Next Article in Journal
Multidimensional Role of Agrovoltaics in Era of EU Green Deal: Current Status and Analysis of Water–Energy–Food–Land Dependencies
Previous Article in Journal
Geodiversity and Geoheritage to Promote Geotourism Using Augmented Reality and 3D Virtual Flights in the Arosa Estuary (NW Spain)
 
 
Font Type:
Arial Georgia Verdana
Font Size:
Aa Aa Aa
Line Spacing:
Column Width:
Background:
Article

Spatial Structure and Evolution of Territorial Function of Rural Areas at Cultural Heritage Sites from the Perspective of Social Space

1
College of Architecture and Urban Planning, Guizhou University, Guiyang 550025, China
2
Institute of Land and Urban-Rural Development, Zhejiang University of Finance and Economics, Hangzhou 310018, China
*
Author to whom correspondence should be addressed.
Land 2023, 12(5), 1067; https://doi.org/10.3390/land12051067
Submission received: 11 April 2023 / Revised: 9 May 2023 / Accepted: 12 May 2023 / Published: 14 May 2023

Abstract

:
Affected by multiple factors, differentiated capital investment and power games have led to the uneven regional development of rural areas at cultural heritage sites. Therefore, it is urgent to reflect on the spatial equity and justice of heritage sites from the perspective of social space. This study took the territorial function of rural areas (TFRA) as its research objective, utilizing the UNESCO World Cultural Heritage Site—the Qinshihuang Mausoleum—and the Qianling Mausoleum and the Qiaoling Mausoleum in Shaanxi Province as cases. Based on the theory of spatial production, an index system of TFRA was constructed using social and spatial dimensions. Factor analysis and social–spatial differentiation indices were employed to identify the spatial structure and differentiation of TFRA. The results show the following: (1) the case areas reflect eight principal components, and these components have obvious spatial differentiation characteristics; (2) the principal components related to heritage display and utilization have had a sustained impact over the past decade, which have driven the development of related industries, but the scores of principal components related to the restrictions of heritage protection have been decreased; (3) six functional type zones are designated, and the spatial pattern of TFRA presented a concentric circle with a core-periphery structure, which is influenced by heritage protection zoning; (4) high-value-added functional spaces form and expand along transportation lines; (5) the inherent demand for capital proliferation is the fundamental driving force for the differentiation and evolution of TFRA at heritage sites. Based on the results of the above analysis, strategies of coordinated development between society and space are proposed to address the issue of uneven regional development at heritage sites.

1. Introduction

At present, China has entered a new stage of strengthening the display and utilization of heritage, and promoting the integration of heritage utilization and regional development has become the theme of the current era [1]. As scarce resources with a high value, a wide area, and a strong influence, the protection and utilization of cultural heritage involve profound benefit distributions and spatial adjustments, resulting in the complex interweaving of spatial contradictions and social problems [2,3]. The transformation of space and landscape sat heritage sites causes social problems, such as the transformation of residents’ livelihood modes and the disintegration of rural society and culture. Therefore, the research focus of the academic community has gradually shifted from “heritage” to “heritage site,” which means that the research focus has been expanded to the humanistic and social environment organically connected to cultural heritage [4].
Heritage tourism has driven regional social and economic development. However, due to the influence of local history, transportation, natural conditions, the heritage protection system, and other factors, the coexistence of widespread poverty and poverty alleviation was observed to occur in a number of villages after the exhibition and utilization of cultural heritage [5], which has reduced the sustainability of livelihoods in living heritage sites [6]. These phenomena have exposed uneven development and insufficient development of cultural heritage sites on both macro and micro scales [7]. Heritage protection and utilization is not only a spatial issue but also a complex social issue [8]. In terms of spatial dimension, land use or land cover is commonly used to indicate the spatial evolution of heritage sites [9,10]. The spatial functional structure of heritage sites has obvious differentiation characteristics, and the spatial dynamics of the land use categories are governed on the one hand by natural phenomena and on the other by anthropogenic ones [11,12]. Under the influence of various types of capital investment and heritage protection management, the production methods of heritage communities have evolved and differentiated [13]. This feature is also reflected in the spatiotemporal evolution of housing and land prices before and after heritage protection and utilization [14,15]. In terms of the social dimension, the process of cultural heritage utilization is led by the government, and spatial resources are coordinated through planning, public investment, and policy formulation, which involve various measures, such as relocation, resettlement, and compensation [16,17]. Capital investment and power games result in the transformation and differentiation of the livelihood methods of heritage sites, which in turn leads to the wealth gap among local residents. The use of cultural heritage means transforming the traditional culture and way of life of local villages into “commodities” for sale to foreign tourists, and this commercialization process has exacerbated the alienation of local residents [18,19]. Existing studies have adopted game theory, network analyses, and other methods to analyze the impact of heritage protection and utilization on the participation structure of stakeholders [20,21]. Based on social resilience and tourism empowerment, some scholars have conducted studies on interest distribution and cultural compensation in the protection and utilization of cultural heritage [22]. However, these sociological paradigms cannot reveal the causes of uneven regional development from the spatial dimension. Building a comprehensive analytical framework that combines various socioeconomic indicators with quantitative spatial analysis is a research direction that needs to be deepened.
A superposition analysis of various social and economic attributes in space would help to analyze the connection and differentiation of the rural spatial functions in cultural heritage sites. It is important to reveal the territorial function of rural areas (TFRA) from the perspective of social space in order to accurately determine the rural development status of heritage sites. At the beginning of the 20th century, the Chicago School regarded space as the carrier of society and analyzed the urban regional functional structure from the perspective of the social–spatial structure. Burgess, Hoyt, Harris, et al. put forward models of social spatial structure with concentric circles, fans, and multi-core, respectively [23,24,25]. After summing up the principal components of social differentiation in American cities, Shevky et al. proposed that socioeconomic status, family and race, and other principal components are the basic elements of forming a social area [26,27]. However, this descriptive method could not explain the spatial distribution patterns of these sociological variables. The development of computer technology has made it possible to introduce factor analysis methods into the study of social areas. A follow-up study using a factor analysis showed that the spatial patterns of social areas formed by the above principal components are different. The superposition of various elements in space constitutes a whole urban social–spatial structure model [28,29]. For example, existing studies have revealed social–spatial structures from the perspective of globalization [30], residential spatial differentiation from the perspective of migrant residential isolation [31], and the characteristics of urban social–spatial structures from the perspective of behavioral geography [32]. Facing the complex social contradictions and conflicts in the process of space capitalization, binary opposition analyses of “society–space” are slightly weak. Therefore, Lefebvre spatialized materialist dialectics and put forward the theory of space production, believing that space is not only the product of a society but also a reflection of its social structure [33]. This theory extends the unbalanced investment of capital between industries or sectors to the spatial domain, describes the capital motivation of uneven geographical development from the perspective of the spatial division of labor and space–time compression, and reveals the law of spatial development from the perspective of the capital cycle [34]. Because it is not only constrained by the protection system but also driven by the utilization of tourism, the evolution of TFRA at cultural heritage sites has a uniqueness and a particularity.
This research integrates the comprehensive interaction between society and space, and it constructs an index system from the two dimensions of society and space to determine the principal components affecting the spatial structure and differentiation characteristics of TFRA at cultural heritage sites. Then, functional areas are divided by conducting a cluster analysis, and evolutionary characteristics are presented using multi-time cross-sectional data. This research reveals the causes and mechanisms of imbalanced development in heritage areas. It is of great significance to build a rural development model with the rational utilization of heritage, efficient space development, and social equity and justice.

2. Materials and Methods

2.1. Study Area

As the ancient capital area of the Zhou, Qin, Han, and Tang Dynasties of China, Shaanxi is densely distributed with large-scale cultural heritages, such as imperial tombs and ancient city sites. The cultural heritages in Shaanxi are abundant in quantity, high in level, full in variety, and densely distributed; this is rare in China, even worldwide, and these cultural heritages have an extremely high historical, cultural, and tourism value [35]. In this research, three cultural heritage sites, namely, the Qin Shihuang Mausoleum, Tang Qianling Mausoleum, and Tang Qiaoling Mausoleum, in Shaanxi are selected as study areas. These cultural heritages have been displayed and utilized for a long time, and the surrounding villages have been affected by this process over a long period of time. These sample areas of this study cover the protection zone, the controlled construction zone, and the unprotected zone, and there are 36 villages around the 3 cultural heritage sites (Figure 1).

2.2. Methods

The TFRA at cultural heritage sites is the result of the interaction between space, interest relationships, and policies [36]. The protection and utilization of cultural heritage require immense financial investment [37], and the optimal allocation of capital investment has led to differences in the spatial functions of each surrounding village. At the same time, the processes of space construction and tourism development also affect the local social structures [38]. Under the heritage protection system, heritage communities have used the positive externality of heritage utilization to develop and construct rural space, and space constructions have a feedback effect on the social interest network [39]. Therefore, we need a new, powerful theory to explain the spatial structure and evolution of TFRA.
The production of space is a significant theory used to interpret the relationship between society and space [33,40], and it proposes that social characteristics determine spatial functions [41]. The theory of spatial production puts forward the ternary dialectical framework of space, and it holds that there is a “third space” connecting social reproduction to spatial reproduction. The interaction between society and space is realized through the third space, which is filled with capital, power, and class [41]. The core idea of spatial production is to construct an interactive relationship between concrete and abstract concepts and between materials and society. Imbalanced regional development is the key theme of space production [42]. This research combines the ternary analysis framework of spatial production with the realistic characteristics of heritage sites, and it further incorporates the space of practice, the space of representation, and the representation of space in its theoretical system so as to reveal the spatial structure and evolution of TFRA at heritage sites (Figure 2).
The space of practice is the external material environment guiding individual and group behaviors, which belong to the space category. In this study, it refers to the construction of a spatial environment due to adjustments of production modes or a functional transformation, such as the transformation of land use, housing use, and transportation conditions, reflecting the “man–land relationship”. The space of representation is conceptualized as spatial imagination, which belongs to the social category. Specifically, it represents culture and ideology through policies, systems, and planning, reflecting interests and cooperation modes, such as employment and income status and land ownership. It is the embodiment of “human relationships.” The representation of spaces, or the “third space,” is a comprehensive dialectic of society and space, representing the interactive relationship between society and space [43]. It can be considered that space is the embodiment of production modes, and society is the embodiment of social production relationships.
This research constructed an index system based on two aspects, namely, “space of practice” and “space of representation,” which reflect the two dimensions of society and space, comprising two categories and nine subcategories (Table 1). A factor analysis and a social–spatial differentiation index were used to clarify the spatial structure of TFRA at the cultural heritage sites. Finally, a dialectical analysis of “social–space” through the “representation of space” was used to reveal the mechanism of the evolution and differentiation of TFRA.

2.2.1. Factor Analysis

The villages around the heritage sites were taken as the basic statistical units, and the indicators in Table 1 were taken as the variables. Then, a principal component analysis was carried out on this original data matrix, and each principal component was given a name according to the level of the indicator load. These principal components can be regarded as the dominant factors of TFRA at heritage sites. The principal component scoring matrix of each village was obtained by multiplying the principal component load matrix by the original data matrix, and the spatial distributions of the principal component scores of each village were plotted. Furthermore, villages with similar features were classified into the same functional area using cluster analysis.

2.2.2. Social–Spatial Differentiation Indices

The social–spatial differentiation indices reflect the degree of differentiation relative to the average distribution pattern. The method is as follows:
I d = 1 2 i = 1 n X i i = 1 n X i 1 N
where Id represents the differentiation indices, N represents the number of sample villages, and Xi represents the indicator value of village i.
Finally, the values of the differentiation indices in 2010 were taken as the horizontal axis, and the values of the differentiation indices in 2020 were taken as the vertical axis; each index’s value was reflected in the coordinate map, intuitively revealing the evolution characteristics of various indices from 2010 to 2020.

2.2.3. Spatial Statistical Analysis and Spatial Dialectical Analysis

The type and quantity of the villages in each functional area were analyzed based on protection zoning, spatial location, and traffic conditions. Through a questionnaire interview, a participatory evaluation, and other methods, micro-deconstruction, in addition to a macroscopic mathematical analysis, was enhanced to analyze the socioeconomic causes of TFRA at heritage sites.

2.3. Data Source and Processing

The data in this research were acquired from the statistical bulletins of village committees, a questionnaire, and semi-structured interviews. The statistical data include the area of village planting and land use, population and family structure, village enterprise statistics, village history data, and village planning. The questionnaire mainly involved questions about family age, labor force composition, social connection, family management, and livelihood models. The semi-structured interviews involved questions about the changes in the village development process, changes in population, and leading industries. The research group went to 36 villages around the case sites to conduct field investigations from 12 to 20 July and from 7 to 15 September 2021. Samples were taken according to the number of the last house, and questionnaires were issued to ensure that the sample number of each village was more than 20, and 805 valid questionnaires were collected. One or two main leaders of each village were selected for interviews. The above data formed the main basis of this research.

3. Result

3.1. Spatial Distribution and Evolution of Principal Components of TFRA

3.1.1. Spatial Characteristics of Principal Components of TFRA in 2020

(1)
Principal components of TFRA at heritage sites
The dimensions of the 49 indicators of these 36 case villages were reduced using the principal component analysis method. Finally, eight principal components were obtained, and the cumulative variance contribution rate of the eight principal components reached 74.94% after rotation, so they reflected most of the data information. The eight principal components were named as follows: (I) the land acquisition and resettlement factor (22.89%), (II) the tourism driving factor (21.00%), (III) the restriction factor of heritage protection (7.57%), (IV) the agricultural commercialization factor (5.90%), (V) the rural industrialization factor (5.07%), (VI) the natural resource development factor (4.74%), (VII) the ecological factor (4.32%), and (VIII) the scenic spot employment factor (3.45%) (Table 2).
(2)
Spatial distribution of principal components scores
The spatial distributions of the scores of the eight principal components are shown in Figure 3.
(I)
The land acquisition and resettlement factor. This principal component reflects the impact of land acquisition and resettlement on rural development. In the spatial dimension, the area of requisitioned land is large (0.736), and the per capita cultivated land area is limited (−0.478). The housing conditions of the villagers are at a relatively better level, and most households are two-story buildings (0.547) with a concrete structure (0.842). In the social dimension, the registered residence population (0.833) is larger than the migrant population. In order to obtain more resettlement compensation, household divisions are common, so the number of households is large (0.925), and the per-household population is small (−0.572). On the one hand, the villages with a high score for this principal component are mostly distributed around scenic spots and museums. On the other hand, affected by urbanization, they are mostly distributed on the edges of the heritage sites.
(II)
The tourism driving factor. This principal component reflects the driving effect of tourism utilization on heritage villages. In the spatial dimension, although the per capita cultivated land area is limited (−0.482), there are a large number of collective service enterprises (0.937) and individual tourism enterprises (0.901). The degree of space capitalization is high, most of the households are two-story buildings (0.513), and the number of village parking lots is also large (0.808). In the social dimension, the number of migrant populations in the villages is large (0.917). The villagers are mostly engaged in agritainment (0.924), commodity sales (0.808), handicraft production (0.945), stall sales (0.833), tour guide or driving (0.596), and other livelihood activities. In terms of spatial distribution, villages with a high score for this principal component are mostly located around scenic spots and museums.
(III)
The restriction factor of heritage protection. This principal component reflects the restrictions and impacts of cultural heritage protection on the way of life and production in the surrounding villages. In the spatial dimension, there are a number of limitations on agricultural production, and the planting area of grain crops (0.750) is larger than that of cash crops. The housing conditions of the residents are relatively low, and most of the households are bungalows (0.616) with brick structures (0.486). In the social dimension, the working-age population is large, but the proportion of poor households is high (0.758). Most residents go out to work for employment (0.582). In terms of spatial distribution, villages with a high score for this principal component are mostly located in protected areas and far away from scenic spots and major traffic lines.
(IV)
The agricultural commercialization factor. This principal component reflects the level of agricultural commercialization, which means the formation of an agricultural–industrial chain relying on agricultural production, agricultural product processing, packaging, and delivery. In the spatial dimension, there are a large number of agricultural product processing enterprises (0.713) and logistics enterprises (0.508) in the villages. In the social dimension, the proportion of the population engaged in the transportation and logistics industry is relatively high (0.485). Villages with a high score for this principal component are mostly distributed around the main traffic lines at heritage sites.
(V)
The rural industrialization factor. This principal component reflects the development level of rural industrialization. In the spatial dimension, there are a large number of collective industrial enterprises (0.931) and individual manufacturing industries (0.675). In the social dimension, the proportion of villagers engaged in the logistics industry is high (0.648). Villages with a high score for this principal component are mostly located at the edges of heritage sites and close to the traffic trunk roads in these areas.
(VI)
The natural resource development factor. This principal component reflects the dependence of rural industries on natural resources. Rural enterprises cover a large area (0.715), and most of them are mining enterprises (0.867). Villages with a high score for this principal component are distributed around mountains in which the tombs of emperors are placed.
(VII)
The ecological factor. This principal component reflects the ecological conditions and afforestation status. There are large areas of forest land (0.876) and wasteland (0.635). Villages with a high score for this principal component are mainly distributed in areas with obvious topographic relief, and they have superior ecological resource conditions or large-scale afforestation due to cultural heritage protection.
(VIII)
The scenic spot employment factor. This principal component reflects the large number of villagers employed in scenic spots, including security staff, support staff, builders, and gardeners. Villages with a high score for this principal component are located around museums, heritage parks, and other scenic spots, but they are not close to their entrances or exits.

3.1.2. Evolution Characteristics of Principal Components of TFRA from 2010 to 2020

(1)
Evolution characteristics of principal components
This research identified eight principal components of TFRA in 2010, with a cumulative variance contribution rate of 73.5%. The eight principal components were named as follows: (I) The tourism driving factor (21.0%): This principal component indicates that there are large numbers of migrant populations (0.941), commodity sellers (0.803), tour guides (0.708), agritainment households (0.976), individual tourism enterprises (0.881), and collective service enterprises (0.815) in the villages. The majority of village buildings are two-story buildings (0.518). (II) The land acquisition factor (20.7%): This principal component indicates that the area of requisitioned land (0.582) and the homestead area (0.611) are large, but the per household population is small (−0.500), and the population employed in the villages (0.803) is large. (III) The restriction factor of heritage protection (7.7%): This principal component indicates that the area of requisitioned land (0.551) is large; therefore, the per capita cultivated land area (−0.655) is small. The planting area of grain crops in the villages is small (−0.816), and the main residential buildings are bungalows (0.576). (IV) The rural industrialization factor (7.2%): This principal component indicates that there is a large number of collective industrial enterprises (0.657), agricultural product processing enterprises (0.790), and packaging logistics industries (0.759). The proportion of villagers engaged in the logistics industry (0.784) is high. (V) The agricultural and forestry development factor (5.4%): This principal component indicates that there are a large number of agricultural and forestry enterprises in the villages (0.648) and large areas of land occupied by enterprises (0.770) and leased land (0.77). (VI) The economic crop production factor (5.3%): This principal component indicates that there are large areas of land used for the planting of cash crops (0.674) and leased land (0.639). (Ⅶ) The population outflow factor (4.4%): This principal component indicates that the outgoing employed population is large (0.677). (VIII) The ecological factor (4.3%): This principal component indicates that there is a large area of forest land (0.749). By comparing the principal components and their spatial distributions in 2010 and 2020, the following evolution features are discovered:
Firstly, heritage display and utilization have a persistent impact on TFRA. The tourism driving factor, the land acquisition factor, and the ecological factor have been principal components since 2010, with two of them having the highest variance contribution rate. This phenomenon is mainly due to the development of tourism, the construction of scenic spots, and the environmental renovation of heritage sites.
Secondly, heritage display and utilization improved relevant industrial chains. Over the past decade, the economic crop production factor and the agricultural and forestry development factor gradually evolved into the agricultural commercialization factor. The economic crop production factor and the agricultural and forestry development factor reflect economic crop cultivation, agricultural and forestry enterprises, and the local labor force in 2010. After years of evolution, the agricultural commercialization factor now includes agricultural and forestry enterprises, agricultural product processing, packaging and logistics enterprises, and sales operators. This process reflects the cultural value spillover effect of tourism development on agricultural production activities, thereby promoting the connection between agriculture and tourism to form a complete industrial chain.
Finally, the restrictive effect of heritage protection on TFRA gradually weakened. The restriction factor of heritage protection existed in both 2010 and 2020, but its variance contribution rate decreased. On the one hand, the population outflow factor caused by limited industrial and agricultural production disappeared. The scenic spot employment factor appeared in 2020. On the other hand, the tourism driving factor spread from the scenic area to the surrounding areas in terms of spatial distribution, whereas the spatial distribution of the rural industrialization factor decreased in 2020.
(2)
Evolution of social–spatial differentiation indices
The differentiation indices can reflect the spatial differentiation of various indicators relative to the absolute equilibrium distribution. The differentiation indices of the indicators related to tourism and agricultural industrialization decreased from 2010 to 2020 (Figure 4). On the one hand, the spatial differentiation indices of the indicators related to tourism development, such as the number of tour guides, the number of stall holders, the number of households, the number of handicraft production households, the proportion of the population employed in scenic spots, and the number of migrant populations, gradually decreased; this phenomenon indicates that heritage display and utilization drove the development of the tourism industry in a large region. On the other hand, the spatial differentiation indices related to the agricultural industry indicators, such as the numbers of packaging logistics enterprises, agricultural and forestry enterprises, and agricultural product processing enterprises, gradually decreased, which means that heritage tourism drove the expansion of modern agriculture and sightseeing agriculture in a large region.
The spatial differentiation indices of some indicators increased, including the proportion of poor rural households, the number of mining enterprises, and the area of food crops (Figure 4). The increase in the differentiation indices of the proportion of poor households indicates that the gap between the rich and the poor increased from 2010 to 2020. The intensification of the differentiation indices related to industrial production is mainly affected by the government’s closure of mining enterprises at heritage sites, causing polarization effects in industrial production. The increase in the differentiation indices related to food crop cultivation is mainly affected by the development of tourism. Since 2010, large numbers of villages have planted cash crops and promoted agricultural commercialization, which has led to the uneven spatial planting of food crops.
Some differentiation indices decreased at the Qin Shihuang Mausoleum heritage site (Figure 4a)and the Tang Qianling Mausoleum heritage site(Figure 4b) but increased at the Tang Qiaoling Mausoleum heritage site(Figure 4c), such as the proportion of the population engaged in tourism or catering businesses, manufacturing enterprises, and agricultural product processing enterprises. Mainly, this is because the display and utilization of Qin Shihuang Mausoleum and Tang Qianling Mausoleum started early, and tourism-related industries developed maturely with a balanced spatial distribution. The display and utilization of the Tang Qiaoling Mausoleum began only over a decade ago, so only a small number of villages have realized the transformation to tourism development. Development resources are concentrated in a small number of villages, so the differentiation is obvious, resulting in a polarization stage of development.

3.2. Spatial Structure and Evolution of TFRA at Cultural Heritage Sites

3.2.1. Spatial Structure Characteristics of TFRA in 2020

A matrix of 36 × 8 was established based on the scores of the eight principal components of the 36 villages in 2020. The systematic clustering method was utilized to classify these sample villages, and six types of villages were identified by repeatedly comparing the dendrograms. The correlation coefficients (γij) between the eight principal components of each type of village were calculated, so the correlation coefficient matrix was obtained. The mean value of the correlation coefficient represented the main functional characteristics of each type of village. The calculation formula for the mean value of the correlation coefficient is as follows:
R ¯ = i γ i j K 1
where ?R is the mean value of the correlation coefficient, K is the number of principal components (the number in this study was 8), and γij is the correlation coefficient between the principal components. The two principal components with the highest correlations with the others were selected to define the functional characteristics of each type of rural area. The classification results are shown in Table 3, and the spatial distribution of the classification is shown in Figure 5.
The first category is defined as tourism service areas. This is because the two principal components with the highest average correlation coefficients with the other principal components of the villages are (I) the land acquisition and resettlement factor (0.143) and (II) the tourism driving factor (0.174). The villages of this function type are mainly distributed near the entrances of museums and scenic spots. On the one hand, these villages are located in the protection zone, with a high frequency and a large area of land acquisition, which greatly interferes with traditional agricultural production, forcing the development and transformation of traditional agricultural livelihood models. On the other hand, because these villages are close to the entrances of scenic spots, they have unique advantages in developing rural tourism and souvenir production and sales. Therefore, this has led to the transformation of residents’ production and lifestyles towards tourism services.
The second category is defined as agricultural tourism areas. This is because the two principal components with the highest average correlation coefficients with the other components of the villages are (II) the tourism driving factor (0.582) and (IV) the agricultural commercialization factor (0.523). The villages of this function type are distributed around scenic areas, relying on heritage tourism to realize rural agricultural development. Most rural enterprises are engaged in sightseeing agriculture, modern agriculture, and the packaging and processing of agricultural products.
The third category is defined as the labor supply area of scenic spots. This is because the two principal components with the highest average correlation coefficients are (III) the restriction factor of heritage protection (0.343) and (IV) the scenic spot employment factor (0.235). These villages are located in the protection zone and are restricted by heritage protection without any industries. A large number of surplus laborers in the villages are employed due to the construction and afforestation of scenic spots.
The fourth category is defined as labor outflow areas. This is because the two principal components with the highest average correlation coefficients are (III) the restriction factor of heritage protection (0.209) and (I) the land acquisition and resettlement factor (0.181). The villages of this function type are far away from scenic areas and within the protection zone, which is restricted by heritage protection and cannot benefit from any positive externalities of tourism development. The labor force works all year round. This type of area has the largest number of villages, and the poverty problem of heritage sites mainly occurs in this area.
The fifth category is defined as relocation and resettlement areas. This is because the two principal components with the highest average correlation coefficients with the other principal components of the villages are (I) the land acquisition and resettlement factor (0.424) and (III) the restriction factor of heritage protection (0.411). Villages of this type are mostly located at the edges of the protection zone. Although the living conditions were improved after resettlement, the proportion of residents who go out to work is relatively high.
The sixth category is defined as rural industrialized areas. This is because the two principal components with the highest average correlation coefficients with the other principal components of the villages are (III) the restriction factor of heritage protection (0.181) and (VI) the natural resource development factor (0.172). Most of these villages are located in the controlled construction zone and the environmental coordination zone outside the protected area.

3.2.2. Evolution of TFRA from 2010 to 2020

In this study, the same method was used to divide the functional areas in 2010. When comparing the models of the functional structure in 2010 and 2020 (Figure 6), it was found that the main function types of TFRA at the heritage sites barely changed, and the characteristics of the evolution over the past decade are reflected in the following aspects:
(1)
The scales of tourism service areas and labor supply areas of scenic spots have gradually expanded since 2010 because of the development of heritage tourism. These two types of functional areas were distributed around scenic areas or museums in 2010, and since then, they have gradually formed an enclosure around scenic areas.
(2)
Cash crop production areas have evolved into agricultural tourism areas. This transformation is related to both the development of tourism and the construction of tourist roads. The leading industries in these villages gradually developed from cash crop cultivation to agricultural sightseeing, planting, logistics, packaging, and processing, which form a complete industrial chain.
(3)
Grain production areas have evolved into labor supply areas of scenic spots and labor outflow areas. The livelihood mode of residents has shifted from grain cultivation to employment in scenic areas or in the city. On the one hand, due to the “scissors gap” in the income between grain production and migrant workers, coupled with the restrictions on heritage protection, agricultural production is low, and residents choose to work outside in pursuit of a higher income. On the other hand, China’s large-scale urbanization and construction of scenic spots demand a large amount of rural surplus labor.
(4)
The scale of rural industrialized areas has decreased since 2010. Under the influence of the government’s heritage protection and environmental protection policies, the cement factories, lime factories, and brick factories in and around the heritage sites have been closed down, and the development of industrial production has stagnated.
(5)
Relocation and resettlement areas have been embedded in the heritage sites. The construction activities of scenic spots involved large-scale land acquisition, relocation, and resettlement, and a large number of resettlement houses for villagers have also been constructed during this period. This process is the impact of government power intervention on TFRA.

4. Discussion

4.1. Spatial Structure of TFRA at Heritage Sites

This study combines the GIS spatial analysis method with socioeconomic indicators and classifies spatial functions after defining the main attributes of each village through factor ecological analysis, which is a supplement to the land cover recognition spatial function. The results indicate that the spatial structure of TFRA at heritage sites shows the spatial feature of a concentric circle with three layers (Figure 7). ① The inner layer is not only the area within the protection zone but also the area where scenic spots or museums are located. The spatial functions of this layer include tourism service areas and agricultural tourism areas. The relevant analysis of land use indicates that the impact of artificial construction is relatively strong within 1 km of the buffer zone of the heritage site, and the complexity and diversity of the land cover are relatively high [11]. After combining socioeconomic indicators, it has been found that these spatial constructions have led to the development of rural tourism and agricultural tourism and have driven the development of rural service industries and the sale of local agricultural products. ② The middle circle layer is the area of the controlled construction zone, and this is where the villages with the function of agricultural production and surplus labor supply areas are distributed. The governments lock in land uses and preferences of heritage sites or simply change their priorities to protection or tourism utilization of cultural heritage [44]. The land use or land cover analysis shows that the most extensive land cover is occupied by agricultural areas within a buffer size of 10 km [45]. The industrial development of this region is restricted, and the region cannot benefit from the spillover effect of heritage tourism. The residents proximal to the protected areas have lost the opportunity cost of their own development for heritage protection [46]. The results show that the middle layer of the heritage site is an area with a high incidence of poverty, and residents choose to work outside or find employment in scenic areas. ③ There are many villages in the outer layer that reflect the characteristics of rural industrialization. This area is less affected by the restrictions of protection zoning, and some villages have accomplished the development of rural industrialization, relying on the advantages of traffic location.
The hierarchical spatial feature of TFRA is the result of heritage protection zoning. The protection zoning takes the relic noumenon as the center and delimits the protection zone, the controlled construction zone, and the environmental coordination zone from the inside to the outside. Different levels of control requirements are implemented in different regions in order to coordinate the contradiction between heritage protection and regional development. The functional structure forms a concentric circle pattern of “service industry–surplus labor supply (agriculture)–rural industry” from the inside to the outside because of the circle control of protection zoning.

4.2. Traffic Routes and Value Spillover Effect at Heritage Sites

Museums, scenic spots, and heritage parks, as cultural transmission carriers, convert the cultural value into social and economic value through tourism utilization, and the value spillover has the characteristic of distance attenuation. The villages close to scenic spots with an average distance of 1.4 km are the most affected by the positive externalities of tourism development, and they have developed catering, accommodation, agritainment, and other related tourism industries. The villages with an average distance of 2.4 km from scenic spots have the characteristic of agricultural commercialization, and they are close to the main roads of heritage areas. These villages have realized the accumulation of original capital, relying on stalls selling local agricultural specialties. Since then, they have attracted a large number of migrants and gradually formed a complete industrial chain, including the production, packaging, and sales of agricultural products. Villages with an average distance of 4.2 km from scenic spots are the least affected by the positive externalities of tourism development, but they have developed industries and extractive industries which have little relevance to heritage tourism utilization.
The construction of roads in heritage sites is a controversial issue. In studies on cultural heritage management and monitoring, it is commonly believed that the local road network was an anthropogenic hazard taken into account [12]. The construction of roads, which leads to the advantages and disadvantages of economic development on the protection of cultural relics, brings convenience and also derives many contradictions and destruction [47]. This study found that high-value-added function areas are mostly distributed along the main roads of the heritage sites. A total of 85% of the villages in tourism service areas and 80% of the villages in agricultural tourism areas are located around the main traffic lines. The value spillover generated by the utilization of heritage radiates outward from the traffic line. Compared with other functional areas in the same layer, these spatial functions have a strong external connection and tourism dependence.

4.3. The Driving Role of Capital Proliferation in the Evolution of TFRA

The evolution of TFRA can be seen to be the result of the flow and transformation of production factors, such as capital and labor. The development of this special area is influenced by heritage protection and tourism utilization, capital investment involves different stakeholder groups and power games [48], so the flow and transformation of capital and labor have their own particularities. Land acquisition for heritage site development and heritage protection policies have an impact on the use of space and impose restrictions on agricultural production, and this has separated farmers from cultivated land and generated a large amount of surplus labor. The capital will inevitably digest surplus labor and seek labor-intensive production methods. The construction of museums and the production of tourist artifacts absorb surplus labor from villages around scenic spots, achieving the accumulation of the original capital in the villages. Tourism development has also increased the added cultural value of cash crops, such as local pomegranates, persimmons, and grapes, causing adjustments in agricultural production and sales patterns in some villages, reflecting the characteristics of agricultural commercialization. According to David Harvey’s capital cycle theory, the capital logic of the evolution process is summarized as follows (Figure 8):
(1)
Capital investment in the production of consumer goods. The productive input of capital into consumer goods, such as agricultural production, industrial production, tourism souvenir production, and heritage protection policies, and the optimal allocation choice of capital led to changes in the production modes of villages and their spatial differentiation. Since then, due to homogeneous competition and the overproduction of consumer goods, capital has begun to be invested in space construction to resolve the crisis of overproduction and to provide convenience for production and consumption.
(2)
Capital investment in spatial construction. In this round of the capital cycle, some villages built roads, warehouses, and factories to attract investment from fruit wholesalers, agricultural processing plants, and packaging plants in order to absorb excess agricultural production, thereby forming an agricultural–industrial chain. Some villages carried out rural residential renovation, landscaping, parking lot construction, stall construction, and market construction to facilitate catering operations and souvenir sales. The essence of this process is to maximize benefits and the investment of capital into space construction, and it embodies the characteristics of spatial capitalization.
(3)
Capital investment in social and cultural fields. The capital was invested in cultural services, productive services, and living services to resolve the crisis caused by spatial overproduction. For the purpose of cultural and environmental protection, some industrial enterprises stopped production, resulting in the contraction of rural industrialized areas. The development of the tourism industry requires higher standards for cultural activities and tourism experiences. The management rights of scenic spots were transferred from private to state-owned, and the standardized operation and construction of scenic spots required more labor, resulting in an increase in the scope of labor supply areas.

4.4. Coordination of Social and Spatial Development at Heritage Sites

According to the analysis results, there are differences in the development of each village surrounding the heritage sites, which also contribute to the gap between the rich and the poor. Determining how to integrate regional resources and achieve interaction among functional areas is the key to achieving balanced spatial development.
Firstly, the implementation of differentiated development orientation in each village is a prerequisite for the sustainable development of heritage sites. The management and control of heritage protection vary from village to village, and the resources and location conditions for the development of each village are also different. Therefore, differentiated development strategies of villages should be formulated according to local conditions. In previous conventional planning, all villages were positioned to develop rural tourism, which inevitably led to homogeneous competition.
Secondly, the smooth flow of cultural value spillover channels must be ensured. Transportation facilities are important intermediaries for the spillover and dissemination of heritage values, and they are also significant factors in promoting the transformation of rural development at heritage sites. The construction of tourist roads drove the development of tourism services and agricultural tourism industries in villages along the traffic line, and it also promoted the commercialization of agriculture. Some villages along the roads also achieved rural industrialization. The construction of traffic systems is of great significance for the value spillover and dissemination of cultural resources and the realization of industrial linkage.
Finally, implement a multi-level, multi-node, differentiated resource development and utilization model. Currently, the development of heritage sites excessively relies on the spillover effect of the core of site displays and utilization (scenic spots, museums, etc.), resulting in the low-end homogenization of rural industries. Moreover, the forms of participation are mostly low-tech jobs, such as agritainment, tour guides, tourist drivers, handicraft manufacturing, and sales, which also lead to homogeneous competition and overproduction issues. In the future, it is necessary to upgrade from “relying on the core” to “creating the core” to achieve a multi-level and multi-node spatial development model, promote the spatial connection and radiation of various functional areas, ensure that the spillover value of heritage resources can be fully transformed, and achieve the sustainable development of regional rural economy and society.

5. Conclusions

An analysis of the structure and evolution characteristics of TFRA is an important basis for the implementation of the Rural Revitalization Strategy in China. Affected by the dual factors of cultural heritage protection and tourism utilization, the interplay between heritage protection departments, urban construction departments, tourism enterprises, and local communities has resulted in the particularity and complexity of TFRA at heritage sites. Estimating the TFRA at heritage sites from the perspective of social space is of great significance for adjusting the spatial layout, optimizing the utilization of heritage resources and spatial resources, and solving the problem of the uneven spatial development of heritage sites. According to the research conclusions, there are objective social differences at heritage sites. That is, the surrounding villages have different abilities to obtain resources, which has caused an obvious gap between the rich and the poor.
(1)
Through a comprehensive analysis of society and space, it was found that the rural areas of heritage sites have obvious spatial differentiation characteristics and present six major functional areas. Due to the development of the tourism industry and the expansion of scenic spots, the scales of tourism service areas and labor supply areas increased. The cash crop production areas evolved into agricultural tourism areas. This transformation is related to both the development of tourism and the construction of tourist roads. The scale of rural industrialized areas was reduced because of heritage protection policies.
(2)
The social–spatial differentiation indices related to tourism and agricultural industrialization decreased over the past decade. This phenomenon indicates that heritage display and utilization drove the development of the tourism industry in a large region, so the regional balance of tourism development improved. The spatial differentiation indices concerning poor rural households, areas of food crops, etc., increased, which indicates that the gap between the rich and the poor is gradually increasing.
(3)
The TFRA at heritage sites presents the spatial characteristic of a concentric circle because of the circular gradient control of heritage protection zoning. The protection zone, the controlled construction zone, and the environmental coordination zone, which are designated from the inside out, gradually slowed down the control intensity of industrial and agricultural production activities. Thus, the functional structure formed a concentric circle pattern of “service industry–surplus labor supply (agriculture)–rural industry” from the inside to the outside.
(4)
The high-value-added functional space of heritage sites is distributed along the transportation line, forming a concentric circle fan-shaped regional functional pattern. The value spillovers generated by tourism use radiate outward through transportation lines, thereby driving the development and transformation of villages along the line. The tourism service area, the tourism agriculture area, and the villages in rural industrialized areas are mostly located around the tourist roads connected to scenic spots.
(5)
The inherent demand for capital proliferation is the fundamental driving force for the differentiation and evolution of TFRA at heritage sites. The selection of the optimal investment allocation of capital under the heritage protection system led to regional functional differentiation. The evolution of TFRA can be seen as being the result of the flow and transformation of production factors, such as capital and labor. The phased investment of capital into consumer goods production, spatial construction, and cultural service industries led to the evolution of regional functions.

Author Contributions

Conceptualization, C.W. and Y.Y.; methodology, H.Z. and M.Y.; writing—original draft preparation, C.W. and M.Y. All authors have read and agreed to the published version of the manuscript.

Funding

This research was supported by the National Natural Science Foundation of China (No. 52168011), Guizhou Province Science and Technology Projects (ZK[2023]061), and the Doctoral Scientific Fund Project of Guizhou University ([2020]12).

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.

References

  1. People's Daily (Overseas Edition). Available online: http://paper.people.com.cn/rmrbhwb/html/2019-06/06/content_1928991.htm (accessed on 6 June 2019).
  2. Alazaizeha, M.M.; Hallo, J.C.; Backman, S.J.; Norman, W.C.; Vogel, M.A. Value orientations and heritage tourism management at Petra archaeological park, Jordan. Tour. Manag. 2016, 57, 149–158. [Google Scholar] [CrossRef]
  3. Tang, C.; Zheng, Q.; Ng, P. A study on the coordinative green development of tourist experience and commercialization of tourism at cultural heritage sites. Sustainability 2019, 11, 4732. [Google Scholar] [CrossRef]
  4. Vecco, M. A definition of cultural heritage: From the tangible to the intangible. J. Cult. Herit. 2010, 11, 321–324. [Google Scholar] [CrossRef]
  5. Wu, C.; Zhu, H.X.; Peng, B.W. Rural social space production mechanism in a Great Relics Area from the perspective of capital circulation theory of Harvey: A case of Qin Shihuang Mausoleum. Prog. Geogr. 2020, 39, 751–765. (In Chinese) [Google Scholar] [CrossRef]
  6. Liu, Y.L.; Wang, Y.; Dupre, K.; McIlwaine, C. The impacts of world cultural heritage site designation and heritage tourism on community livelihoods: A Chinese case study. Tour. Manag. Perspect. 2022, 43, 100994. [Google Scholar] [CrossRef]
  7. Hosseini, K.; Stefaniec, A.; Hosseini, S. World Heritage Sites in developing countries: Assessing impacts and handling complexities toward sustainable tourism. J. Destin. Mark. Manag. 2022, 20, 100616. [Google Scholar] [CrossRef]
  8. Fei, G.Y.; Xiong, K.N.; Fei, G.H.; Zhang, H.P.; Zhang, S.R. The conservation and tourism development of World Natural Heritage sites: The current situation and future prospects of research. J. Nat. Conserv. 2023, 72, 126347. [Google Scholar] [CrossRef]
  9. Banerjee, R.; Srivastava, P.K. Reconstruction of contested landscape: Detecting land cover transformation hosting cultural heritage sites from Central India using remote sensing. Land Use Policy 2013, 34, 193–203. [Google Scholar] [CrossRef]
  10. Saha, A.; Pal, S.C.; Santosh, M.; Janizadeh, S.; Chowdhuri, I.; Norouzi, A.; Roy, P.; Chakrabortty, R. Modelling multi-hazard threats to cultural heritage sites and environmental sustainability: The present and future scenarios. J. Clean. Prod. 2021, 320, 128713. [Google Scholar] [CrossRef]
  11. Nicu, I.C.; Stoleriu, C.C. Land use changes and dynamics over the last century around churches of Moldavia, Bukovina, Northern Romania–Challenges and future perspectives. Habitat Int. 2019, 88, 101979. [Google Scholar] [CrossRef]
  12. Agapiou, A.; Lysandrou, V.; Alexakis, D.D.; Themistocleous, K.; Cuca, B.; Argyriou, A. Cultural heritage management and monitoring using remote sensing data and GIS: The case study of Paphos area, Cyprus. Comput. Environ. Urban Syst. 2015, 54, 230–239. [Google Scholar] [CrossRef]
  13. Zuo, D.; Li, C.; Lin, M.; Chen, P.; Kong, X. Tourism, residents agent practice and traditional residential landscapes at a cultural heritage site: The case study of Hongcun village, China. Sustainability 2022, 14, 4423. [Google Scholar] [CrossRef]
  14. Kovacs, J.F.; Galvin, K.J.; Shipley, R. Assessing the success of Heritage Conservation Districts: Insights from Ontario, Canada. Cities 2015, 45, 123–132. [Google Scholar] [CrossRef]
  15. Bade, D.; Castillo, J.G.; Fernandez, M.A.; Aguilar, J. The price premium of heritage in the housing market: Evidence from Auckland, New Zealand. Land Use Policy 2020, 99, 105042. [Google Scholar] [CrossRef]
  16. Li, J.; Krishnamurthy, K.; Roders, A.P.; Wesemael, P.V. State-of-the-practice: Assessing community participation within Chinese cultural World Heritage properties. Habitat Int. 2020, 96, 102107. [Google Scholar] [CrossRef]
  17. Wang, X.; Aoki, N. Paradox between neoliberal urban redevelopment, heritage conservation, and community needs: Case study of a historic neighbourhood in Tianjin, China. Cities 2018, 85, 156–169. [Google Scholar] [CrossRef]
  18. Stephen, N.; Mensah, J.V. Urban management and heritage tourism for sustainable development: The case of Elmina Cultural Heritage and Management Programme in Ghana. Manag. Environ. Qual. Int. J. 2006, 17, 299–312. [Google Scholar]
  19. Jamal, S.; Ghosh, A.; Hazarika, R.; Sen, A. Livelihood, conflict and tourism: An assessment of livelihood impact in Sundarbans, West Bengal. Int. J. Geoheritage Park. 2022, 10, 383–399. [Google Scholar] [CrossRef]
  20. Mastura, J.; Shuhaida, M.; Mostafa, R. Perception of young local residents toward sustainable conservation programmes: A case study of the Lenggong World Cultural Heritage Site. Tour. Manag. 2015, 48, 154–163. [Google Scholar]
  21. Wang, L.; Xiao, S. Tourism space reconstruction of a world heritage site based on actor network theory: A case study of the Shibing Karst of the South China Karst World Heritage Site. Int. J. Geoheritage Park. 2020, 8, 140–151. [Google Scholar] [CrossRef]
  22. Ghahramani, L.; McArdle, K.; Fatoric, S. Minority community resilience and Cultural Heritage Preservation: A case study of the Gullah Geechee community. Sustainability 2020, 12, 2266. [Google Scholar] [CrossRef]
  23. Burgess, E. The growth of the city: An introduction to a research project. In The City; Park, R.E., Burgers, E.W., McKenzie, R.D., Eds.; University of Chicago Press: Chicago, IL, USA, 2020. [Google Scholar]
  24. Hoyt, H. The Structure and Growth of Residential Neighborhoods in American Cities; US Government Printing Office: Washington, WA, USA, 1939. [Google Scholar]
  25. Harris, C.D.; Ullman, E.L. The nature of cities. Ann. Am. Acad. Political Soc. Sci. 1945, 242, 7–17. [Google Scholar] [CrossRef]
  26. Shevky, E.; Williams, M. The Social Areas of Los Angeles; University of California Press: Los Angeles, CA, USA, 1949. [Google Scholar]
  27. Shevky, E.; Bell, W. Social Area Analysis; Stanford University Press: Stanford, USA, CA, 1955. [Google Scholar]
  28. Lo, C.P. Decentralization and polarization: Contradictory trends in Hong Kong's postcolonial social landscape. Urban Geogr. 2005, 26, 36–60. [Google Scholar] [CrossRef]
  29. Massey, D. Reflections on the dimensions of segregation. Soc. Forces 2012, 91, 39–43. [Google Scholar] [CrossRef]
  30. Schnell, I.; Benjamini, Y. Globalisation and the structure of urban social space: The lesson from Tel Aviv. Urban Stud. 2005, 42, 2489–2510. [Google Scholar] [CrossRef]
  31. Icel, J.; Sharp, G. White Residential segregation in U.S. metropolitan areas: Conceptual issues, patterns, and trends from the U.S. census, 1980 to 2010. Popul. Res. Policy Rev. 2013, 32, 663–686. [Google Scholar]
  32. Zhou, S.; Deng, L.; Kwan, M.P.; Yan, R. Social and spatial differentiation of high and low income groups' out-of-home activities in Guangzhou, China. Cities 2015, 45, 81–90. [Google Scholar] [CrossRef]
  33. Lefebvre, H. The Production of Space; Blackwell Press: Oxford, UK, 1991. [Google Scholar]
  34. Harvey, D. The Urbanization of Capital; Blackwell Press: Oxford, UK, 1985. [Google Scholar]
  35. Zhao, R. Exploration and practice of the new concept of the protection of the Great Relics in Shaanxi Province. Archaeol. Cult. Relics 2009, 2, 3–7. [Google Scholar]
  36. Caust, J.; Vecco, M. Is UNESCO World Heritage recognition a blessing or burden? Evidence from developing Asian countries. J. Cult. Herit. 2017, 27, 1–9. [Google Scholar] [CrossRef]
  37. Wright, W.; Eppink, F.V. Drivers of heritage value: A meta-analysis of monetary valuation studies of cultural heritage. Ecol. Econ. 2016, 130, 277–284. [Google Scholar] [CrossRef]
  38. Kim, S. Tourism impacts continuity of World Heritage List inscription and sustainable management of Hahoe Village, Korea: A case study of changes in tourist perceptions. Sustainability 2019, 11, 2573. [Google Scholar] [CrossRef]
  39. Shen, J.; Chou, R.; Zhu, R.; Chen, S. Experience of community resilience in rural areas around heritage sites in Quanzhou under transition to a knowledge economy. Land 2022, 11, 2155. [Google Scholar] [CrossRef]
  40. Harvey, D. Social Justice and the City; Edward Arnold: London, UK, 1973. [Google Scholar]
  41. Ye, C.; Chen, M.X.; Duan, J.J.; Yang, D.Y. Uneven development, urbanization and production of space in the middle-scale region based on the case of Jiangsu Province, China. Habitat Int. 2017, 66, 106–116. [Google Scholar] [CrossRef]
  42. Smith, N. Uneven Development: Nature, Capital, and the Production of Space; University of Georgia Press: Athens, Greece, 2010. [Google Scholar]
  43. Carlos, A.; Fani, A. The concept of “production of space” and contemporary urban dynamics under the dominance of financial capital. Rev. De Geogr. Norte Gd. 2022, 82, 89–107. [Google Scholar]
  44. Richardson, J.J.; Bernard, A.C. Zoning for conservation easements. Law Contemp. Probl. 2011, 74, 83–108. [Google Scholar] [CrossRef]
  45. Covataru, C.; Stal, C.; Florea, M.; Opris, I.; Simion, C.; Radulescu, I.; Calin, R.; Ignat, T.; Ghita, C.; Lazar, C. Human impact scale on the preservation of archaeological sites from Mostistea Valley (Romania). Front. Environ. Sci. 2022, 10, 1065. [Google Scholar] [CrossRef]
  46. Coad, L.; Campbell, A.; Miles, L.; Humphries, K. The Costs and Benefits of Protected Areas for Local Livelihoods: A Review of the Current Literature; UNEP World Conservation Monitoring Centre: Cambridge, UK, 2008. [Google Scholar]
  47. Yang, J.; You, Y.; Ye, X.; Li, J. Cultural heritage sites risk assessment based on RS and GIS—Takes the Fortified Manors of Yongtai as an example. Int. J. Disaster Risk Reduct. 2023, 88, 103593. [Google Scholar] [CrossRef]
  48. McKercher, B.; Ho, P.S.Y.; Cros, H.D. Relationship between tourism and cultural heritage management: Evidence from Hong Kong. Tour. Manag. 2005, 26, 539–548. [Google Scholar] [CrossRef]
Figure 1. Sample village distribution and protection zoning.
Figure 1. Sample village distribution and protection zoning.
Land 12 01067 g001
Figure 2. The framework of social–space mutual feedback of TFRA.
Figure 2. The framework of social–space mutual feedback of TFRA.
Land 12 01067 g002
Figure 3. The spatial distribution of scores of principal components in 2020.
Figure 3. The spatial distribution of scores of principal components in 2020.
Land 12 01067 g003
Figure 4. Indices of social–spatial differentiation of TFRA from 2000 to 2010.
Figure 4. Indices of social–spatial differentiation of TFRA from 2000 to 2010.
Land 12 01067 g004aLand 12 01067 g004b
Figure 5. Functional area division of heritage sites in 2020.
Figure 5. Functional area division of heritage sites in 2020.
Land 12 01067 g005
Figure 6. The spatial models of functional structure in 2010 and 2020.
Figure 6. The spatial models of functional structure in 2010 and 2020.
Land 12 01067 g006
Figure 7. Relationship between protection zoning and TFRAat cultural heritage sites.
Figure 7. Relationship between protection zoning and TFRAat cultural heritage sites.
Land 12 01067 g007
Figure 8. Figure 8. Transformation of production mode under the logic of capital appreciation.
Figure 8. Figure 8. Transformation of production mode under the logic of capital appreciation.
Land 12 01067 g008
Table 1. Social–space index system of TFRA at cultural heritage sites.
Table 1. Social–space index system of TFRA at cultural heritage sites.
TypeEssential FactorSpecific Indicators
Spatial dimension:
space of practice
AgriculturePer capita cultivated land area, planting area of grain crops, planting area of cash crops, etc.
Rural enterprisesArea occupied by individual enterprises, number of individual enterprises, number of collective enterprises, area occupied by collective enterprises, etc.
Traffic conditionsLength of village roads, number of village parking lots, etc.
Living conditionsHomestead area, housing type, house structure, years of residence, etc.
Ecological environmentForest land area, waste slope area, etc.
Social dimension:
space of representation
Population structureLocal population, number of migrant populations, outgoing employed population, population employed in the village, sex ratio, age composition, etc.
Family compositionTotal number of households, per household population, number of impoverished households, etc.
Land ownershipArea of land requisitioned, area of leased land, etc.
Employment statusPopulation employed in scenic areas, number of agritainment households, number of commodity sales households, number of stalls, number of tour guides or drivers, number of transportation logistics households, etc.
Table 2. Principal component matrix of TFRA in 2020.
Table 2. Principal component matrix of TFRA in 2020.
TypeSpecific IndicatorsPrincipal Components Load
IIIIIIVVVIVIIVIII
Spatial dimensionPer capita cultivated land area−0.478−0.4820.451−0.079−0.271−0.013−0.0650.314
Planting area of grain crops−0.121−0.3680.750−0.117−0.1250.153−0.120.224
Planting area of cash crops0.092−0.1020.010.165−0.171−0.180.1650.04
Area occupied by enterprises−0.027−0.0810.0890.1520.080.715−0.085−0.183
Number of collective agricultural enterprises0.226−0.1550.3830.0440.1580.321−0.0190.177
Number of collective industrial enterprises−0.027−0.044−0.0250.0490.931−0.063−0.0720.029
Number of collective service enterprises−0.1510.937−0.092−0.051−0.027−0.053−0.0420.094
Number of individual agricultural enterprises0.073−0.0630.0360.891−0.0750.0280.019−0.118
Number of individual mining enterprises0.041−0.0030.222−0.027−0.0630.8670.012−0.012
Number of individual manufacturing enterprises0.1530.1850.022−0.2810.675−0.0470.359−0.063
Number of individual tourism enterprises−0.0350.901−0.092−0.1040.0030.0180.131−0.074
Number of agricultural product processing enterprises0.443−0.052−0.1490.7130.2390.0030.190.068
Number of individual packaging logistics industries0.451−0.08−0.1860.5080.1470.0710.103−0.095
Length of village roads0.148−0.2270.514−0.0310.0960.0480.2680.039
Number of village parking lots0.0360.808−0.1270.2720.298−0.0170.1320.082
Homestead area0.563−0.047−0.0560.353−0.0470.123−0.041−0.071
Number of two-story households0.5470.513−0.3570.385−0.16−0.1640.0080.083
Number of bungalow households0.461−0.4370.616−0.1920.1520.214−0.028−0.117
Number of concrete structure households0.8420.2570.0360.2120.125−0.15−0.067−0.046
Number of brick structure households0.460−0.3290.486−0.037−0.1530.3320.070.043
Number of wooden structure households−0.140−0.3510.003−0.175−0.218−0.016−0.072−0.589
Housing built in the 70s−0.033−0.2490.213−0.2410.4460.3060.106−0.119
Housing built in the 80s0.0830.248−0.018−0.112−0.120.0630.004−0.045
Housing built in the 90s0.6180.2180.040.119−0.0390.297−0.059−0.129
Housing built after 20000.937−0.0580.022−0.0710.1310.0470.0110.125
Housing built after 20100.232−0.1040.6380.41−0.148−0.239−0.025−0.183
Forest land area−0.050.112−0.0860.173−0.024−0.0310.8760.039
Waste slope area−0.231−0.1430.058−0.1560.0370.0170.6350.225
Social dimensionLocal registered residence population0.833−0.1310.4880.1410.030.035−0.009−0.078
Migrant population0.1300.917−0.127−0.051−0.0140.1790.0110.002
Outgoing employed population0.317−0.3050.582−0.1930.1390.218−0.012−0.216
Population employed in the village0.5900.2820.3220.314−0.161−0.0990.316−0.022
Sex ratio−0.5820.073−0.1680.0290.3480.034−0.301−0.144
Population under 18 years old0.695−0.1710.0030.2740.016−0.181−0.343−0.069
Population of working age0.607−0.0890.7130.162−0.0080.080.152−0.088
Population over 60 years old0.875−0.110.088−0.0650.0930.067−0.095−0.021
Total number of households0.9250.0180.2920.1460.0090.068−0.02−0.042
Per household population−0.572−0.5550.211−0.056−0.031−0.1050.0240.029
Poor households in villages0.013−0.2930.758−0.165−0.0710.183−0.065−0.069
Area of requisitioned land0.7360.448−0.32−0.006−0.092−0.0270.0430.107
Area of leased land−0.143−0.03−0.011−0.002−0.0340.084−0.041−0.09
Population employed in scenic areas−0.0770.06−0.082−0.2−0.135−0.1040.0890.86
Number of agritainment households−0.1190.924−0.0070.142−0.049−0.083−0.035−0.006
Number of commodity sales households0.2390.808−0.142−0.1270.052−0.113−0.178−0.023
Number of catering business households0.091−0.0810.025−0.036−0.0950.01−0.138−0.357
Number of stalls−0.0790.833−0.237−0.04−0.101−0.1−0.060.264
Number of handicraft production households−0.0120.945−0.146−0.089−0.017−0.0050.090.001
Number of tour guides or drivers0.2670.596−0.393−0.162−0.106−0.0450.1880.321
Number of transportation logistics households0.2570.017−0.2240.4850.6480.078−0.162−0.061
The indicators with relatively high loads in bold.
Table 3. Correlation coefficients of principal components in each functional area.
Table 3. Correlation coefficients of principal components in each functional area.
Type of Rural AreaPrincipal Components
IIIIIIIVVVIVIIVIII
Tourism service area0.1430.174−0.130−0.2910.1370.096−0.019−0.184
Agricultural tourism area0.2590.5820.4880.5230.4810.3720.202−0.081
Labor supply area−0.477−0.4380.343−0.312−0.249−0.042−0.3530.235
Labor outflow area0.1810.1570.2090.117−0.077−0.4130.0880.145
Resettlement area0.424−0.0130.411−0.008−0.6980.3060.3520.358
Rural industrialized areas0.0060.0080.1810.047−0.0780.172−0.187−0.002
Disclaimer/Publisher’s Note: The statements, opinions and data contained in all publications are solely those of the individual author(s) and contributor(s) and not of MDPI and/or the editor(s). MDPI and/or the editor(s) disclaim responsibility for any injury to people or property resulting from any ideas, methods, instructions or products referred to in the content.

Share and Cite

MDPI and ACS Style

Wu, C.; Yang, M.; Zhang, H.; Yu, Y. Spatial Structure and Evolution of Territorial Function of Rural Areas at Cultural Heritage Sites from the Perspective of Social Space. Land 2023, 12, 1067. https://doi.org/10.3390/land12051067

AMA Style

Wu C, Yang M, Zhang H, Yu Y. Spatial Structure and Evolution of Territorial Function of Rural Areas at Cultural Heritage Sites from the Perspective of Social Space. Land. 2023; 12(5):1067. https://doi.org/10.3390/land12051067

Chicago/Turabian Style

Wu, Chong, Mengling Yang, Hang Zhang, and Yafang Yu. 2023. "Spatial Structure and Evolution of Territorial Function of Rural Areas at Cultural Heritage Sites from the Perspective of Social Space" Land 12, no. 5: 1067. https://doi.org/10.3390/land12051067

Note that from the first issue of 2016, this journal uses article numbers instead of page numbers. See further details here.

Article Metrics

Back to TopTop