban)PL22710012414973011
Knurów (urban)PL22910012414705012
Orzesze (urban)PL22C10012415108032
Kornowac (rural)PL22710012414911023
Lyski (rural)PL22710012414912043
Gaszowice (rural)PL22710012414912022
Czerwionka-Leszczyny (urban–rural)PL22710012414912012
Załęczański Landscape ParkLipie (rural)PL22410012414606033
Lasy Nad Górną Liswartą Landscape ParkBlachownia (urban–rural)PL22410012414604012
Wręczyca Wielka (rural)PL22410012414606093
Boronów (rural)PL22810012414507023
Koszęcin (rural)PL22810012414507063
Woźniki (urban–rural)PL22810012414507083
Ciasna (rural)PL228 10012414507033
Przystajń (rural)PL22410012414606083
Panki (rural)PL22410012414606063
Starcza (rural)PL22410012414604163
Konopiska (rural)PL22410012414604073
Herby (rural)PL22810012414507043
Kochanowice (rural)PL22810012414507053
Orlich Gniazd Landscape ParkCzęstochowa (urban)PL22410012414664011
Dąbrowa Górnicza (urban)PL22B10012415065011
Janów (rural)PL22410012414604033
Kroczyce (rural)PL22B10012415016043
Łazy (urban-rural)PL22B10012415016053
Mstów (rural)PL22410012414604103
Niegowa (rural)PL22410012414609033
Ogrodzieniec (urban–rural)PL22B10012415016062
Olsztyn (rural)PL22410012414604123
Pilica (urban–rural)PL22B10012415016073
Poczesna (rural)PL22410012414604132
Włodowice (rural)PL22B10012415016093
Zawiercie (urban)PL22B10012415016022
Żarki (urban-rural)PL22410012414609053
Żarnowiec (rural)PL22B10012415016103
Stawki Landscape ParkPrzyrów (rural)PL22410012414604143
Janów (rural)PL22410012414604033
Mstów (rural)PL22410012414604103
Beskidu Małego Landscape ParkGilowice (rural)PL22910012414766011
Kozy (rural)PL22510012414402072
Żywiec (urban)PL22510012414417012
Łękawica (rural)PL22510012414417072
Bielsko-Biała (urban)PL22510012414461011
Porąbka (rural)PL22510012414402082
Łodygowice (rural)PL22510012414417082
Wilkowice (rural)PL22510012414402102
Czernichów (rural)PL22510012414417023
Żywiecki Landscape ParkŚwinna (rural)PL22510012414417132
Rajcza (rural)PL22510012414417113
Ujsoły (rural)PL22510012414417143
Jeleśnia (rural)PL22510012414417043
Radziechowy-Wieprz (rural)PL22510012414417102
Wegierska Górka (rural)PL22510012414417152
Milówka (rural)PL22510012414417093
Beskidu Śląskiego Landscape ParkWęgierska Górka (rural)PL22510012414417152
Szczyrk (urban)PL22510012414402012
Jasienica (rural)PL22510012414402053
Jaworze (rural)PL22510012414402062
Brenna (rural)PL22510012414403043
Bielsko-Biała (urban)PL22510012414461011
Buczkowice (rural)PL22510012414402032
Wilkowice (rural)PL22510012414402102
Radziechowy-Wieprz (rural)PL22510012414417102
Wisła (urban)PL22510012414403032
Milówka (rural)PL22510012414417093
Ustroń (urban)PL22510012414403022
Lipowa (rural)PL22510012414417062
Goleszów (rural)PL22510012414403073
Istebna (rural)PL22510012414403093
Table A4. Protected landscape areas in municipalities of Silesian Voivodship (source: own elaboration based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms).
Table A4. Protected landscape areas in municipalities of Silesian Voivodship (source: own elaboration based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms).
Protected Landscape
Areas
Municipality
(Administrative Type)
NUTS 3LAUDEGURBA
Przełajka Protected Landscape AreaSiemianowice Śląskie (urban)PL22A10012414874011
Dobra Wilkoszyn Protected Landscape AreaJaworzno (urban)PL22B10012415068011
Góra Zamkowa Protected Landscape AreaBedzin (urban)PL22B10012415001011
Wyżyny Miechowskiej Protected Landscape AreWodzisław (urban)PL22710012414915042
Żarnowiec (rural) PL22B10012415016103
Meandry Rzeki Odry Protected Landscape AreaKrzyżanowice (rural)PL22710012414911043
Podklepie Protected Landscape AreaBestwina (rural) PL22510012414402022
Czechowice-Dziedzice (urban)PL22510012414402042
Cieszyńskie Pogórze Protected Landscape AreaCieszyn (urban)PL22510012414403012
Potoku Ornontowickiego łącznie z dopłwami Protected Landscape AreaOrnontowice (rural)PL22C10012415108042
Potoku Leśnego łączenie z dopływami Protected Landscpe AreaOrnontowice (rural)PL22C10012415108042
Potoku Z Bujakowa łączenie z dopływani Protected Landscape AreaOrnontowice (rural)PL22C10012415108042
Potoku Ląkowego łączenie z dopływani Protected Landscape AreaOrnontowice (rural)PL22C10012415108042
Potoku od Solarni łączenie z dopływani Protected Landscape AreaOrnontowice (rural)PL22C10012415108042
Otuliny Załęczańskiego Parku krajobrazowego Protected Landscape AreaLipie (rural)PL22410012414606033
Otulina Parku Krajobrazowego Orlich Gniazd i Parku Krajobrazowego Stawki Protected Landscape AreaZawiercie (urban)PL22B10012415016022
Łazy (urban–rural)PL22B10012415016053
Dąbrowa Górnicza (urban)PL22B10012415065011
Ogrodzieniec (urban–rural)PL22B10012415016062
Żarnowiec (rural)PL22B10012415016103
Kroczyce (rural)PL22B10012415016043
Sławków (urban)PL22B10012415001082
Pilica (urban–rural)PL22B10012415016073
Wzgórze Doroty, Lasek Grodziecki Protected Landscape AreaBędzin (urban)PL22B10012415001011
Table A5. Nature and landscape complexes in municipalities of Silesian Voivodship (based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms).
Table A5. Nature and landscape complexes in municipalities of Silesian Voivodship (based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms).
Nature and Landscape ComplexesMunicipality (Type)NUTS 3LAUDEGURBA
Szopienice-BorkiKatowice (urban)PL22A10012414869011
Las Murckowski BuczynaKatowice (urban)PL22A10012414869011
Źródliska KłodnicyKatowice (urban)PL22A10012414869011
Dolina WapienicyBielsko-Biała (urban)PL22510012414461011
Cygański LasBielsko-Biała (urban)PL22510012414461011
Sarni StokBielsko-Biała (urban)PL22510012414461011
Gościnna DolinaBielsko-Biała (urban)PL22510012414461011
Żabie DołyBytom (urban), Chorzów (urban), Piekary Śląskie (urban)PL22810012414562011
PL22A10012414863011
PL22810012414571011
Miechowicka Ostoja LeśnaBytom (urban)PL22810012414562011
Suchogórski Labirynt SkalnyBytom (urban)PL22810012414562011
Uroczysko BuczynaChorzów (urban)PL22A10012414863011
BociekLubomia (rural)PL22710012414915072
WielikątLubomia (rural)PL22710012414915072
Park w Reptach in Dolina rzeki Drzamy ZbrosławiceTarnowskie Góry (urban)PL22810012414513042
Doły PiekarskieTarnowskie Góry (urban)PL22810012414513042
Lasek Miejskiw BłogocicachCieszyn (urban)PL22510012414403012
Bluszcze na Górze ZamkowejCieszyn (urban)PL22510012414403012
Dolina JamnyMikołów (urban)PL22C10012415108022
Wzgórze KamionkaMikołów (urban)PL22C10012415108022
Uroczysko Sadowa GóraJaworzno (urban)PL22B10012415068011
JaworzeJaworze (rural)PL22510012414402062
Dolina LipinkiŚwiętochłowice (urban)PL22A10012414876011
Wzgórze GołonoskieDąbrowa Górnicza (urban)PL22B10012415065011
KaplicówkaSkoczów (urban–rural)PL22510012414403102
PasiekiMiasteczko Śląskie (urban)PL22810012414513022
Góra BuczeBrenna (rural)PL22510012414403043

References

  1. Skenteris, K.; Mirasgedis, S.; Tourkolias, C. Implementing hedonic pricing models for valuing the visual impact of wind farms in Greece. Econ. Anal. Policy 2019, 64, 248–258. [Google Scholar] [CrossRef]
  2. State of the Energy Union 2021—Contributing to the European Green Deal and the Union’s recovery Report. Available online: https://ec.europa.eu/energy/sites/default/files/state_of_the_energy_union_report_2021.pdf (accessed on 19 December 2021).
  3. Fuksa, D. Opportunities and Threats for Polish Power Industry and for Polish Coal: A Case Study in Poland. Energies 2021, 14, 6638. [Google Scholar] [CrossRef]
  4. Sayed, E.T.; Wilberforce, T.; Elsaid, K.; Rabaia, M.K.; Abdelkareem, M.A.; Chae, K.-J.; Olabi, A.G. A critical review on environmental impacts of renewable energy systems and mitigation strategies: Wind, hydro, biomass and geothermal. Sci. Total Environ. 2021, 766, 144505. [Google Scholar] [CrossRef] [PubMed]
  5. Frolova, M.; Centeri, C.; Benediktsson, K.; Hunziker, M.; Kabai, R.; Scognamiglios, A.; Martinopoulos, G.; Sismani, G.; Brito, P.; Muñoz-Cerón, E.; et al. Effects of renewable energy on landscape in Europe: Comparison of hydro, wind, solar, bio-, geothermal and infrastructure energy landscapes. Hung. Geogr. Bull. 2019, 68, 317–339. [Google Scholar] [CrossRef]
  6. Van Noordt, A. The role of spatial development in the energy and climate transition. In Proceedings of the 54th ISOCARP Congress, Cool Planning: Changing Climate & Our Urban Future, Bode, Norway, 1–5 October 2018; pp. 337–348. [Google Scholar]
  7. Biehl, J.; Koppel, J.; Grimm, M. Creating space for wind energy in a polycentric governance setting. Renew. Sustain. Energy Rev. 2021, 152, 111627. [Google Scholar] [CrossRef]
  8. Lehman, P.; Ammermann, K.; Gawel, E.; Geiger, C.; Hauk, J.; Heilmann, J.; Meier, J.; Ponitka, J.; Schicketanz, S.; Stemmer, B.; et al. Managing spatial sustainability trade-offs: The case of wind power. Ecol. Econ. 2021, 185, 107029. [Google Scholar] [CrossRef]
  9. Ponitka, J.; Boettner, S. Challenges of future energy landscapes in Germany—A nature conservation perspective. Energy Sustain. Soc. 2020, 10, 17. [Google Scholar] [CrossRef]
  10. Benediktsson, K.; Frolova, M.; Centeri, C.; Hennig, B. Introduction of RE types and their impacts of the landscape. In Renewable Energy and Landscape Quality; Roth, M., Eiter, S., Röhner, S., Kruse, A., Schmitz, S., Frantál, B., Centeri, C., Frolova, M., Buchecker, M., Stober, D., et al., Eds.; Jovis: Berlin, Germany, 2018; pp. 166–173. [Google Scholar]
  11. Sklenicka, P.; Zouhar, J. Predicting the visual impact of onshore wind farms via landscape indices: A method for objectivizing planning and decision processes. Appl. Energy 2018, 209, 445–454. [Google Scholar] [CrossRef]
  12. Renewables, Land Use, and Local Opposition in the United States. Brookings Foreign Policy Report. 2020. Available online: https://www.brookings.edu/wp-content/uploads/2020/01/FP_20200113_renewables_land_use_local_opposition_gross.pdf (accessed on 19 December 2021).
  13. Pasqualetti, M.; Stremke, S. Energy landscapes in a crowded world: A first typology of origins and expressions. Energy Res. Soc. Sci. 2018, 94–105. [Google Scholar] [CrossRef]
  14. Gerber, J.D.; Hess, G. From landscape resources to landscape commons: Focussing on the non-utility values of landscape. Int. J. Commons 2017, 11, 708–732. [Google Scholar] [CrossRef]
  15. Minelli, A.; Marchesini, I.; Taylor, F.E.; De Rosa, P.; Casagrande, L.; Cenci, M. An open source GIS tool to quantify the visual impact of wind turbines and photovoltaic panels. Env. Impact Assess. 2014, 49, 70–78. [Google Scholar] [CrossRef]
  16. McEvan, C. Spatial processes and politics of renewable energy transition: Land, zones and frictions in South Africa. Political Geogr. 2017, 56, 1–12. [Google Scholar]
  17. De Waal, R.M.; Stremke, S. Energy Transition: Missed Opportunities and Emerging Challenges for Landscape Planning and Designing. Sustainability 2014, 6, 4386–4415. [Google Scholar] [CrossRef]
  18. Szumilas-Kowalczyk, H.K.; Pevzner, N. Getting Beyond Visual Impact: Designing Renewable Energy as a Positive Landscape Addition. In Proceedings of the Visual Resource Stewardship Conference; Argonne National Laboratory: Lemont, IL, USA, 27–30 October 2019; Available online: https://digitalcommons.esf.edu/cgi/viewcontent.cgi?article=1010&context=vrconference (accessed on 19 December 2021).
  19. Bell, S. Adjusting to renewable energy in Crovded Europe. In The Renewable Energy Landscape, 1st ed.; Apostol, D., Palmer, J., Pasqualetti, M., Smardon, R., Sullivan, R., Eds.; Routledge: Abingdon, UK, 2017; pp. 78–107. [Google Scholar]
  20. Josimović, B.; Cvjetić, A.; Furundzić, D. Strategic Environmental Assessment and the precautionary principle in the spatial planning of wind farms—European experience in Serbia. Renew. Sustain. Energy Rev. 2021, 136, 110459. [Google Scholar] [CrossRef]
  21. European Council of Town Planners (ECTP-CEU) and Town and Country Planning Association (TCPA). Spatial Planning & Energy A Guide for Planners. 2013. Available online: https://www.codema.ie/images/uploads/docs/SPECIAL_Pan_Euro-Guide.pdf (accessed on 19 December 2021).
  22. Treu, M.C. Energy: Territory and new landscapes scenarios. City Territ Arch. 2018, 5, 14. [Google Scholar] [CrossRef]
  23. Dzikuć, M.; Gorączkowska, J.; Piwowar, A.; Dzikuć, M.; Smoleński, R.; Kułyk, P. The analysis of the innovative potential of the energy sector and low-carbon development: A case study for Poland. Energy Strategy Rev. 2021, 38, 100769. [Google Scholar] [CrossRef]
  24. Brauers, H.; Oei, P. The political economy of coal in Poland: Drivers and barriers for a shift away from fossil fuels. Energy Policy 2020, 144, 111621. [Google Scholar] [CrossRef]
  25. Mrozowska, S.; Wendt, J.A.; Tomaszewski, K. The Challenges of Poland’s Energy Transition. Energies 2021, 14, 8165. [Google Scholar] [CrossRef]
  26. Tomaszewski, K. The Polish road to the new European Green Deal—challenges and threats to the national energy policy. Polityka Energetyczna Energy Policy J. 2020, 23, 5–18. [Google Scholar] [CrossRef]
  27. Badora, K. Spatial system of landscape protection in Poland. Diss. Cult. Landsc. Comm. 2014, 23, 73–78. [Google Scholar]
  28. Badora, K. Propozycja wskaźnika oceny siły wizualnego oddziaływania farm wiatrowych. Diss. Cult. Landsc. Comm. 2016, 31, 57–70. [Google Scholar]
  29. Renewable Energy Sources Installations—State as of 31 December 2020. Available online: https://www.ure.gov.pl/pl/oze/potencjal-krajowy-oze/8108.html (accessed on 26 September 2021).
  30. Polish Mining Group Has Launched a Photovoltaic Installation at the Halemba Mine. Available online: https://www.pb.pl/polska-grupa-gornicza-uruchomila-instalacje-fotowoltaiczna-w-kopalni-halemba-972747 (accessed on 26 September 2021).
  31. Development Strategy of the Silesian Voivodship “Śląskie 2030”. Available online: https://bip.slaskie.pl/wojewodztwo/programy_plany_i_strategie_wojewodztwa/strategia_rozwoju/strategia-rozwoju-wojewodztwa.html?format=pdf&PageSpeed=noscript (accessed on 26 September 2021).
  32. Spatial Development Plan od the Silesian Voivodship 2020+. Available online: https://planzagospodarowania.slaskie.pl/content/1474878101 (accessed on 26 September 2021).
  33. Strategic Environmental Impact Assessment of Development Strategy of the Silesian Voivodship “Śląskie 2030”. Available online: https://www.slaskie.pl/content/projekt-strategii-rozwoju-wojewodztwa-slaskiego-slaskie-2030 (accessed on 7 January 2022).
  34. Dalglish, S.L. Document analysis in health policy research: The READ approach. Health Policy Plan. 2020, 35, 1424–1431. [Google Scholar] [CrossRef]
  35. Announcement by The Minister of the Economy of 22 January 2008 on the List of Mining Municipalities (Journal of Laws Item115). Available online: http://isap.sejm.gov.pl/isap.nsf/download.xsp/WMP20080100115/O/M20080115.pdf (accessed on 19 December 2021).
  36. Draft. Strategy of Development of the Silesian Voivodship for the Years 2000–2020. Available online: https://www.slaskie.pl/content/1248440195_2009-07-24 (accessed on 7 January 2022).
  37. Rural Development Strategy for the Silesian Province by the Year 2030. Available online: https://www.slaskie.pl/images/zalaczniki_html/strategia_row.pdf (accessed on 7 January 2022).
  38. List of All Objects Entered in the Register of Historic Monuments (as of 19 November 2021). Available online: http://wkz.katowice.pl/uslugi/rejestr-zabytkow/spis-obiektow-wpisanych-do-rejestru-zabytkow/rejestr-zabytkow-nieruchomych-a (accessed on 19 December 2021).
  39. Act on Protection of Nature from 16 April 2004 (Journal of Laws, Item 880). Available online: https://isap.sejm.gov.pl/isap.nsf/download.xsp/WDU20040920880/U/D20040880Lj.pdf (accessed on 19 December 2021).
  40. Forms of Nature Protection on Silesian Voivodship. Available online: http://www.katowice.wios.gov.pl/monitoring/raporty/2008/ochrprzyr.pdf (accessed on 19 December 2021).
  41. General Directorate for Environmental Protection. Central Register of Nature Protection Forms. Available online: http://crfop.gdos.gov.pl/CRFOP/search.jsf (accessed on 27 December 2021).
  42. Tomaszewski, K.; Sekściński, A. Odnawialne źródła energii w Polsce—Perspektywa lokalna i regionalna. Rynek Energii. 2020, 4, 10–19. [Google Scholar]
  43. Chiabrando, R.; Fabrizio, E.; Garnero, G. On the applicability of the visual impact assessment OAISPP tool to photovoltaic plants. Renew. Sustain. Energy Rev. 2011, 15, 845–850. [Google Scholar] [CrossRef]
  44. Wen, C.; Dallimer, M.; Carver, S.; Ziv, G. Valuing the visual impact of wind farms: A calculus method for synthesizing choice experiments studies. Sci. Total Environ. 2018, 637, 58–68. [Google Scholar] [CrossRef] [PubMed]
  45. Bishop, I.D.; Miller, D.R. Visual assessment of off-shore wind turbines: The influence of distance, contrast, movement and social variables. Renew Energy 2007, 32, 814–831. [Google Scholar] [CrossRef]
  46. Bishop, I.D. The implications for visual simulation and analysis of temporal variation in the visibility of wind turbines. Landsc. Urban Plan. 2019, 184, 59–68. [Google Scholar] [CrossRef]
  47. Gibbons, S. Gone with the wind: Valuing the visual impacts of wind turbines through house prices. J. Environ. Econ. Manag. 2015, 72, 177–196. [Google Scholar] [CrossRef]
  48. Manchado, C.; Gomez-Jauregui, V.; Lizcano, P.E.; Iglesias, A.; Galvez, A.; Otero, C. Wind farm repowering guided by visual impact criteria. Renew. Energy 2019, 135, 197–207. [Google Scholar] [CrossRef]
  49. Arnberger, A.; Eder, R.; Allex, B.; Preisel, H.; Ebenberger, M.; Husslein, M. Trade-offs between wind energy, recreational, and bark-beetle impacts on visual preferences of national park visitors. Land Use Policy 2018, 76, 166–177. [Google Scholar] [CrossRef]
  50. Szumilas-Kowalczyk, H.; Pevzner, N.; Giedych, R. Long-term visual impacts of aging infrastructure: Challenges of decommissioning wind power infrastructure and a survey of alternative strategies. Renew. Energy 2020, 150, 550–560. [Google Scholar] [CrossRef]
  51. Dower, B.A. Solar Panels in the Landscape. In Comprehensive Guide to Solar Energy Systems with Special Focus on Photovoltaic Systems; Letcher, T.M., Fthenakis, V.M., Eds.; Elsevier: London, UK, 2018; pp. 373–389. [Google Scholar]
  52. Guan, J. Westerly breezes and easterly gales: A comparison of legal, policy and planning regimes governing onshore wind in Germany and China. Energy Res. Soc. Sci. 2020, 67, 101506. [Google Scholar] [CrossRef]
  53. Polityka Energetyczna Polski do 2040r. Obwieszczenie Ministra Klimatu i Środowiska w Sprawie Polityki Energetycznej Państwa z dnia 2 Marca 2021r. Monitor Polski. Dziennik Urzędowy Rzeczypospolitej Polskiej (z dnia 10.03.2021r.). 2021, 264, pp. 1–568. Available online: http://isap.sejm.gov.pl/isap.nsf/download.xsp/WMP20210000264/O/M20210264.pdf (accessed on 5 January 2022).
  54. The Supreme Audit Office (NIK) Report: NIK o Barierach Rozwoju Odnawialnych Źródeł Energii. Available online: https://www.nik.gov.pl/aktualnosci/bariery-rozwoju-odnawialnych-zrodel-energii.html (accessed on 5 January 2022).
  55. Alves Dias, P.; Kanellopoulos, K.; Medarac, H.; Kapetaki, Z.; Miranda-Barbosa, E.; Shortall, R.; Czako, V.; Telsnig, T.; Vazquez-Hernandez, C.; Lacal Arántegui, R.; et al. EU Coal Regions: Opportunities and Challenges Ahead; EUR 29292 EN; Publications Office of the European Union: Luxembourg, 2018; ISBN 9789279898846. [Google Scholar] [CrossRef]
  56. Zalk, J.; Behrens, P. The spatial extent of renewable and non-renewable power generation: A review and meta-analysis of power densities and their application in the U.S. Energy Policy 2018, 123, 83–91. [Google Scholar] [CrossRef]
  57. Brown, L.R. The Great Transition: Shifiting from Fossil Fuiels to Solar and Wind Energy; Earth Policy Institute: New York, NY, USA, 2015; pp. 167–199. [Google Scholar]
  58. Pronińska, K.; Księżopolski, K. Baltic Offshore Wind Energy Development—Poland’s Public Policy Tools Analysis and the Geostrategic Implications. Energies 2021, 14, 4883. [Google Scholar] [CrossRef]
  59. European Landscape Convention. Council of Europe. Journal of Laws of 2000. No. 14. Item 98. Available online: http://isap.sejm.gov.pl/isap.nsf/download.xsp/WDU20060140098/O/D20060098.pdf (accessed on 27 December 2021).
Figure 1. Administrative structure (a) and population density (b) of Silesian Voivodship (source: own elaboration based on Statistical Yearbook of Silesian Viovodship 2020).
Figure 1. Administrative structure (a) and population density (b) of Silesian Voivodship (source: own elaboration based on Statistical Yearbook of Silesian Viovodship 2020).
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Figure 2. Areas of renewable energy development according to Regional Spatial Development Plan (a) vs. urban and rural areas in the voivodship (b) (source: own elaboration based on Regional Spatial Development Plan and Statistical Yearbook of Silesian Voivodship 2020).
Figure 2. Areas of renewable energy development according to Regional Spatial Development Plan (a) vs. urban and rural areas in the voivodship (b) (source: own elaboration based on Regional Spatial Development Plan and Statistical Yearbook of Silesian Voivodship 2020).
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Figure 3. Percentage of municipalities where further development of wind energy is allowed (a). Percentage of municipalities where further development of solar energy is allowed (b) (source: own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Figure 3. Percentage of municipalities where further development of wind energy is allowed (a). Percentage of municipalities where further development of solar energy is allowed (b) (source: own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
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Figure 4. Rural, urban, and urban–rural municipalities of Silesian Voivodship with provisions for renewable energy development. (source: own elaboration based on Central Statistical Office of Republic of Poland data base and Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Figure 4. Rural, urban, and urban–rural municipalities of Silesian Voivodship with provisions for renewable energy development. (source: own elaboration based on Central Statistical Office of Republic of Poland data base and Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
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Figure 5. Provisions for renewable energy development in Studies of Conditions and Directions of Spatial Development in spatial relation to: (a) mining municipalities of the Silesian Voivodship; (b) industrial municipalities of the Silesian Voivodship; (c) extensive agriculture municipalities of the Silesian Voivodship. (source: own elaboration based on Announcement by The Minister of the Economy of 22 January 2008 on the list of mining municipalities (Journal of Laws item115), Draft. Strategy Of Development of the Silesian Voivodship for the Years 2000–2020, Rural Development Strategy for the Silesian Province by the year 2030 and Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Figure 5. Provisions for renewable energy development in Studies of Conditions and Directions of Spatial Development in spatial relation to: (a) mining municipalities of the Silesian Voivodship; (b) industrial municipalities of the Silesian Voivodship; (c) extensive agriculture municipalities of the Silesian Voivodship. (source: own elaboration based on Announcement by The Minister of the Economy of 22 January 2008 on the list of mining municipalities (Journal of Laws item115), Draft. Strategy Of Development of the Silesian Voivodship for the Years 2000–2020, Rural Development Strategy for the Silesian Province by the year 2030 and Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
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Figure 6. Percentage of the municipalities that in their Studies of Conditions and Directions of Spatial Development have provisions for heritage and historic monuments protection from negative impact of renewable energy facilities (a). Percentage of the municipalities that in their Studies of Conditions and Directions of Spatial Development have provisions for valuable landscape protection (Landscape Parks, Protected Landscape Areas and Nature and Landscape Complexes) (b). (source: own elaboration based on Studies of Conditions and Development of Silesian Voivodship municipalities).
Figure 6. Percentage of the municipalities that in their Studies of Conditions and Directions of Spatial Development have provisions for heritage and historic monuments protection from negative impact of renewable energy facilities (a). Percentage of the municipalities that in their Studies of Conditions and Directions of Spatial Development have provisions for valuable landscape protection (Landscape Parks, Protected Landscape Areas and Nature and Landscape Complexes) (b). (source: own elaboration based on Studies of Conditions and Development of Silesian Voivodship municipalities).
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Figure 7. Municipalities with monuments related to mining-heritage of the Voivodship in relation to municipalities where renewable energy is planned in Studies of Conditions and Directions of Spatial Development and municipalities whose studies have provisions for valuable landscape protection from negative impact of renewable energy development. (source: own elaboration based on the list of all objects entered in the register of historic monuments (as of 19 November 2021) and Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Figure 7. Municipalities with monuments related to mining-heritage of the Voivodship in relation to municipalities where renewable energy is planned in Studies of Conditions and Directions of Spatial Development and municipalities whose studies have provisions for valuable landscape protection from negative impact of renewable energy development. (source: own elaboration based on the list of all objects entered in the register of historic monuments (as of 19 November 2021) and Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
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Figure 8. Municipalities with landscape parks, protected landscape areas, and natural and landscape complexes in relation to municipalities where renewable energy is planned in Studies of Conditions and Directions of Spatial Development and municipalities whose studies have provisions for valuable landscape protection from the negative impacts of renewable energy development. (source: own elaboration based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms and Studies of Conditions and Directions of Spatial Development of the Silesian Voivodship municipalities).
Figure 8. Municipalities with landscape parks, protected landscape areas, and natural and landscape complexes in relation to municipalities where renewable energy is planned in Studies of Conditions and Directions of Spatial Development and municipalities whose studies have provisions for valuable landscape protection from the negative impacts of renewable energy development. (source: own elaboration based on: General Directorate for Environmental Protection. Central Register of Nature Protection Forms and Studies of Conditions and Directions of Spatial Development of the Silesian Voivodship municipalities).
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Table 1. Plans for renewable energy development according to Strategy of the Silesian Voivodship Development “Śląskie 2030” and Spatial Development Plan od the Silesian Voivodship 2020+.
Table 1. Plans for renewable energy development according to Strategy of the Silesian Voivodship Development “Śląskie 2030” and Spatial Development Plan od the Silesian Voivodship 2020+.
Aspect of Spatial Development of Renewable Energy Characterized in the DocumentStrategy of the Silesian Voivodship Development “Śląskie 2030”Spatial Development Plan of the Silesian Voivodship 2020+
Plans for further renewable energy development++
Localization of renewable energy facilities in the voivodship-+
Allowed types of renewable energy facilities-+
Land use type for renewable energy development--
Table 2. Municipalities which allow wind energy development on specific land use type (own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Table 2. Municipalities which allow wind energy development on specific land use type (own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
 Municipality AdministrativeMunicipality
Specific Functional Type
LAUDEGURBAAgricultureHousingServicesTechnical
Infrastructure
RE DevelopmentServices/ProductionProduction/MiningGreen AreasOthers
Type 
Urban
Miasteczko Śląskie I10012414513022 x
Piekary ŚląskieM,I10012414571011 x
Total urban-rural: 000011000
Rural
WilkowiceE10012414402102x
JasienicaE10012414402053xxx xx
Wielowieś 10012414705083x
PawłowiceM,I10012415110043x x
Krzyżanowice 10012414911043x
Lipie 10012414606033x
KonopiskaE10012414604073 x
Gierałtowice 10012414705032 x
Mykanów 10012414604113x
PoczesnaE10012414604132 x
PrzyrówE10012414604143x
Kochanowice 10012414507053 x
PsaryM,E10012415001062x
ŁękawicaE10012414417072
Total rural: 911102211
Urban-Rural
Kłobuck 10012414606013 x
Woźniki 10012414507083xx
Czechowice-
Dziedzice
M,I10012414402042 x
ŻarkiE10012414609053x
ŁazyE10012415016053 x
Szczekociny 10012415016083 x
Total urban-rural: 220030000
M—mining; I—industrial; E—extensive agriculture, x—land use on which wind energy development is permitted.
Table 3. Municipalities which allow solar energy development on specific land use type (own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Table 3. Municipalities which allow solar energy development on specific land use type (own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
 Municipality AdministrativeMunicipality Specific Functional TypeLAUDEGURBAAgricultureHousingServicesTechnical
Infrastructure
RE DevelopmentServices/ProductionProduction/MiningGreen AreasOthers
Type 
Urban
BytomM,I10012414562011 x
CzęstochowaI10012414664011x xx xx
BlachowniaE10012414604012 x
JaworznoM,I10012415068011x x
Ruda ŚląskaM,I10012414872011 xx
RybnikM,I10012414973011 x xx x
Siemianowice ŚląskieM,I10012414874011 xx
SosnowiecM,I10012415075011 xx x
TychyM10012415177011 x
Miasteczko ŚląskieI10012414513022 x x
WojkowiceM,I10012415001032 x x
Sławków 10012415001082x xx
CzeladźM,I10012415001022 x
BędzinM,I10012415001011 xx x
ImielinM,I10012415114022 x
Cieszyn 10012414403012x x x
PyskowiceI10012414705022x x
Łaziska GórneM,I10012415108012 x x
OrzeszeM10012415108032x
MyszkówI10012414609012x x
RadzionkówM,I10012414513032 x
Total urban: 707658551
Rural
Lipie 10012414606033x
GierałtowiceM10012414705032x x xx
Dębowiec 10012414403063 x
GoleszówE10012414403073x x
PilchowiceM10012414705043 x
JasienicaE10012414402053 xx xx
PoczesnaE10012414604132x
PrzyrówE10012414604143 x
Kochanowice 10012414507053 x
Popów 10012414606033 x
JanówE10012414604033 xx
Kruszyna 10012414604083 x
Lelów 10012415114033x
Pawonków 10012414507073x x x
MierzęciceE10012415001053 x
BobrownikiM,E10012415001042 x x
PorąbkaE1001241440208 x x xx
KozyE10012414402072x x
BestwinaM10012414402022x
WyryM,E10012415108053 x x x
PorajE10012414609042
Goczałkowice-
Zdrój
M10012415110012x x
KobiórE10012415110023 xx x
PawłowiceM,I10012415110043x
Krzyżanowice 10012414911043 x
OżarowiceE10012414513063x x x
Tworóg 10012414513083xx
Zbrosławice 10012414513093 x
GodówM,I10012414915052 x
Kroczyce 10012415016043x
WłodowiceE10012415016093x
CzernichówE10012414417023 x
Total rural: 15357513510
Urban-Rural
Kłobuck 10012414606013 x
Woźniki 10012414507083xx
Czechowice-
Dziedzice
M,I10012414402042 xxx x
SiewierzE10012415001073 x
Wilamowice 10012414402092xxxx
SkoczówE10012414403102 x
SośnicowiceM10012414705063 x
Toszek 10012414705073x
Ogrodzieniec 10012415016062 xx x
Szczekociny 10012415016083 x
Total urban-rural: 343261000
M—mining; I—industrial; E—extensive agriculture, x—land use on which wind energy development is permitted.
Table 4. Municipalities of the Silesian Voivodship which have provisions on the protection of heritage and valuable landscapes in connection with the development of renewable energy (own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
Table 4. Municipalities of the Silesian Voivodship which have provisions on the protection of heritage and valuable landscapes in connection with the development of renewable energy (own elaboration based on Studies of Conditions and Directions of Spatial Development of Silesian Voivodship municipalities).
MunicipalityLAUDEGURBASpecific Provisions Due to Protection of:Distance From
Protected Areas
Additional Visual
Studies
Cultural HeritageValuable Landscapes
wswswsws
Mstów10012414604103x x
Miasteczko Ślaskie10012414513022xxxx
Porąbka10012414402082xx x
Buczkowice10012414402032xx x
Gierałtowice10012414705032xx
Pilchowice10012414705043xx x
Wyry10012415108052xx
Sosnowiec10012415075011xx
Lipie10012414606033 xx x
Wręczyca Wielka10012414606093 xx
Kochanowice10012414507053 xx x
Wilkowice10012414402102 x x
Szczyrk10012414402012 x
Czechowice-Dziedzice10012414402042 xx
Blachownia10012414604012 x
Bestwina10012414402022 x
Czernichów10012414417023 x x
Janów10012414604033 x x
Przyrów10012414604143 x xx
Łazy10012415016053 x x
Total 8710121520
w—wind farms; s—solar farms, , x—land use on which wind energy development is permitted.
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Szumilas-Kowalczyk, H.; Giedych, R. Analysis of Regulatory Possibilities and Obstacles to Expand Renewable Energy and Preserve Landscape Quality in the Silesian Voivodship. Resources 2022, 11, 23. https://0-doi-org.brum.beds.ac.uk/10.3390/resources11020023

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Szumilas-Kowalczyk H, Giedych R. Analysis of Regulatory Possibilities and Obstacles to Expand Renewable Energy and Preserve Landscape Quality in the Silesian Voivodship. Resources. 2022; 11(2):23. https://0-doi-org.brum.beds.ac.uk/10.3390/resources11020023

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Szumilas-Kowalczyk, Hanna, and Renata Giedych. 2022. "Analysis of Regulatory Possibilities and Obstacles to Expand Renewable Energy and Preserve Landscape Quality in the Silesian Voivodship" Resources 11, no. 2: 23. https://0-doi-org.brum.beds.ac.uk/10.3390/resources11020023

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