Preprint
Review

Reappraising Natures and Perspectives of Wasteland in Developing World with a Focus on India

Altmetrics

Downloads

144

Views

36

Comments

0

A peer-reviewed article of this preprint also exists.

Submitted:

18 March 2024

Posted:

19 March 2024

You are already at the latest version

Alerts
Abstract
This article seeks to provide an improved and more comprehensive understanding of the concept and theories on wasteland. It achieves this by focusing on the Indian context allowing us to unpack the importance of including multiple perspectives of wasteland narratives; this means including more positive narratives of the potential of wasteland to inform and improve prospects for land policies in the global south. Wasteland is commonly recognized as an underutilized category of land that may transform into a valuable resource base with proper management measures. The term waste has multiple angles that carry different notions ranging from fallow to agroforestry land in the global south and Brownfield to green space in the global north. We conduct a narra-tive review approach to qualitatively analyze the concept wastelands studied in pre-existing lit-erature from 1970 to present. The unsystematic literature review approach incorporates multiple elements of wasteland discourse, like understanding the meaning of the term on a global scale, setting out the meaning of the term waste into multiple perspectives explicitly in the Indian con-text, along with different classes and management approaches of wasteland from a national per-spective. The multiple perspectives of wasteland not only generate misconception on land resource but spawn difficulties in land use policy particularly for Indian scenario. For sustainable land use policy, reclaiming wasteland would be the best possible way for India and other countries in Global South, which requires a comprehensive methodological overview on wasteland narrative.
Keywords: 
Subject: Environmental and Earth Sciences  -   Geography

1. Introduction

The term wasteland manifests with multiple notions and different synonyms in the global south and north. The expression wasteland has different perspectives and outlooks based on socio-economic status of a region, polity, historical land use policy, and physiographic and regional variance. In the global south, wasteland is primarily used as a synonym for unproductive lands, which combine with the inferior livelihood of the rural commons. Studies have shown that, particularly in the agrarian economy of rural areas in the global south, there is a common association between the genesis of unproductive lands and rural poverty, which connects the term waste with ‘marginal land’ [1]. Hence, marginal land is a socio-economic expression of wasteland in the global south. On the other hand, wasteland-driven policies in the global south show the conflict between rural agrarian communities and different administrative organizations. This implies that the term “waste” is politically malleable expression [2,3]. Another form of wasteland is land degradation which is expected in the global north and south. In some cases, wind and water erosion causes land degradation. In some instances, the formation of urban wasteland is the product of industrial and chemical contamination, known as brownfield land [4]. For this reason, the term wasteland carries certain idioms and implies men-environment relations, land utilization, and land use policies. Hence the term waste is holistic that needs to study with a broad framework. Issues related to the wasteland are increasingly becoming a central biophysical, political, and economic concern worldwide. Existing literature has yet to comprehensively analyze the multiple dimensions of this complex issue of human-environment relations that is predominant all over the globe in a comprehensive appreciate the complexity of wasteland issues. The existing literature on wasteland primarily focuses on multiple uses and techniques to restore the unused landscape and consider the unproductive character of unused lands. Different restoration techniques for wasteland could bring a positive approach where wasteland can categorize as a potential resource rather than merely unproductive land. Simultaneously, considering the nature of the wasteland is crucial for academic work to enable for the creation of more sustainable land restoration policies. So far, studies have not fully considered the term waste in an interdisciplinary way. Rather each of the single disciplines considered the term waste from a single explicit perspective. Therefore, a holistic, more improvised, and multidimensional approach is required to clearly understand the different aspects of the wasteland, which we tried to full fill in this narrative review.
Waste often denotes an underutilized and unproductive piece of land that can be redeveloped through proper management and policy implementation [1,2]. The term was first used in the 13th century in English common law, where waste was considered vacant land [3]. Wasteland has different meanings across the world and regions; for example, in the global north, it is primarily referred to as derelict and brownfield sites [4] which are the product of industrial contamination [5].In the global south, words like degraded, neglected, and fallow land is associated with wasteland, which is primarily abundant in rural sectors [6,7,8].In both cases, concepts of wasteland are accompanied by characteristics like unfit for economic activity [9,10], degraded [11,12], the potential for redevelopment [13,14], and requires strategic management [15].In academic literature, wasteland-related studies are mainly focused on two significant aspects: understanding the present status of wasteland and recognizing the potential prospect of wasteland. In most cases, wastelands are considered a barrier to economic utilization [16]. Still, in the present global scenario, where there are deep uncertainties and needs around fulfilling regional economic and commercial needs, waste is considered a potential resource base that may help fulfill the demand for food, energy, and other necessities [17,18]. There is a diverse range of academic literature across disciplines studying wasteland, from physical to social sciences. Physical geographers are mainly concerned with the location-specific identification of wasteland clusters and their categories through the application of geospatial data [19,20,21]. Agriculture scientists primarily focus on crop suitability analysis in different wasteland areas [22,23,24,25]. Political science and development studies have shown wasteland-related development policy outcomes and the feuds between local communities and state governments in the global south [26,27,28]. Literature on environmental history has shown the association of wasteland with colonial and post-colonial land use policy in the global south [29,30,31]. Some of the cases studied in the global north have shown the utilization of wasteland for restoring urban biodiversity through the rejuvenation of brownfields and derelict sites [32,33,34,35].
In the global south, wasteland reclamation for comprehensive rural development has become integral to land use policy [36]. For example, about 69 million hectares (ha) of land in India are considered waste in areas defined as rural areas. Out of which, about 50% of lands are categorized as non-forest lands that can be converted into fertile land [37]. Converting wasteland into farmland may protect current fertile cropland from degradation [38], can full fill the demand for food, reduce poverty, and restore the ecology at the national level [39]. Hence wasteland may have multi-dimensional usability, which are yet to be explored. A more comprehensive set of literatures consider wasteland as a natural resource that can be reutilized for multiple uses, afforestation, recreational uses, and suitable crop production [40,41,42]. Apart from a need to map out the different categories and identify the potential uses of wasteland, there is a need to analyze the comprehensive nature of wasteland as, so far, few studies have done so. From the above discussion, it is evident that different disciplines define and study wasteland through different understandings and narratives. The holistic nature of wasteland has not yet been comprehensively captured. Hence instead of looking at one dimension of wasteland from a particular discipline or a particular regional setup, we require a better and more holistic framework to analyze the multidimensional nature of wasteland. This article focuses on two particular objectives of the wasteland narrative to create a better understanding of wasteland by reviewing pre-existing literature; 1) to get a better and more comprehensive understanding of wasteland literature to date in the global north and south in general,2) to analyze the role of wasteland, and its narrative(s)in the Indian context of land policies and management, particularly.
To reach these objectives, we split our article into two parts: firstly, the global representations of wasteland through different definitions and management policies in the global north and south, and secondly, by focusing on the Indian context of wasteland for a deeper understanding of the different definitions with perspectives and wasteland related policies in India. The main reason for focusing on India is to set out the example of how unused lands can be transformed into a productive resource in global south, for which the primary theoretical base is necessary for wasteland narrative. Moreover, setting out the in dept understanding of wasteland by approaching multiple dimensions will provide a broader outlook of unutilized landscape that can be an essential tool for land use policy in global south.

2. Methodology

This meta-narrative review article comprehensively synthesizes existing literature on wasteland, which identifies, appraises, and synthesizes relevant studies, facilitating an exploration of various dimensions of wasteland, such as definitions and perspectives, categories, and policy assessment. It also illuminates research gaps and challenges (Green et al., 2006). Through this approach, the review aims to enhance the quality, rigor, and transparency of its analysis, providing valuable insights and recommendations for future research and policy in wasteland management (Silva et al., 2015). The methodology of the article consists of two main approaches: first, is to analyze existing literature on wasteland which addressing the chronological order on wasteland aided research over time, disciplines and different contexts to scrutinize the range of approaches to studying the holistic view of wasteland. Secondly, is to address multiple aspects of wasteland i.e., definition & perspectives, categories and policy assessment focusing on the Indian context with the incorporation of a global view.
Article Selection Process and Meta-Narrative Analysis: The article selection process consists of 4 basic steps:
1)
Initiation: The process starts with defining the scope and objectives of the review to guide the search for relevant articles on wastelands.
2)
Database Search: A systematic search of literature databases is conducted, using keywords and search terms related to wastelands to ensure comprehensive coverage of the topic.
3)
Inclusion and Exclusion Criteria: Articles are subjected to inclusion and exclusion criteria to determine their relevance to the review. Criteria such as publication date, language (English), and geographic focus are applied to filter out irrelevant or duplicate publications (Brocke et al., 2009). Selected articles are further appraised for their quality and suitability for analysis, assessing their methodological rigor, relevance, and reliability.
4)
Categorization of Selected Articles: Selected articles are categorized based on specific aspects of wastelands to facilitate a comprehensive synthesis of the literature. Categories include decade-wise, discipline-wise, and region-wise classifications, among others.
These sequential steps demonstrate how articles are systematically identified, appraised, and categorized to inform the narrative review on wastelands (Figure 1). A total of 236 publications are classified into specific aspects to elucidate the trajectory of studies related to wasteland, discussing meanings, history, categories, and land use policies. Publications are categorized into decade-wise, discipline-wise, and region-wise literature, along with an amalgamation of these aspects with regional perspectives.
Figure 1. Flowchart depicting steps taken in the Review Process.
Figure 1. Flowchart depicting steps taken in the Review Process.
Preprints 101619 g001
  • Decade-wise Published Literature: Literature is divided into seven decades from the 1960s to the present, revealing a swift increase in academic publications on wasteland-related topics from the 2000s onwards, peaking during 2010 to 2019 (see Figure 2).
    Figure 2. Decade-wise number of academic literature published on Wasteland and related topics.
    Figure 2. Decade-wise number of academic literature published on Wasteland and related topics.
    Preprints 101619 g002
  • Discipline-wise Published Literature: Literature is classified based on discipline, with some pieces potentially assigned to multiple disciplines. For example, literature focusing on geospatial techniques and agricultural science may overlap (see Figure 3).
    Figure 3. Discipline-wise published literatures on Wasteland and related topics.
    Figure 3. Discipline-wise published literatures on Wasteland and related topics.
    Preprints 101619 g003
  • Region-wise Published Literature: Literature is classified regionally, with some pieces potentially counted more than once if they cover multiple regional case studies (see Figure 4). Regional perspectives are further overlaid onto issues associated with wasteland (see Figure 5), with a specific focus on the Indian context.
    Figure 4. Region-wise academic published literature on Wasteland.
    Figure 4. Region-wise academic published literature on Wasteland.
    Preprints 101619 g004
    Figure 5. Region-wise publication on different Wasteland allied issues.
    Figure 5. Region-wise publication on different Wasteland allied issues.
    Preprints 101619 g005
2.1.
Structure of the Review: Based on the meta-analysis mentioned above, we structure our narrative review into two major parts:
2.1.1.
Global Overview of Wastelands: To recognize the global picture of wasteland narrative, we focus on two particular elements: the meaning and the policies associated with wasteland. This includes:
Understanding how the term ‘waste’ is used in the global north and the global south (Paul et al., 2015).
Examining the basic differences of wasteland narrative in the global north and south, particularly in their geo-physical setup, causes of wasteland formation, and its association with livelihood. We also compare the differences of wasteland-aided policies (Sylvester et al., 2013).
The primary purpose of this global overview of wasteland is to provide the readers with a comprehensive background for understanding the current knowledge on wasteland narrative and then overlay it with a case-specific study in the Indian scenario. This deductive way of narrative review may serve as a viable policy-making approach on wasteland, where planners can get the explicit details of wasteland in the Indian case by incorporating the holistic global overview as well.
2.1.2.
Case-Specific Study in India: For the Indian case study, we aim to recapitulate what is known, and we do so by creating and using themes and grouping categories derived from the literature. The grouping categories of literature are primarily based on three consecutive themes of wasteland narratives:
Understanding the multidimensional perspective of wasteland: We follow these steps to highlight different perspectives of wasteland in the Indian scenario:
  • First, out of the total 94 literatures of wasteland in the Indian scenario, we set aside 18 literatures that explicitly define the meaning of wasteland as a finite concept.
  • Second, we group the 18 definitions into a chronological order to represent the decade-wise shifting in perspective in the wasteland narrative from 1960s to present (Table A1, Appendix A).
  • Third, based on the available 18 definitions, we further extract four individual interlinking perspectives: Agro-economic perspective, Bio-physical perspective, Property right perspective, and Political perspective of wasteland in the Indian context.
Emphasizing different categories of wasteland: Although a number of different national organizations (Table A2, Appendix B), such as Indian Council of Agriculture Research and National Wasteland Development Board, have already classified different categories of wasteland, these classifications are very much integrated with the geo-physical aspect rather than integrating the socio-economic and political aspects of wasteland category. Therefore, we further categorize different wasteland classes in an interdisciplinary mode, where the bases of wasteland category are further classified into four types and 15 sub-types (Table A3, Appendix C).
Examining the policy associated with wasteland: To evaluate the wasteland-aided policy, we follow two consecutive steps that endorse the deductive way of interpretation:
  • First, we classify the wasteland and land revenue system in the colonial era, which depicts the historical background of wasteland in India.
  • Second, we further reclassify the post-colonial wasteland policy into three segments depending on the approaches of wasteland-aided policies (Table A5, Appendix E).
  • After discussing the general overview of wasteland in the entire country, we further obtain region/state-specific wasteland-aided developmental approaches (Table A6, Appendix F).
By synthesizing global and regional perspectives, the review aims to provide a comprehensive understanding of wasteland narratives in India and beyond. It offers insights into the complexities of wasteland management and identifies opportunities for policy intervention and research collaboration.Thus, the review seeks to inform more sustainable and inclusive approaches to land use and environmental conservation in the face of growing global challenges.

3. Understanding the Concept of Wasteland in Global Context

Throughout the globe, the term waste is associated with ‘bare’ [10] and ‘improper’ for economic utility [43], also as untamed [44] and ‘standing apart’ from human utilization due to regional constraints. Nevertheless, due to the rising population rate and human demand, the notion gets shifted into a potential resource base [41]. The term waste keeps oscillating over time concerning the physical and geopolitical set up Based on that, we seek to explain the wasteland concept separately in the global north and south for a better understanding.
The wasteland narrative(s) in academic literature in the global north primarily emerged from England through urban development [58,59,60], where sometimes it is recognized as a social construction [60]. Generally, studies define urban wastelands are the product of industrial wilderness [58]. Another group of scholars has considered the unstructured expansion of green space as the cause of wasteland in the global north [61]. However, apart from England, the term waste is associated with multiple tags; for example, in Australia and New Zealand, unused lands are considered waste [62,63], which sometimes plays a vital role in conserving the scenic beauty in the city region in the United States [64]. Likewise, in the Indian context, wasteland in the global north has multiple notations like Brownfield [65], derelict [66], which are vacant, and sometimes considered s green spaces, which are the product of previous industrial exploit [67,68,69]. A group of academic literature has regarded the substandard population pressure on land as one of the reasons for vacant wastelands in parts of the global north [47].
In most cases, urban wastelands are associated with environmental degradation [67] and a weak socioeconomic structure that is an “effect of decline rather than a cause”[66]. For example, the Glasgow and Ruhr district of North Rhine-Westphalia, where the concentration of derelict sites brings a degraded environment [70,71,72,73] and weak socioeconomic conditions [74,75,76,77,78]. Nevertheless, it is unavoidable that neglected urban wastelands are an operational character and can bring back to proper utilization [35]. Among the different utilizations of wasteland, ecological restoration through the conservation of flora and fauna has been prioritized in western Europe’s wasteland restoration [33,35]. Reforestation through the direct seed method is a long-term solution for reclaiming wastelands in Northeast Queensland of Australia [159]. The foundation of ecological restoration of urban wasteland was initiated through the ‘Sustainable Brownfield regeneration agenda’ (2002), which tries to reclaim Brownfield sites in European countries (Ruhr area and south of Leipzig region in Germany, Nord-Pas de Calais in France, East Midlands in the UK, and Silesia in Poland) [161,162,163].
In the global south context, to adjust to human needs and maintain land sustainability, wastelands are recognized as a resource, where wastelands can be transformed from bare landscapes to fallow agroforestry land [45]. This brings the falsehood narrative of wasteland associated with the man-nature complex relation [46,47,48], where instead of looking the possibilities; studies have considered it as an unwanted environmental entity. The primary factor of wasteland formation is land degradation through wind and water erosion [49], which set out wasteland and degraded land as synonyms for each other [50,51,52,53]. In the global south, wastelands cover large areas in the rural sectors [54,55], often kept aside from crop production & economic utilization, and primarily terms as common lands [55]. This makes wasteland as a common property resource [56]. The reason for untapped rural wastelands in the global south is diverse, where the over-dependency on current cropland [24], lack of comprehensive land-use policy [37], and economic constraints [44] are recognized as the leading factors. However, to achieve effective land utilization in order to respond to needs arising from the increasing population rate, some countries in the global south have implemented effective wasteland reclamation policies to convert unused land into an economic good (Table A1). Among the different approaches to wasteland reclamation are sustainable land-water utilization (mainly groundwater restoration, IWRM, and watershed management), community participation approaches like home gardening, agroforestry, participatory forest management, and silvopastoral system [160] are being recognized in the countries of SSA(mainly Ethiopia and Tanzania), SE Asia(especially Philippines, Thailand, and Vietnam) for wasteland reclamation. However, in the majority, most of the countries in the Global South have considered bio-energy production for wasteland development. For example, China, Indonesia, and the Philippines adopted bio-energy production on their non-prime marginal cropland [80,81]. In Cambodia, about 53% of the arable land is considered waste, among which isolated borderlands are used for oil palm production [82]. The same approach has been adopted by Ethiopia, where marginal wastelands are used for oilseed production [83]. Nevertheless, the commercialization up-taking of wasteland involves multiple groups within a policy, and different actors act with different motives. Sometimes local usability of land is ignored by government officials, and land gets handed over by private enterprises, which conflicts between government officials and local commons. The wasteland-related disputes among the different sectors of the state bring political notation of the wasteland narrative [57] that creates puzzlement on the accurate identification of wasteland in the global south.
Although wastelands can be seen as a dynamic land-use type in the global north and south, there are some differences in wasteland narratives between the global north and south:
  • In the global south, wastelands are predominant in the rural sector, whereas planners emphasize urban wastelands in the global north.
  • In the global south, the formation of wasteland and regional marginality are associated with each other. In the global north, the relation between wasteland and regional marginalization is not unambiguously connected.
  • In the global south, the development approaches to wasteland are significantly overwhelmed with economic prosperity (through energy security and job creation) and ecological restoration. Whereas in the context of the global north, the re-establishment of wasteland is predominantly emphasized by ecological restoration.
  • In the global south, land use policy for wasteland regeneration is associated with unequal power relations and land grabs, which is not signified in the global north.
Apart from the different approaches and interpretations of wasteland in the global north and south, they are considered a valuable budding resource in both cases. In the era of globalization, land-use policies are also diffused from one part to another. For example, in early studies, urban development through Brownfield regeneration was unambiguously bounded within the global north [88]. However, countries like China, Pakistan, and India (especially in Kolkata city) are now dealing with sustainable urban development through Brownfield restoration [89]. On the other hand, wasteland reclamation through oilseed production was mainly concentrated in humid tropical areas of the global south. Still, in the modern global economy, oilseed production is also practiced by the northern international countries [164], which prove the changing discourse of global land use policy and how the vision of wasteland gets assimilated between different parts of the globe over time.

4. Understanding Wasteland in Indian Context

In this segment, we are focusing on India as a case study aiming that wasteland reclamation policy may set out the methodological aspect of wasteland reclamation for other countries in the global south. The formation of wasteland is associated with environmental entities and their interface with human activity. A particular resource may tag with certain idioms based on the different utilities. For example, the land is one of the environmental entities and based on different utilization, categories like cropland and industrial land co-exist together. Since the outlook of wasteland varies from different disciplines and different geographical locations, hence define wasteland always comes out with certain unsound argument. As none of the literature on wasteland comes out with the holistic theoretical framework of wasteland narrative. Based on the man-nature relation in different space, Wasteland has different idioms and narratives. Likewise, from a bio-physical viewpoint, wastelands are regarded as degraded land [51,52,53]; resource utilization and property rights are considered common resources for local village communities [54,55]. On the other hand, wastelands are sometimes recognized as politically constructed due to the dissatisfaction of the local community with land-driven policies [56,57]. The multiple elements in the wasteland narrative sometimes bring the phony notation of land-use associated with man-nature multifaceted linkage [46]. Hence, in this section, we seek to explain the multidimensional angle of Wasteland from different perspectives. It will be less comprehensive to consider the wasteland narrative from a single perspective rather than explaining it from a different angle. Table A1 (Appendix A) shows the decade-wise available definition of Wasteland arrange into different perspectives (agro-economic, property rights, bio-physical and political) of the wasteland narrative in the Indian context. The main reason to define Wasteland from different perspectives in the Indian context for making the wasteland-driven policies more comprehensive so that none of the elements remains untouched.

4.1. Perspectives on Defining Wasteland in India:

Among the different perspectives of Wasteland, the economic and biophysical perspectives were prioritized over the decades due to over-dependency on land for sustaining livelihood and land degradation [90,91]. Since the 2000s, there has been a change in wasteland narratives through political intervention from wasteland-driven policies in India as well as other countries in the global south. For example, in Brazil, Mexico, Myanmar, Indonesia, China, and central and southern Africa, about 87% of the total land and 250 projects are related to jatropha oilseed cultivation [92,93]. This agroeconomic transformation caused due to the rising price of food staples from 2008 onwards, which drove farmers to switch from food crop production to biofuel production [94]. This creates a launch pad for numerous private industries and state governments to get the opportunity to utilize farming land for biodiesel production, which creates biofuel related political environment through wasteland reclamation policy [95]. Hence, based on the available definitions of the Wasteland, we can discuss wasteland discourse from the following perspectives:
A). Wasteland from an agro-economic perspective:
Agricultural production and property rights are the two united features of Wasteland in India that are associated with the economic perspective of Wasteland. Apart from the production or agro-economic perspective, a land resource is a fictitious commodity [96] that is not sometimes directly connected with market value [97]. To what extent production could be the leading factor in considering land as waste is still being determined. Specifically in the global south Economic sustenance in the rural sector is intrinsically related to the land where the activity occurs. [98]. Upgrading, regional growth, and the reclamation of Wasteland or unused lands can be the best way to enhance production [99] and reduce marginalization [100]. Nevertheless, the possibility of reclaiming Wasteland for production depends on the socioeconomic condition, geographical setup, and polity within a region [101]. The underdeveloped regions of Africa, Asia, and Latin America, where almost one-fifth of new crop production from 1990 to 2050, are expected to rely on expanding cultivated areas through conserving unused lands [102]. Hence, without a comprehensive assessment and diverse range of vision, considering a portion of land as waste and not fit for production creates the barricade on wasteland policy.
B). Wasteland from a property rights perspective:
The concept of the commodity comes with the notion of “belonging to,” as ownership is an essential and underlying principle in capitalism [103]. The ownership of a resource sometimes comes with emotional and historically customary use. For example, native people assert that land does not belong to them; they belong to the land [98]. The incorporation of property rights with land resources connects through the precedence of the local community to enjoy the benefit from their surrounding lands [104]. On the other hand, among different types of individual land rights (use right, income right, and transfer right), marginal lands come under underused rights [105] and are treated as common property resources. Since marginal lands are substandard for production, they are free from the choice of wealthy farmers and taken by village subsidiary tenants [106]; this further weakens marginal lands due to low down care and investment by poor village tenants [107]. Due to substandard infrastructures and unsatisfactory income generation in rural India, low investment in land is a common observable fact [108,109]. Also, the nature of investment of the farmers depends on land tenure, as farmers are likely to spend and improve the lands that they own [110] and for which they have long-term utilization rights than lands they operate under short-term use rights [111]. Even if the farmers need more confidence about reaping land for long-term profit, they use their holdings to maximize short-term returns [112]. This might be one of the reasons that in the Indian scenario, most of the wastelands are considered common [113,114] and distributed among the deprived group of the village community [54]. Nonetheless, the rural poor often rely on common property lands for survival through fuel-wood production and fodder gathering [115]. This brings the question of how far village-common lands should be considered waste or economic good.
C). Wasteland from a biophysical perspective:
The depletion of biophysical characteristics of soil and erosion by water and wind mainly creates land degradation, which is one of India’s prime causes of wasteland formation [116]. Therefore, most of the definitions of Wasteland drag land degradation as a synonym [117]. Conversely, some regional examples ambiguity the relationship between Wasteland and land degradation. For example, the formation of the Grand Canyon by deep erosion [49,118] of the Colorado Plateau by the Grand Canyon River and its tributaries [119] causes severe land degradation [120]. In this viewpoint, Grand Canyon can be regarded as degraded, but how far can we consider it waste? This eroded and less fertile portion of the United States is a significant tourist destination [121]. Now, let us consider some of the small-scale land features, then Garbett, a census town in West Bengal, India. There is a landform called Gongoni (can also be spelled asGangani) which is formed due to the formation of ravines and erosion by River Shilaboti [122,123]. This landform is unsuitable for crop production as it lost its fertility due to erosion. Nevertheless, Gongoni is now considered a prospective tourist destination in West Bengal and India [124]. This set of examples brings the acceptance of multiple economic utilization of land even if it is not suitable for crop production, proving how universally all degraded lands are not wasted.
On the other hand, household-level disputes and land fragmentation are common in rural India [125]. The practice of land fragmentation causes a reduction of land utility, sometimes referred to as a Social Wasteland [126,127] that somehow is not associated with degradation; instead, it is an output of a social phenomenon. This proves how universally; all wastelands are not degraded by nature.
D). Wasteland from a political perspective:
In the global south, land reclamation policies provide the ground where different sectors merge for different motives, creating the pseudo-scientific approach to land utility.[128,129]. The biophysical landscape is often recognized as the foundation of political economy within a setup [130], where the state becomes an active agent of the whole picture [131].
The land reclamation projects in Southeast Asia often integrate with the power of exclusion [132] and large-scale land acquisitions [133]. This brings a defined argument on who the gainers are and who is the loser in a land development project. Is it only externally market-oriented, or is it for the development of the local community [134]? In This regard, India’s biofuel production for wasteland development sets a great example where state policy, private enterprises, and the local community play different roles. In this regard, oilseed production was promoted when NWDB considered wastelands the best suitable sites for oilseed production [135]. This statement raises a few questions: What are the major wasteland categories that suit oilseed production, and why are they not reproduced for food crop production? This set of questions becomes more prominent when studies in Tamilnadu state show how lands marked as waste by government officials have multiple uses by the local community. This also points to tensions between government interests and community interests.
In some cases, farmers have sold pieces of their land (sometimes knowingly, sometimes not), thinking that their lands are not suitable for crop production and would be helpful for oilseed (Jatropha) production [136]. Oilseed production can meet the need for energy and reduce poverty in rural areas, but in the end, produced fuel is mainly consumed in urban areas [134]. This is how the changing political economy generates complex local agricultural setup and socio-ecological changes, and rural setup primarily acts as a donor region. In this regard, political ecology becomes a valuable domain to shed light on the abovementioned factors. We must acknowledge that the availability of agricultural land is lessening due to the increasing population growth rate and demand from other sectors. At the same time, shifting food crops to cash crops becomes doubtful when the country loses self-sufficiency in food production [137], associated with increased food prices [138]. The study shows that in the case of Tamilnadu state, a significant amount of land has been distributed in the rural sector that comes under the national biofuel policy [139] to produce energy and wipe out poverty [140]. Some districts like Coimbatore and Thiruvannamalai in Tamilnadu show over-exploitation of groundwater resources for oilseed production, where production of other crops becomes minimized [141]. This causes agricultural labor shortage due to rural-urban migration, where small-scale farmers tend to migrate to the nearby urban sectors to work as daily laborers or engage in the manufacturing sector [142]. This socioeconomic transformation in the rural sector is indirectly associated with regional transformation through the growing non-agricultural sector in the rural economy that generates by out-migration, shortage of food crop production, and the influx of population from the rural sector creates pressure on urban amenities. Thus, land deals in the global south are less transparent, ignoring land Sovereignty of commons and bringing improper assessments of different land uses. In the global south, most land deals and the perception of lands are based on the physical environment and land characteristics [143]. Flat plain lands allowing crop production without significant effort are often considered ideal land [144], whereas semi-arid savannas and so-called ‘marginal lands’ are considered wilderness [145]. The ‘undeveloped’ frontier land, in dense tropical rain forests [146], vacant, undervalued, or state land [147], or geographically remote borderlands [148] are concerned with different forms of power that arises struggle over land right and thus generates different definitions and identities [149]. This makes wasteland entity the ‘politically constructed’ [57], where the winner is on one side, and the loser is on the other.

4.2. Classification of Wasteland:

The wasteland classification was first introduced by the National Remote Sensing Agency (NRSA) in 1985 into eight subcategories with their areal expansion [150]. Later, in 1987, the Indian Council of Agriculture Research (ICAR) classified wastelands based on the causative agents (water, wind, man, and others) and their potential utilization [151]. Onwards 2000, the classification of wastelands came up more precisely when NRSA (now NRSC) and the Department of Land Resource jointly published the Wasteland At least every five years. According to the Atlas, in 2000, the total wasteland area in India was 20.16% [152] which was reduced to 16.96% in 2019 (Table A2: Appendix B) [153] that somehow indicating the positive side of wasteland development projects all over the country. Also, national organizations should have considered the socio-cultural factors for wasteland formation. The socio-economy and polity are the driving agents of LULC change within a geographical setup. Based on the different factors, we can reframe the classification of Wasteland into two broad categories (Table A3, Appendix C): Wasteland framework focusing on causal factors and Wasteland studies focusing on the potential usability of wasteland.
1)
Wasteland’s causal factors:
a)
Wasteland due to natural factors: Wastelands form due to natural inputs like wind and water erosion or natural degradation. For example, rocky outcrops, gullied / ravenous land, glaciated areas, and sandy areas naturally produce where human economic activity may not be possible.
b)
Wasteland due to anthropogenic factors: The socio-cultural, economic, and political processes are responsible for creating marginal lands, which can be recognized as anthropogenic Wasteland. We can classify anthropogenic Wasteland into three categories-
(i)
Socio-cultural Wasteland: This type of Wasteland is mainly formed by socio-cultural factors [154], such as land fragmentation due to family disputes causes social Wasteland.
(ii)
Political Wasteland: The political fabrication creates a solid foundation of disputes and obstruction of development policy. The formation of a political Wasteland is the product of the disputes among the local farmers, private enterprises, and local government. In this regard, Singur, in the Hooghly district of West Bengal, India, sets a perfect example of the formation of politics. The state government announces the promotion of Tata Motors Company for the ‘Nano’ factory (Small Car factory) in Singur, some 30 km NE of Kolkata city. Nevertheless, the policy’s central issue was selecting agricultural land, which was one of the prime agro-based regions in the district and for the state. As a result, the opposition party raised agitation against the land acquisition with the help of the local farmers. As a result, Tata Motors Group left West Bengal and chose Gujarat state for their Nano factory [155]. The result ended with the origin of wastelands in Singur [156], where the disputes have made the land unfit for agriculture and industry.
(iii)
Wasteland due to economic activity: Mining, other industrial activities, and ‘jhum’ farming reduce soil fertility [157]. In India, mining wastelands are predominant, whereas chemically contaminated land is another category of Wasteland, sometimes recognized as Brownfield land in European countries.
2)
Wasteland’s potential usability
a)
Cultivable Wasteland: Cultivable wastelands are the specific group of Wastelands suitable for reuse through effective management. For example, salt-affected land, gullied /ravenous land, water-logged or marshy land, upland with or without scrub, Jhum or forest blank and sandy areas are the categories of cultivable or utilizable Wasteland. Some types of cultivable Wasteland can be re-utilizable for agricultural production, which is categorized as cultivable Wasteland [158]. Nevertheless, the extent of potentially reusable culturable Wasteland depends on the regional policy and economic affluence within a region.
b)
Uncultivable Wasteland: Due to meteorological and geographical factors, a few categories of lands that are not fit for use are known as uncultivable Wasteland. Among this group of Wasteland, barren hills, ridges, rock outcrops, and snow-covered areas do not attain any economic uses. Though, we cannot deny their inherent environmental significance, accommodating essential ecological activities on the earth’s surface.

4.3. Management Strategies of Wasteland in India:

The wasteland management policies in India can be classified broadly into two successive stages colonial and post-independence wasteland policy (Table A5, Appendix E). The colonial wasteland policy can be further classified into two sub-stages based on the nature of the taxation system and attitude towards forest lands. In contrast, post-colonial wasteland policies can be classified into three stages based on national organizational setups and national-level policies.
  • Land revenue system and perception of wasteland during the British raj
John Locks’s theory of property highly influenced the land revenue system and perception of wasteland during the British raj colonial land-use policy [84]. Croplands were considered productive, and forests, common grazing lands, and pastures were considered wasteland [31,165]. The second phase of the colonial land-use policy was manifested by deforestation due to the demand for wood for the Royal Navy Shipbuilding Company [166] and cropland expansion in India [167,168]. This is how forest becomes a wasteland for productive resources for the British economy.
2.
Wasteland and its management in the post-independence period
  • The first stage (1950-1980):
1951 was remarkable due to the commencement of the first five-year plan, which focused on increasing cultivated land and generating food security. This brings the implementation of (1) tenancy reforms, (2) abolition of intermediaries, and (3) land redistribution [169]. This time the National Commission on Agriculture (NCA) was formed, which tried to convert wasteland for agricultural enhancement [170]. For this reason, NCA estimated the wasteland area was about 175 million ha (approx. one-third area of land in the country), and social forestry was regarded as the best possible method to convert wasteland into productive land [171]. Nonetheless, the objectives of this phase were unsatisfactory due to the unequal land distribution, where underperforming lands were mainly distributed among the poor.
  • The second stage (1980-2000):
The second phase of the post-colonial wasteland development policy was emphasized by introducing the National Wasteland Development Board (NWDB), Integrated Wasteland Development Program (IWDP), and National Watershed Development Project, directly associated with a wasteland development program. The NWDB was formed in 1985, which first defined wasteland at the national level for optimum uses, mainly for fuel wood and fodder plantation. Whereas the IWDP tries to develop wastelands in non-forest areas [172]. However, the watershed development approach tries to develop wasteland through its “Ridge to Valley approach” [95], where wastelands are identified explicitly in isolated patches within a demarcated area [173]. Apart from the programs that directly emphasized wasteland development at the national level, few lands reclamation programs have emerged. Among those, Desert-Area Development Program (DADP) and Drought Prone-Area Development Program (DPAP) are much significant that try to optimize the ecological balance and economic stability in fragile areas [174]. The main drawback of this phase was that different land reclamation approaches narrate wasteland differently, where deserts and drylands are recognized as waste [175]
  • Third stage (2000-present):
The third stage of post-colonial wasteland development was primarily initiated through the second part of social forestry by promoting oilseed production in wasteland areas to restore ecology and economy [176]. Another reason to implement social forestry in the third stage was associated with the unsatisfactory outcome of watershed development, as it was not entirely focused on wasteland [177]. The national biofuel promotion is constructed in two successive parts; the 1stone is National Mission on Biodiesel Development (NMBD), initiated in 2003, and the second is National Mission on Biofuel promotion in 2009. In the 1st phase, the Jatropha plantation [178] was mainly prioritized for wasteland development. The Indian planning commission claimed that promoting 10 million ha of Jatropha could generate 7.5 million metric tons of fuel and construct employment for construction 5 million people per year [179]. The reason why Jatropha got promoted in India is because of the successful policies across the tropical and subtropical provenance [180], particularly in Mexico, Central America [181], and parts of Africa [182]. The most positive aspect of Jatropha is that it can grow in any soil condition, precisely as sandy soil, stony soil, etc. [183]. Through 2008, India was the world’s primary cultivator of Jatropha, with around 407,000 ha under cultivation, nearly 45% of global production [10]. Still, during the 2nd phase of oilseed production, Jatropha was not specified but aimed to increase by 20% of the blending target. Despite the early success of the oilseed policy through wasteland reclamation, few numbers of the study show the unsatisfactory outcome of oilseed production for employment generation [184]. For example, in Tamilnadu, Jatropha has considered less superior to other oilseeds (Prosopis) based on the availability of jobs per hectare [185]. However, field-based analysis shows that Jatropha has higher moisture content and a long growth period (about 3-4 years), making it less suitable for fuelwood [186]. Apart from the facts mentioned above, ‘biofuel-related land grab’[26] has become an integral part of Indian wasteland policy. Political ecologists were arguing- whether oilseed production was meant for wasteland reclamation, or it was only for Jatropha promotion [95,187].
Table A6 (Appendix F) represents India’s region-specific wasteland reclamation procedure, where afforestation and watershed developments seem to be quite well spread. Afforestation is a part of social forestry; At the same time, watershed development programs may not fully consider the development of wastelands, but it is for improving the overall ecology and economy in a demarcated area [188]. Within a boundary of a watershed, there might have different developmental approaches like agricultural development [189], soil moisture maintenance [190], and protection of land degradation [191]. Watershed development is a comprehensive approach [192] for the sustainable use of land and water [193], and more importantly, it is also associated with employment generation.

4.4. Wasteland Management in India: the Challenges and Recommendation

The diverserange of land-related national policies, multidimensional socio-cultural practices, and different geographical setups create barriers to converting wastelands into valuable resources in India. It is beyond doubt that wastelands represent a potential for national growth, and that the reclamation of wasteland may serve ‘something’ more than ‘nothing’ [31]. In other words, it is essential to recognize the ‘something,’ which means that we need to identify areas where wasteland can serve as a precious resource, and ‘nothing,’ which means we need to identify obstacles to wasteland reclamation at the national political level.
a)
Challenges of wasteland reclamation in India:
Based on our review of the literature and the studies done on wasteland in India, we have identified the following challenges of wasteland reclamation in India:
-
The historical influence of wasteland narrative: The historical notation of wasteland remains the same in present day India’s land-use policy as it did in previous historical periods. Likewise, in the Indian context, the colonial notation of and approach to wasteland is visible, as it is in other parts of the globe. For example, deserts were considered an obstacle for the early European-American settlers in the USA as they were devoid of production and human settlement. From the Native American viewpoint, deserts are not regarded as waste due to their ecological value [194]. The southwestern desert in America is often considered a wasteland which allows the demolition of such lands in a method of nuclear colonialism. As a result, the desert part of America has turned from a wasteland to a literal wasteland [195]. In the context of literal wasteland formation, in India the open natural ecosystem or sometimes the semi-arid ecosystem are tagged as degraded wasteland site in land use classification, without considering its ecosystem valuation. This array of different misclassification carried out through the historical colonial land use policy [196].
-
Policy inconsistency: After the commencement of NWDB in 1985, ecological importance of wasteland was prioritized, but before that, wastelands were only judged as valuable from an economic outlook. There was always a clash between ecological restoration and economic enhancement in wasteland reclamation policy. For example, wasteland reclamation through Eucalyptus plantations in the social forestry program can effectively achieve economic security. In most cases, Eucalyptus extracts groundwater from deep inside, and the soil becomes dry with low moisture content.
-
Lack of explicit wasteland development policy: Not all land reclamation policies fully consider wasteland development. For example, watershed management only considers wasteland reclamation individually. Rather it is for the overall development of a certain area. On the other hand, social forestry is regarded as one of the prime wasteland reclamation policies. Ideally, it is for protecting natural forests and sustaining local dependency on natural forest resources. Nevertheless, these policies may only be considered an optimum wasteland policy for some regions. For example, social forestry may not be applied in dryland areas due to water scarcity. Even as the Global Energy Network Institute shows, there are only a few specific regions in India (a few states of central and southern India) where the climatic and lithological structure is favorable for the growth of biofuel [197].
-
Regional inequalities: Unequal and improper capital investment can be regarded as the organizational cause of land degradation and wasteland formation. In India, less developed regions are experiencing low capital investment due to geographical constraints, climatic variability, and political instability, which results from the concentration of wasteland hotspots being restricted in some specific zones. Low regional affluence also creates the foundation for wasteland conversion.
-
Problem to identify wasteland: Different academic centers, research institutes, and government organizations identify it in multiple ways with their different methodologies. This sets out multiple notations of wasteland (ranging from degraded land to fallow), and based on that, the areal extension of wasteland varies in different registered documents.
-
Struggle between local farmers and state policies: The struggle between environment versus economic development often drives the land reclamation policy to the extent of disputes between the state government and the local community. Moreover, in a few parts of India, the wasteland reclamation policy has become land-grab-related disputes between local farmers and the state government [198]. This indicates how land-related policies are sometimes less comprehensive, making a particular community vulnerable.
-
Lack of comprehensive database: Multiple laws administrated by different government organizations at the central, state, and district levels; these include the ministries of Law and Justice, Rural Development, Mining, Industries, Infrastructure, Urban Development, Tribal Affairs, Home Affairs, and Defense. As which result, there is no comprehensive record available as it will become difficult to manage over a thousand original and active central and state land laws [199].and mismanagement is a predominant example in India that combines with different associated factors [200]. Sometimes the formation of wasteland is driven by socio-political factors rather than physical inputs [30]. Nevertheless, whether the wasteland is good or bad must not be ignored by us, as it is a product of nature, and if it is worse, it would still be preoccupied with the long-run environment and human relations [46].
b)
Necessity and recommendation to retrieve wasteland:
To achieve a stable man-land ratio in India, more lands must change status to fulfill the increasing demand for food [201]. In these circumstances converting wasteland to cropland is the best way to increase production and reduce pressure on current productive lands [201]. This scenario is common, and a common issue that needs addressing, not only in the global south but also in the developed world. In Britain, urban wastelands are considered a probable resource base to prevent unemployment [14]. India has a significant population (177 million) affected by wasteland formation, food crises, and unemployment [202]. The livelihood of about 1.5 billion rural peoples worldwide is currently associated with wastelands, which the rural commons use in diverse utilization [203]. In the Indian context, wastelands are always linked up with the economy and livelihood, which is taken up in land reclamation policies. In this regard, wasteland reclamation and land expansion to increase production become ideal solutions. Here, the crucial question is how much wasteland can be reclaimed, as all wastelands do not have the productive capacity. For instance, glacial areas and rocky outcrops are unsuitable for agricultural production. Therefore, critical assessments must be conducted to detect which wastelands are suitable for crop production. Now, a few land types are not directly suitable for production or economic generation. Despite that, they have a great ecological and environmental significance that needs to be separated from human intervention. For example, controlling desertification is necessary, but we must not expect food production and continuous modification of deserts to lead to environmental destruction in the long run. More importantly, it would be better to stretch our thought process to wastelands to tackle any recession in a country or region. Keeping this fact in mind, we would suggest a few essential recommendations for wasteland management, particularly concerning India and the global south:
  • Identifying wastelands per their characteristics is the primary task for effective land-use planning. Which leads to the separate identification of cultivable and uncultivable wastelands. Cultivable wastelands are the potential for plantation, so identifying the culturable wasteland and integrating it with the population cluster, regional climate, soil characteristics, and geology is the best way to analyze crop suitability.
  • Apart from the culturable wasteland, the unculturable wastelands can be utilized for other economic activities, excluding agriculture. Sometimes scenic beauty can be useful to convert a landscape into a tourist destination. For example, Kimberly’s “Big Hole,” which results from diamond mining (Mining Wasteland), has been developed into a famous tourist destination. Whereas Chornobyl (Ukraine) and Fukushima (Japan), both sites are experienced nuclear massacres, are now becoming world-class tourist attractions [204].
  • The Assessment of current farmland is necessary to understand the degree of degradation so that current farmland may protect from the degradation process.
  • Wasteland identification needs to have certain criteria to have a clear separation of wasteland and cropland. Incorporating geospatial techniques, a field-based study by soil scientists, an agro-economic survey by planners, and opinions from local commons directly linked up with lands are mandatory for long-term effective land utilization.
  • A participatory approach is the key for wasteland reclamation and long-term SLU in any region of India. The main reason participatory approaches are recognized as an integral part of resource management is the reliability of local commons on resources and their decision-making ability to conserve the localized resources.
  • Circular land utilization is another innovative way to reuse sustainable utilization of vacant and underutilized sites through infill measures. Circular land use aims to reuse derelict sites by prioritizing inner development over outer development. In parts of Western Europe, the circular utilization of wasteland through the stages of recycling-production-reuse is significant where the contaminated topsoil is distant, and subsoil reutilizes for economic activity [162]. However, the circular land utilization through wasteland reclamation is much more abundant in the global North than the global South because wastelands in the global South are significantly abundant in rural sets up, which are not the product of contamination.
Moreover, the landscape is an environmental entity whose spatial attributes are continuously modified [69], and under this alteration, something remains wasted when it becomes worthless or unused for the individual purpose. In this regard, the concept of wasteland relates to Thompson’s (1979) [205] ‘rubbish theory,’ which claims “objects move both into and out of the category of rubbish.” In contrast, the observation by Strasser (1992) [206] implies that an object no longer useful to someone may be desirable to others. Thus, wasteland is a land use with many unmatched attributes compared to other currently productive land-use types. However, if managed effectively, in the future, wasteland can also be productive in many ways using the dynamic manifestation of the complex interrelationship between humans and nature.

5. Conclusions

We identified a diverse focus range on wasteland in our review; the narrative has different expressions which oscillate depending on time and region. Nevertheless, across studies, it has been shown that wasteland reclamation is essential to maintain optimum land-man ratio, SLU, Poverty-hunger reduction, ecological balance, and overall regional prosperity. Imitation of land as waste without a holistic assessment brings a false narrative on unused grounds that assert unequal advantages among different social groups, where one section of people becomes a gainer, and another becomes the loser. Sometimes land is the switch from a small-scale farmer to a private enterprise. As a result, small-scale farmers migrate to the urban sector for jobs and become urban poor. About half of the world’s population still resides in the rural sector; in India, this percentage is about 65.97 (2018). Though there is a significant influx of rural populations in the urban sector through migration, the absolute number of the rural population is not drastically changing in India and other countries in Southeast Asia.
Moreover, the primary source of GDP has shifted from the agriculture sector to other sectors, but many populations still depend on natural resources. In addition, it is not always possible for the migrated rural population to be able to get jobs in urban centers as the capital investors are much more motivated by for-profit maximization instead of giving jobs to the migrated rural poor. In this circumstance, SLU is the best possible way to optimum livelihood security in the rural sector by utilizing unused lands. The question is whether wasteland reclamation needs to be allied with crop production or other approaches. The wasteland development approach depends on some of the specific parameters like- the type of wasteland, regional geo-climatic condition, and polity of a particular region. Nevertheless, any wasteland utilization will provide some height of economic or ecological output.
The vibrant and multidimensional outlook of wasteland needs to be assessing from the scientific criteria to consider a piece of land as waste. This also needs the assimilation of a number of aspects rather framing the waste narrative from a single attribute i.e., crop production. The different perspectives of wasteland i.e., agro-economy, political and biophysical, is being carried out through the argument “how far a land is being considered as waste”. In this regard the notion “waste” generates off-putting narrative without even discovering the potential utility of a piece of land from multiple angles. Hence to generate the spat less scientific criteria to consider a piece of land as waste, assimilation of economy to ecological aspect need to be drawn for integrated wasteland assessment. In this regard considering Indian scenario, multiple organizational definition of wasteland carried out the agricultural productivity as the prime criteria, which somehow seems to be argumentative. Although considering land-man ration with enormous population density, expecting and utilizing a land for production becomes an obvious scenario. Therefore the notion like cultivable wasteland can be rephrasing into prospective productive land, where as the uncultivable wasteland would be newly tagged as unproductive crop land. Now there are a number of subcategories of unproductive crop land/uncultivable wasteland which can be further mapped out to investigate from ecological, cultural and environmental aspects to apply innovative measure to make them potential to increase the GDP. In a single line the term wasteland is somehow the clash between the narrative i.e., wild/degraded/bare/unproductive versus the notion i.e., land with opportunities. Hence wasteland assessment needs to have a hypothetical outlook, which needs to be rectified through empirical observation in the practical field. It is still necessary to set out an academic argument and overview of wasteland dynamics across disciplines, which is the continuous process of reframing the vibrant nature of wasteland to use it effectively.

Author Contributions

Conceptualization, writing-original draft preparation: S.K.; writing-review, S.M, T.S.; structure and editing; S.M.; Supervision, L.S., T.S., S.M. All authors have read and agreed to the published version of the manuscript.

Acknowledgments

We would like to thankful to Prof. Pradip Sikdar(IISWBM-Kolkata) who provided some of his critical outlook on this manuscript during his initial checking. We are also like to show our gratitude to Dr. SanghamitraSarkar(Postdoctoral Fellow, University of Calcutta, India) and Mr. Jay Deep Sinha for the language correction on the earlier version of the manuscript.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. Decade-wise definitions with different perspectives/themes of wasteland in Indian and global context.
Table A1. Decade-wise definitions with different perspectives/themes of wasteland in Indian and global context.
Decades Definitions Perspectives References
(India)

References(Global)
1960 to 1969 Left out without being cultivated for some reasons Agro-economic [207] -
1970 to 1979 Not available Not available Not available -
 



1980 to 1989
Underutilized degraded land due to soil and water management Bio-Physical [11] -
Ecologically unstable with lack of tree and crop Bio-physical [208]
 
-
 
Degraded land with inherent or imposed disabilities Bio-Physical [209] -
Degraded lands that are currently underutilized Bio-Physical [52] [66]

1990 to 1999
Common property lands used by the rural poor for fuelwood and fodder gathering Property Rights [115] -
Underutilized degraded land that can be reclaimed through reasonable effort Bio-Physical [210] [64]
“Bad” and needed to be eliminated Political [87]
2000 to 2009 Miscellaneous land types that are presently not suitable for production Agro-economic [9] [80]
Common property lands property rights [113,114] -




2010 to present
Politically malleable term applied from fallow to agroforestry lands Political [45] 57
Degraded lands that are currently underutilized Bio-Physical [117] [67,68]
Wastelands are political constructions Political [56,57] [56]
Production of biomass is less than its optimum productivity Ecological and economic [211] [81,89]
Any lands which are not privately owned Property rights [86] -
Empty, unproductive spaces can be improved for economic and environmental aspects Agro-economic [10] [164]
Source: Prepared by the author.

Appendix B

Table A2. Organizational classification of wasteland Category and their area (in percentage).
Table A2. Organizational classification of wasteland Category and their area (in percentage).
Types of wastelands Subtypes Percentage (%) of area covered by each category
Gullied/Ravinous land Medium Ravine 0.20
Deep/Very deep Ravine 0.09
Scrubland (land with or without scrub) Land with dense scrub 2.25
Land with open scrub 3.03
Waterlogged and marshy land Permanent 0.05
Seasonal 0.16
Land affected by salinity/alkalinity Moderate 0.14
Strong 0.05
Shifting Cultivation Current Jhum 0.12
Abandoned Jhum 0.14
Scrub Forest (underutilized notified forest land) Scrub dominated 2.63
Agricultural land inside notified forest land 0.66
Degraded Pastures/grazing land - 0.20
Degraded land under plantation crops - 0.01
Sands (Coastal/desert/riverine) Sands- coastal sand 0.02
Sands- desert sands 0.25
Semi-stabilized to stabilized (> 40m) dune 0.28
Semi-stabilized to stabilized moderately high (15- 40m) dune 0.36
Sands – Riverine 0.09
Mining /Industrial Wasteland Mining Wasteland 0.07
Industrial Wasteland 0.01
Barren rocky area - 2.87
Snow cover and/or glacial area - 3.28
Total - 16.96
Source: [153].

Appendix C

Table A3. Classification of wasteland based on causative agents and potential uses.
Table A3. Classification of wasteland based on causative agents and potential uses.
Basis of wasteland category Main types of wastelands Subtypes of wasteland Nature and prospect
Based on causative agents Natural wasteland rocky out crop,
Natural wastelands are appeared physically where mostcases were water and wind erosion are the leading cause
gullied/ravinous land,
glaciated areas
sandy areas

Anthropogenic wasteland
Political wasteland Kind of disputed land where most of the cases there is a struggle between state policy and local community
Socio-cultural wasteland Another category of disputed wasteland where struggle is made between families or within a family
Wasteland due to economic activity (Industry, mining and Jhum cultivation) Occurs due to unsustainable man-environment relations which are potential for reuse.
Based on potential uses Culturable wasteland salt-affected land, Caused by naturally and Human induced factors still they can reuse through proper management
gullied /ravenous land,
water-logged or marshy land,
upland with or without scrub,
Jhum or forest blank and
sandy areas
Unculturable wasteland Barren hill, ridge, or rock outcrop Naturally produced which are not possible to use for production or economic activities.

snow covered areas
Source: Prepared by the author.

Appendix D

Table A4. Some of the selected wasteland reclamation measures in different countries across the Globe.
Table A4. Some of the selected wasteland reclamation measures in different countries across the Globe.
Country Site Approach Reclamation Process Organization References
Pakistan Indus basin Reclamation of salt affected Wasteland Land and water conservation through ground water treatment Provincial Irrigation Departments (PIDs) and Water and Power Development Authority (WAPDA) [212]
Quetta, Zhob, Killa part of Baluchistan Prevent watershed degradation Delay Action Dams (DAD) to recharge the ground water for maintaining ecological balance IUCN, 2008 [213]
Egypt Nile delta region

IWRM approach

 
Strengthening surface and ground water management with capacity building approach The World Bank Global Environmental Facility(GEF) Trust Fund initiated the project in 2011.

 
[51]
Jordon Zarqa river basin Range land restoration through ‘Al-Hima’ approach(traditional land management system in the Arab region) sustainable, collective use of land resources amongst relevant communities by protecting natural resources, rangelands, and forests With the assistance of IUCN and the Jordanian Ministry of Agriculture (MoA) since 2010 [214]
 
Ethiopia Gunung district (Areka) Maintaining soil fertility and prevent erosion African Highland Initiative (AHI) has developed methodologies and processes that could be useful for soil fertility management Awassa Research center, the Awassa College of Agriculture, CIAT and the International Livestock Research Institute (ILRI), 1997 [215]
Brazil Paraná III watershed (Itaipu dam) Rain fed intensification for the development of family farming Preventing top soil erosion through Contour bunds, with terraces in between, constructed across the slope From 2008 it was based on civil society’s participation in the farming settlements

Onwards 2015 it received the partial assistance from the United Nations Water for Life program
[216]
 
Indonesia Buru district, Maluku province and Malang in east Java in Indonesia
 
Indigenous approach to modify the fallow vegetations Producing fallow or secondary vegetation during the inter-cropping phase This intensive shifting cultivation system primarily carried out through the local aboriginal farmers

Onwards 2011, The International Development Research Center (IDRC-Canada) provide their support to intact this traditional approach
[217]

 
Philippines, Tinoc and I fugao in Philippines; The traditional “Banaue Rice Terrace” agro forestry system In such method rice is planted in terraces, whereas tree planted above the terraces which acts as a natural water supplier for the crop This is one of the oldest traditional farming strategy by I fugao farmers which exists for more than 2000 years [218]


 
Tanzania

 
Shinyanga and Arusha region Silvi-pastoral system Ngitiri: a successful traditional method of land rehabilitation in Shinyanga, the extensive ground cover of shrubs, grasses, herbs, and forbs also help prevent soil erosion With the collaboration of Tanzania Forest Services (TFS Agency) and
Sukuma agropastoral community from 2000 onwards
[219]
 
Burkina Faso Yatenga province Agro forestry Complex cropping system concentrating runoff water and manure in micro± watersheds Institut de Recherche pour le deâveloppement (IRD) [220]
Uganda Upper Nile, Victoria Watershed management Gully reclamation for productive purposes USCAPP (Uganda Soil Conservation and Agroforestry Pilot Project) in 1992 [221]
China
 
Shanxi Province Ecological restoration Vegetation establishment and ecosystem creation to optimize land productivity and soil fertility The Municipal Land Bureau, the Mining Group, and the Department of Land Expropriation from 1991–1995 [222]
Germany demolition sites in Berlin Industrial wasteland restoration Introduction of native grassland species(Steppe and Prairies) which has low maintenance cost This innovation was carried out with the effort by German Research Foundation [223]

 
England Industrial Contaminated sites in London and other cities Gentle Remediation Options (GRO) through Managing contaminated site restoration with ecological enhancement Removes the surface soils, store them carefully, and then replace them in their original sequence and then vegetation cover. Implemented by the Department of Environment, food and Rural Affairs in 2009 onwards [35,161]




 
Source: Based on available literature.

Appendix E

Table A5. Stage wise wasteland related policies in colonial and post-colonial period in India.
Table A5. Stage wise wasteland related policies in colonial and post-colonial period in India.
Stages Sub-stages Main programme and policies Specific features References
Colonial wasteland policies First half of 19th century (till 1920) Land revenue system

Land was regarded as an economic entity only
Forest, pastures, and grazing ground was regarded as waste [165]
Second half of 19thcentury (from 1920-1950) Deforestation to expand agricultural land Forest was no longer regarded as waste due to ship building industry in England 168]
Post-colonial wasteland policy First stage
(From 1950-1980)
Redistribution of land and tenancy reform Unproductive lands(wastelands) were mainly distributed among the poor [169]
Conservation of dry regions Improvement in dry and drought prone area through dry farming [199]
Formation of National Commission on Agriculture (NCA) Estimated total area of wasteland and initiate a centralized wasteland development programme [170]
Integrated watershed development programme in the catchment of flood Enhance productivity and tackle menace of floods [188]
First stage of social forestry Concept of productive forest where the main aim was to achieve ecology and economic sustenance [178]
Second stage
(1980-2000)
Formation of National wasteland development board Wasteland utilization through forestation and tree plantations to tackle the demand of fuel wood and fodder [172]
National Land Use and Conservation Board Introduction of desert and drought area development programme [95]
Integrated wasteland development programme Wasteland development mainly in non-forest areas [95]

National watershed development projects
For a comprehensive development with the integration of land and water [173]
Third stage
(From 2000 onwards)
Second stage of social forestry
 
Oilseed production to produce renewable energy and employment generation in wasteland dominated areas [176]
Formation of national rain fed area authority
 
Holistic development in rain fed area [199]
Integrated Water Resource Management (IWRM) and water security Rainwater harvesting, development of ground water and comprehensive land, water development. [224]
Source: Prepared by author.

Appendix F

Table A6. State and region-wise wasteland reclamation approaches in India.
Table A6. State and region-wise wasteland reclamation approaches in India.
State and region Approach Reclamation Process Organization References
Madhya Pradesh (Chambal Valley) Ravine Reclamation To restrict the progressive growth of ravines and utilize lands for productive purposes Central Ravine Reclamation Board in 1967 [225]
 
Andhra
Pradesh
Watershed Approach Microsite improvement is done by digging pits at spacing and of a size appropriate to the tree species International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) in 2007 [54]
Andhra
Pradesh
Bio-Diesel plantation Rehabilitate Common
Property Resources (CPRs) with Biodiesel Plantations (Jatrohpacurcas and Pongamiapinnata) Which is a Participatory Approach through the formation of Self-Help Group(SHG)
International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) in 2007 [54]
Rajasthan Fodder Grasses Plantations semi-arid systems, livestock is the mainstay of livelihoods for the survival, were common
grazing lands are used to support fodder requirements of the livestock population
ICRISAT and BAIF Institute of Rural Development [42]
Dehradun-Mussoorie (Limestone Mined
Areas in Shahastrdhara belt in the Himalayan region), Uttarakhand
Vegetation in Rehabilitation Sustain esthetic attractiveness and visual impact on ecology through the plantation. (Eulaliopsisbinata). Forest Research Institute and CSWCRTI, Dehradun and Eco task Force in 2001 [226]
Neyveliin,Tamilnadu Afforestation Ecological stability and aesthetic enhancement through the plantation Neyveli Lignite Corporation (Tamil Nadu), India from 1970 to 1986 [227]
Gujarat (wastelands in Mahi River stretch) Agroforestry System An indigenous Bamboo and Anjan grass (Cenchrusciliaris)-based silvo-pastoral system for enhancing the productivity of ravines Anand-based Foundation for Ecological Security (FES), Gujarat State Watershed Management Agency (GSWMA), Gujarat State Land Development Corporation (GSLDC), Forest, and Agricultural departments [228]
Kota, Rajasthan Fruit-Based Agroforestry Productive Utilization of Ravines Through Fruit-Based Agroforestry
 
CSWCRTI, Research Centre, Kota (2006 to 2011) [229]
Sukhomajri in Panchkula district, Haryana Watershed Development Programmers agricultural development and equitable distribution of irrigation water CSWCRTI, Research Centre Chandigarh & Hill Resource Management Society (HRMS) in 1980s [230]
lower and middle Himalayas in Tehri & Garhwal districts, Uttarakhand Watershed Management integrated watershed management project (IWMP) for soil and water conservation for Horticulture development and crop production Central Soil and Water Conservation Research and Training Institute, Dehradun during 1975–86 [231]
Andhra Pradesh Afforestation Carbon sequestration and wasteland treatment through Jatropha curcas International Crop Research Institute for the Semi-Arid Tropics (ICRISAT) from 2004 was to 2006 [232]
Satpura region, Madhya Pradesh Afforestation Reclamation of degraded wasteland through the plantation of medicinal plant Central Institute of Medicinal and Aromatic Plants (CIMAP), Lucknow and National Botanical Research Institute (NBRI) Lucknow in 1982 and 1989 [233]
Sodic lands of Sultanpur district, Uttar Pradesh Afforestation Rehabilitation of Sodic Soil Through Leguminous Trees Plantation Forest Soil and Land Reclamation Division, Forest Research Institute, Dehra Dun, 2002 [234]
Khurda Bhubaneswar, Odisha Reclamation of Salt affected Wasteland Biodrainage plantation of trees (Acacia Mangium, Casuarina Equisetifolia) ICAR-Indian Institute of Water Management, Bhubaneswar, 2011 [235]
 
Bundelkhand region (Uttar Pradesh, Madhya Pradesh) Rain fed and supplemental irrigation Single and double cropping: cereal, beans /mixed for market, complemented with dairy International Crop Research Institute for the Semi-Arid Tropics [236]
Source: Based on available literature.

References

  1. Edrisi, S.A.; Abhilash, P.C. Exploring marginal and degraded lands for biomass and bioenergy production: An Indian scenario. Renewable and Sustainable Energy Reviews. 2016, 54, 1537-1551. [CrossRef]
  2. Wiegmann, K.; Hennenberg, K.J.; Fritsche, U.R. Degraded land, and sustainable bioenergy feedstock production. In Joint international workshop on high nature value criteria and potential for sustainable use of degraded lands.2008.
  3. Chakraborty, G. Roots and Ramifications of a Colonial construct: The Wastelands in Assam. Institute of Development Studies. 2012.
  4. Maantay, J. A. The collapse of place: Derelict land, deprivation, and health inequality in Glasgow, Scotland. Cities and the EnvironmentCATE. 2013, 1, 10.
  5. Dickinson, N. M.; Hartley, W.; Louise A.; Uffindell, A. N.; Rawlinson, P. H.; Putwain, P. Robust biological descriptors of soil health for use in reclamation of brownfield land. Land Contamination & Reclamation. 2005, 4, 317-326.
  6. Bhattacharyya, R.; Ghosh, B. N.; Mishra, P. K.; Mandal, B.; Rao, C.S.; Sarkar, D.; Das, K.; Anil, K. S.; Lalitha, M.; Hati, K. M.; Franzluebbers, A. J. Soil degradation in India: Challenges and potential solutions. Sustainability. 2015, 4, 3528-3570. [CrossRef]
  7. Hoover, D. L.; Bestelmeyer, B.; Grimm, N. B.; Huxman, T. E.; Reed, S. C.; Sala, Osvaldo.; T. R. Seastedt.; Wilmer, H.; Ferrenberg, S. Traversing the Wasteland: A Framework for Assessing Ecological Threats to Drylands. BioScience. 2020, 1, 35-47. [CrossRef]
  8. Kushwaha, S.; Sinha, D.K.; Ahmad, N. Dynamics of land degradation in Uttar Pradesh: Zone-wise analysis. Indian Journal of Economics and Development. 2020, 16(2), 221-228. [CrossRef]
  9. Deka, S. Evaluation and management of wastelands in Kamrup district of Assam. 2003.
  10. Baka, J.; Bailis, R. Wasteland energy-scapes: A comparative energy flow analysis of India’s biofuel and biomass economies. Ecological economics. 2014, 108, 8-17. [CrossRef]
  11. National Wasteland Development Board (NWDB).Description, Classification, Identification, and Mapping of Wastelands. New Delhi: Government of India. 1987.
  12. Alam, M. A. Regional planning and the waste land development in India: An overview. Asia-Pacific Journal of Social Sciences. 2013, 1, 152.
  13. Mehmood, M. A.; Ibrahim, M.; Rashid, U.; Nawaz, M.; Ali, S.; Hussain, A.; Gull, M. Biomass production for bioenergy using marginal lands. Sustainable Production and Consumption. 2017, 3-21. [CrossRef]
  14. Mathey, J.; Rößler, S.; Banse, J.; Lehmann, I.; Bräuer, A. Brownfields as an element of green infrastructure for implementing ecosystem services into urban areas. Journal of Urban Planning and Development. 2015, 3. [CrossRef]
  15. Kuzman, B.; Prodanović, R. Land Management in Modern Farm Production.2017.
  16. Boamah, E.F.; Walker, M. Legal pluralism, land tenure and the production of “nomotropic urban spaces” in post-colonial Accra, Ghana. Geography Research Forum. 2016, 36, 86-109.
  17. Alary, V.; Aboul-Naga, A.; Osman, M.A.; Daoud, I.; Abdelraheem, S.; Salah, E.; Juanes, X.; Bonnet, P. Desert land reclamation programs and family land dynamics in the Western Desert of the Nile Delta (Egypt), 1960–2010. World Development, 2018, 104,140-153. [CrossRef]
  18. Shahid, S.A.; Al-Shankiti, A. Sustainable food production in marginal lands—Case of GDLA member countries. International soil and water conservation research. 2013, 1(1), 24-38. [CrossRef]
  19. Bhunia, G.S.; Shit, P.K.; Pal, D.K.; Guinea, P.N. Coastal Wasteland Identification and Mapping Using Satellite Data. Melanesian Journal of Geomatics and Property Studies. 2017, 3, 11-21.
  20. Venkanna, R.; Appalanaidu, K.; Tatababu, C.; Murty, M. Geospatial Analysis for Identification and Mapping of Wasteland Change In Sri PottiSriramulu Nellore District, Andhra Pradesh. Journal of Global Ecology and Environment. 2021, 12(3), 53-62.
  21. Narayan, L. R.A.; Rao, D.P.; Gautam, N.C. Wasteland identification in India using satellite remote sensing. Remote Sensing,1989, 10(1), 93-106. [CrossRef]
  22. Wankhade, S.G.; Nandanwar, S.B.; Sarode, R.B.; Shendre, N.M.; Autkar, A.V. Evaluation of Suitability of Medicinal Trees for Wasteland Management. Evaluation of different grain sorghum genotypes for stability and genotypes x environment. 2012, 36(2), 61.
  23. Balasubramani, K. Physical resources assessment in a semi-arid watershed: An integrated methodology for sustainable land use planning. ISPRS Journal of Photogrammetry and Remote Sensing. 2018, 142, 358-379. [CrossRef]
  24. Warwade, P.; Hardaha, M.K.; Kumar, D.; Chandniha, S.K. Estimation of soil erosion and crop suitability for a watershed through remote sensing and GIS approach. Indian Journal of Agricultural Sciences.2014, 84(1), 18-23. [CrossRef]
  25. Acharya, P.; Biradar, C.; Louhaichi, M.; Ghosh, S.; Hassan, S.; Moyo, H.; Sarker, A. Finding a Suitable Niche for Cultivating Cactus Pear (Opuntia ficus-indica) as an Integrated Crop in Resilient Dryland Agroecosystems of India. Sustainability, 2019, 11(21). [CrossRef]
  26. Baka, J. The political construction of wasteland: Governmentality, land acquisition and social inequality in South India. Development and Change. 2013, 2, 409-428. [CrossRef]
  27. Scoones, I.; Hall, R.; Borras, Jr, S.M.; White, B.; Wolford, W.; The politics of evidence: Methodologies for understanding the global land rush. 2013. [CrossRef]
  28. Wondimu T, Gebresenbet F. Resourcing land, dynamics of exclusion and conflict in the Maji area, Ethiopia. Conflict, Security & Development. 2018, 6, 547-570. [CrossRef]
  29. Mahato, N.K. Deforestation, ecological deterioration and scientific forestry in Purulia, 1890s–1960s. History of Science, Technology, Environment, and Medicine in India. Routledge. 2021, 214-232.
  30. Menon, A. Colonial constructions ofagrarian fields and forests in the Kolli Hills. The Indian Economic & Social History Review.2004, 3, 315-337.
  31. Whitehead, J. Development and dispossession in the Narmada Valley. Pearson Education India. 2010.
  32. Hall, C.M. The ecological and environmental significance of urban wastelands and dross capes. Organising. Waste in the city. 2013, 21-40.
  33. Gill, V. Waste land or brownfield sites are vital for wildlife, BBC Nature. 2012. www.bbc.co.uk/nature/18513022 (accessed on 13 January 17, 2022).
  34. Muratet, A.; Machon, N.; Jiguet, F.; Moret, J.; Porcher, E. The role of urban structures in the distribution of wasteland flora in the greater Paris area, France. Ecosystems. 2007, 4, 661-671. [CrossRef]
  35. Bradshaw, A. D. Wasteland management and restoration in Western Europe. Journal of Applied Ecology. 1989 775-786. [CrossRef]
  36. Patel, B.; Patel, A.; Syed, B.A.; Gami, B.; Patel, P. Assessing economic feasibility of bio-energy feedstock cultivation on marginal lands. Biomass and Bioenergy. 2021, 154. [CrossRef]
  37. Prasath, C. H.; Balasubramanian, A.; Prasanthrajan, M.; Radhakrishnan, S. Performance evaluation of different tree species for carbon sequestration under wasteland condition. International Journal of Forestry and Crop Improvement. 2016, 1, 7-13. [CrossRef]
  38. Laprise, M.; Lufkin, S.; Rey, E. An indicator system for the assessment of sustainability integrated into the project dynamics of regeneration of disused urban areas. Building and Environment. 2015, 29-38. [CrossRef]
  39. Sharma, D. K.; Singh, A. Salinity research in India-achievements, challenges and future prospects. 2015.
  40. Francis, G.; Raphael, E.; Becker, K. A concept for simultaneous wasteland reclamation, fuel production, and socio-economic development in degraded areas in India: Need, potential and perspectives of Jatropha plantations. Natural resources forum. 2005, 29, 12-24. [CrossRef]
  41. Ravindranath, N. H.; Lakshmi, C. S.; Manuvie, R.; Balachandra, P. Biofuel production and implications for land use, food production and environment in India. Energy Policy. 2011, 39,737-5745. [CrossRef]
  42. Dixit, A.K.; Singh, M.K.; Reddy, B.S.; Manohar, N.S. Potential of wastelands for mixed farming system in India. Range Management and Agroforestry. 2012, 2, 118-122.
  43. Nalepa, R.A. Land for Agricultural Development in the era of Land Grabbing: A Spatial Exploration of the Marginal Lands Narrative in Contemporary Ethiopia. 2013.
  44. Di Palma, V. Wasteland: A history. Yale University Press, 2014.
  45. Ariza-Montobbio, P.; Lele, S. Jatropha plantations for biodiesel in Tamil Nadu, India: Viability, livelihood trade-offs, and latent conflict. Ecological Economics. 2010, 2, 189-195. [CrossRef]
  46. Farley, P.; Roberts, M.S. Edgelands: Journeys into England’s true wilderness. Random House. 2012.
  47. Kang, S.; Post, W.M.; Nichols, J.A.; Wang, D.; West, T.O.; Bandaru, V.; Izaurralde, R.C. Marginal lands: Concept, assessment and management. Journal of Agricultural Science. 2013, 5, 129. [CrossRef]
  48. Fang, X.; Tian, D.L.; Xie, R. X. Soil physical and chemical properties of the wasteland in Xiangtan manganese mine. Acta EcologicaSinica. 2006, 5, 1494-1501.
  49. Lal, R. Soil erosion by wind and water: Problems and prospects. Soil erosion research methods, Routledge. 2017, 1-10.
  50. Walsh, D.; Bendel, N.; Jones, R.; Hanlon, P. It’s not ‘just deprivation’: Why do equally deprived UK cities experience different health outcomes? Public health. 2010, 9, 487-95. [CrossRef]
  51. Stevens, M. L. HIMA Mesopotamia: Community Generated Conservation in the Tigris Euphrates Watershed. International Workshop: Towards an Implementation Strategy for the Human Integrated Management Approach Governance System. 2013, 220.
  52. NRSC. Wastelands Atlas of India. National Remote Sensing Centre, Hyderabad. 2010, 140.
  53. Li, M.S., 2006. Ecological restoration of mine land with particular reference to the metalliferous mine wasteland in China: A review of research and practice. Science of the total environment, 357(1-3), pp.38-53. [CrossRef]
  54. Sreedevi, T.K.; Wani, S.P.; Osman, M.; Tiwari, S. Rehabilitation of degraded lands in watersheds. 2009, 205-220.
  55. Gaur, M.K.; Goyal, R.K.; Kalappurakkal, S.; Pandey, C.B. Common property resources in drylands of India. International Journal of Sustainable Development & World Ecology, 2018, 25(6), 491-499. [CrossRef]
  56. Borras, Jr. S. M.; Hall, R, Scoones, I.; White, B.; Wolford, W. Towards a better understanding of global land grabbing: An editorial introduction. The Journal of Peasant Studies. 2011, 2, 209-216. [CrossRef]
  57. Franco, J.; Levidow, L.; Fig, D.; Goldfarb, L.; Hoenicke, M.; Luisa, M. M. Assumptions in the European Union biofuels policy: Frictions with experiences in Germany, Brazil and Mozambique. The Journal of Peasant Studies. 2010, 37, 661-698. [CrossRef]
  58. Johnson, P. Unravelling Foucault’s different spaces. History of the human sciences. 2006, 4, 75-90. [CrossRef]
  59. Doron, G. M. The dead zone and the architecture of transgression. City. 2000, 2, 247-263. [CrossRef]
  60. Hough, M. Principles for regional design. The urban design reader. Routledge. 2013, 545-553. [CrossRef]
  61. Haid, C. Landscapes of wilderness – Heterotopias of the post-industrial city, paper presented at Framing the City, Royal Northern College of Music. 2011.
  62. Ramson, W. Wasteland to wilderness: Changing perceptions of the environment. The humanities and the Australian environment. 1991, 5-20.
  63. Hall, C. M. The worthless lands hypothesis and Australia’s national parks and reserves. Australia’s ever-changing forests. Australian Defense Force Academy, Canberra, Australia. 1988, 441-459.
  64. Hall, C. M. Wasteland to World Heritage. Melbourne University Press, 1992.
  65. Haase, D. Urban ecology of shrinking cities: An unrecognized opportunity? Nature and Culture. 2008, 1, 1-8. [CrossRef]
  66. Nabarro, R. The General Problem of Urban Wasteland. Built Environment. 1980, 3, 159.
  67. Fairburn, J.; Walker, G.; Smith, G. Investigating environmental justice in Scotland: Links between measures of environmental quality and social deprivation. 2005.
  68. Pagano, M.A.; Bowman, A. O. Vacant land in cities: An urban resource. Washington, DC: Brookings Institution, Center on Urban and Metropolitan Policy. 2000, 1-9.
  69. Furlan, C. Unfolding Wasteland. Mapping Landscapes in Transformation: Multidisciplinary Methods for Historical Analysis. 2019, 131. [CrossRef]
  70. Scottish Government Vacant and Derelict Land Survey. Statistical Bulletin Planning Series. Edinburgh: A National Statistics Publication for Scotland. 2012.
  71. Bambra, C.; Robertson, S.; Kasim, A.; Smith, J.; Cairns-Nagi, J.M.; Copeland, A.; Finlay, N.; Johnson, K. Healthy land? An examination of the area-level association between brownfield land and morbidity and mortality in England. Environment and Planning A. 2014, 2, 433-454. [CrossRef]
  72. Grimski, D.; Ferber, U. Urban brownfields in Europe. Land Contamination and Reclamation. 2001, 1, 143-148.
  73. Gray, L. Comparisons of health-related behaviours and health measures in Greater Glasgow with other regional areas in Europe. Glasgow: Glasgow Centre for Population Health. 2008.
  74. Franz, M.; Pahlen, G.; Nathanail, P.; Okuniek, N.; Koj, A. Sustainable development and brownfield regeneration. What defines the quality of derelict land recycling? Environmental Sciences. 2006, 2, 135-151. [CrossRef]
  75. Brender, J. D.; Maantay, J. A.; Chakraborty, J. Residential proximity to environmental hazards and adverse health outcomes. American journal of public health. 2011, 37-52. [CrossRef]
  76. Neumann, C. M.; Forman, D.L.; Rothlein, J. E. Hazard screening of chemical releases and environmental equity analysis of populations proximate to toxic release inventory facilities in Oregon. Environmental Health Perspectives. 1998, 4, 217-226. [CrossRef]
  77. Greenberg, M.; Lee, C.; Powers, C. Public health and brownfields: Reviving the past to protect the future. American Journal of Public Health. 1998, 12, 1759-1760. [CrossRef]
  78. Redecker, A. P. Historical aerial photographs and digital photogrammetry for impact analyses on derelict land sites in human settlement areas. Int. Arch. Photogramm. Remote Sens. Spat. Inf. Sci. 2008, 5-10.
  79. Ramakrishna, W.; Rathore, P.; Kumari, R.; Yadav, R. Brown gold of marginal soil: Plant growth promoting bacteria to overcome plant abiotic stress for agriculture, biofuels and carbon sequestration. Science of the Total Environment. 2020, 711. [CrossRef]
  80. Suntana, A.S.; Vogt, K.A.; Turnblom, E.C.; Upadhye, R. Bio-methanol potential in Indonesia: Forest biomass as a source of bioenergy that reduces carbon emissions. Applied energy. 2009, 215-221. [CrossRef]
  81. Ayambire, R.A.; Amponsah, O.; Peprah, C.; Takyi, S.A. A review of practices for sustaining urban and peri-urban agriculture: Implications for land use planning in rapidly urbanising Ghanaian cities. Land Use Policy. 2019, 84, 260-277. [CrossRef]
  82. Hought, J.; Birch-Thomsen, T.; Petersen, J.; de, Neergaard.; A, Oelofse, M. Biofuels, land use change and smallholder livelihoods. A case study from Banteay Chhmar, Cambodia. Applied Geography. 2012, 525-532. [CrossRef]
  83. Portner, B. Frames in the Ethiopian debate on biofuels. Africa Spectrum. 2013, 48(3), 33-53. [CrossRef]
  84. Skaria, A. Shades of wildness tribe, caste, and gender in western India. Journal of Asian Studies. 1997, 726-745. [CrossRef]
  85. Bridge, G. Resource triumphalism: Postindustrial narratives of primary commodity production. Environment and Planning A. 2001, 12, 2149-2173. [CrossRef]
  86. Locke, J. [1680]) Second Treatise of Government. Hollywood: Simon and Brown Mol A P J and Sonnenfeld D A (eds) (2000) Ecological Modernisation Around the World: Perspectives and Critical Debates. New York: Frank Cass. 2011.
  87. Gidwani, V. K. Wasteland the Permanent Settlement in Bengal. Economic and Political Weekly. 1992, 39-46.
  88. Lin, H.; Zhu, Y.; Ahmad, N.; Han, Q. A scientometric analysis and visualization of global research on brownfields. Environmental Science and Pollution Research, 2019, 26(17), 17666-17684. [CrossRef]
  89. Majumdar, M. and Sen, J. A Spatio-temporal Assessment of Brownfield Transformation in a Metropolis: Case of Kolkata India. 2018. [CrossRef]
  90. Bromley, D.W. Formalising property relations in the developing world: The wrong prescription for the wrong malady. Land use policy. 2009, 1, 20-27. [CrossRef]
  91. Atapattu, S. S.; Kodituwakku, C. D.; Agriculture in South Asia and its implications on downstream health and sustainability: A review. Agricultural Water Management. 2009, 3, 361-373. [CrossRef]
  92. Gexsi, L.L.P. Global market study on Jatropha. Final Report Prepared for the Worldwide Fund for Nature (WWF), London, Berlin. 2008.
  93. Lama, A.D., Klemola, T., Saloniemi, I., Niemelä, P., Vuorisalo, T. Factors affecting genetic and seed yield variability of Jatropha curcas (L.) across the globe: A review. Energy for Sustainable Development. 2018, 42, 170-182. [CrossRef]
  94. Mitchell, D. A note on rising food prices. World Bank policy research working paper. 2008, 4682.
  95. Baka, J. Making space for energy: Wasteland development, enclosures, and energy dispossessions. Antipode. 2017, 4, 977-996. [CrossRef]
  96. Naybor, D. Land as fictitious commodity: The continuing evolution of women’s land rights in Uganda. Gender, Place & Culture. 2015, 6, 884-900. [CrossRef]
  97. Zerga, B. Land Resource, Uses, and Ownership in Ethiopia: Past, Present and Future. International Journal of Scientific Research Engineering Technology. 2016, 1.
  98. Wu, J. The Oxford handbook of land economics. Oxford University Press. 2014.
  99. Cervero, R. Linking urban transport and land use in developing countries. Journal of Transport and Land Use. 2013, 1, 7-24. [CrossRef]
  100. Gerber, N.; Nkonya, E.; von, B. J. Land degradation, poverty and marginality. Marginality, Springer, Dordrecht. 2014, 181-202.
  101. Zhu, H. Underlying motivation for land use change: A case study on the variation of agricultural factor productivity in Xinjiang, China. Journal of Geographical Sciences. 2013, 1041-1051. [CrossRef]
  102. Gibbs, H.K.; Ruesch, A.S.; Achard, F.; Clayton, M.K.; Holmgren, P.; Ramankutty, N.; Foley, J.A.; Tropical forests were the primary sources of new agricultural land in the 1980s and 1990s. Proceedings of the National Academy of Sciences. 2010, 38, 16732-16737. [CrossRef]
  103. Whitt, L. A.; Roberts, M.; Norman, W.; Grieves, V.; Belonging to land: Indigenous knowledge systems and the natural world. Okla. City UL Rev. 2001, 26, 701.
  104. Kim, J.; Mahoney, J. T. Property rights theory, transaction costs theory, and agency theory: An organizational economics approach to strategic management. Managerial and decision economics. 2005, 4, 223-242. [CrossRef]
  105. Zhu, J. From land use right to land development right: Institutional change in China’s urban development. Urban Studies. 2004, 7, 1249-1267. [CrossRef]
  106. Albertus, M.; Diaz-Cayeros, A; Magaloni, B.; Weingast, B.R. Authoritarian survival and poverty traps: Land reform in Mexico. World Development. 2016, 77, 154-170. [CrossRef]
  107. Broegaard, R.J. Land tenure insecurity and inequality in Nicaragua. Development and Change. 2005, 5, 845-864. [CrossRef]
  108. Sklenicka, P. Classification of farmland ownership fragmentation as a cause of land degradation: A review on typology, consequences, and remedies. Land use policy. 2016, 57, 694-701. [CrossRef]
  109. Assefa, E.; Hans-Rudolf, B. Farmers’ perception of land degradation and traditional knowledge in Southern Ethiopia—Resilience and stability. Land Degradation & Development. 2016, 6, 1552-1561. [CrossRef]
  110. Magnan, A. The financialization of agri-food in Canada and Australia: Corporate farmland and farm ownership in the grains and oilseed sector. Journal of Rural Studies. 2015, 41, 1-12. [CrossRef]
  111. Gebremedhin, B.; Swinton, S. M. Investment in soil conservation in northern Ethiopia: The role of land tenure security and public programs. Agricultural economics. 2003, 1, 69-84. [CrossRef]
  112. Arora, P.; Bert, F.; Podesta, G.; Krantz, D.H. Ownership effect in the wild: Influence of land ownership on agribusiness goals and decisions in the Argentine Pampas. Journal of Behavioral and Experimental Economics. 2015, 1, 162-170. [CrossRef]
  113. Kadekodi, G. K. Common property resource management: Reflections on Theory and the Indian Experience. Oxford University Press. 2004.
  114. Chopra, K. Wastelands and common property land resources.” In seminar-new Delhi-Malyika Singh. 2001, 24-31.
  115. Ostrom, E. Governing the commons: The evolution of institutions for collective action. Cambridge university press, 1990.
  116. Thomaz, E.L.; Luiz, J.C. Soil loss, soil degradation and rehabilitation in a degraded land area in Guarapuava (Brazil). Land Degradation & Development. 2012, 1, 72-81. [CrossRef]
  117. Harms, E.; Baird, I.G. Wastelands, degraded lands and forests, and the class (ification) struggle: Three critical perspectives from mainland Southeast Asia. Singapore Journal of Tropical Geography. 2014, 35(3), 289-294. [CrossRef]
  118. Pederson, D.T. Stream piracy revisited: A groundwater-sapping solution. GSA TODAY. 2001, 9, 4-11. [CrossRef]
  119. Flowers, R.M.; Wernicke, B.P.; Farley, K.A. Unroofing, incision, and uplift history of the southwestern Colorado Plateau from apatite (U-Th)/He thermochronometry. Geological Society of America Bulletin. 2008, 5-6, 571-587. [CrossRef]
  120. Van Leeuwen, W. J. D.; Sammons, G. Seasonal land degradation risk assessment for Arizona. Proceedings of the 30th international symposium on remote sensing of environment. 2003, 10-14.
  121. Powell, R. B.; Kellert, S.R.; Ham, S.H. Interactional theory and the sustainable nature-based tourism experience. Society and Natural Resources. 2009, 8, 761-776. [CrossRef]
  122. Shit, P.K.; Paira, R.; Bhunia, G.; Maiti, R. Modeling of potential gully erosion hazard using geo-spatial technology at Garbheta block, West Bengal in India. Modeling Earth Systems and Environment. 2015, 1-2, 2. [CrossRef]
  123. Ghosh, S.; Guchhait, S. K. Geomorphic threshold estimation for gully erosion in the lateritic soil of Birbhum, West Bengal, India. Soil Discussions. 2016, 1-29. [CrossRef]
  124. Das, M.; Roy, P.B. Identifying tourism potential of Gangani, India; a swot-ahp approach. Asean: The power of one. 2015, 131.
  125. Manjunatha, A.V.; Anik, A.R.; Speelman, S.; Nuppenau, E.A. Impact of land fragmentation, farm size, land ownership and crop diversity on profit and efficiency of irrigated farms in India. Land use policy. 2013, 31, 397-405. [CrossRef]
  126. Venkateswarlu A. Pattern of land distribution and tenancy in rural Andhra Pradesh. Centre for Economic and Social Studies; 2003.
  127. Korovkin, T. Creating a Social Wasteland? Non-traditional Agricultural Exports and Rural Poverty in Ecuador. European Review of Latin American and Caribbean Studies,2005, 79, 47-67. [CrossRef]
  128. Brockett, C.D. Land, power, and poverty: Agrarian transformation and political conflict in Central America. Routledge.2019.
  129. Choi, J.J. Political Cleavages in South Korea. In State and society in contemporary Cornell University Press, Korea. 2018, 13-50.
  130. Sauer, S.; Mészáros, G. The political economy of land struggle in Brazil under Workers’ Party governments. Journal of Agrarian Change. 2017, 2, 397-414. [CrossRef]
  131. Li, T.M. Centering labor in the land grab debate. The Journal of Peasant Studies. 2011, 2, 281-298. [CrossRef]
  132. Li, T.M. What is land? Assembling a resource for global investment. Transactions of the Institute of British Geographers. 2014, 39(4), 589-602. [CrossRef]
  133. Deininger, K.; Byerlee, D. Rising global interest in farmland: Can it yield sustainable and equitable benefits? The World Bank. 2011.
  134. Wolford, W.; Borras, Jr. S. M.; Hall, R.; Scoones, I.; White, B. Governing global land deals: The role of the state in the rush for land. Development and change. 2013, 2, 89-210. [CrossRef]
  135. Baka, J. What wastelands? A critique of biofuel policy discourse in South India. Geoforum. 2014, 315-323. [CrossRef]
  136. Fritz, S.; See, L.; Van Der Velde, M.; Nalepa, R. A.; Perger, C.; Schill, C.; McCallum, I.; Schepaschenko, D.; Kraxner, F.; Cai, X.; Zhang, X. Downgrading recent estimates of land available for biofuel production. Environmental science & technology. 2013, 3, 1688-1694. [CrossRef]
  137. Jasani, N.; Sen, A. Asian food and rural income. Credit Suisse. Asia Pacific Equity Research Macro/Multi Industry. 2008.
  138. Giampietro, M.; Mayumi, K. The biofuel delusion: The fallacy of large scale agro-biofuels production. Routledge. 2009.
  139. Ganguli, S.; Somani, A.; Motkuri, R.K.; Bloyd, C.N. India alternative fuel infrastructure: The potential for second-generation biofuel technology (No. PNNL-28283). Pacific Northwest National Lab. (PNNL), Richland, WA (United States). 2018.
  140. Hunsberger, C.; German, L.; Goetz, A. “Unbundling” the biofuel promise: Querying the ability of liquid biofuels to deliver on socio-economic policy expectations. Energy Policy. 2017,108, 791-805. [CrossRef]
  141. Palanisami, K.; R. Venkatram. Thiruvannamalai – District Agricultural Plan. Centre for Agricultural and Rural Development Studies (CARDS), Tamil Nadu Agricultural University. 2008.
  142. Mookiah, S.; Kumar, S. Problems and Prospects of Unorganized Workers in Tamilnadu. 2018.
  143. Grajales, J. State involvement, land grabbing and counterinsurgency in Colombia. Development and Change. 2013, 2, 211-232. [CrossRef]
  144. Wolford, W. Environmental Justice and the Construction of Scale in Brazilian Agriculture. Society & Natural Resources. 2008,7, 641–55. [CrossRef]
  145. Makki, F.; Geisler, C. Development by dispossession: Land grabbing as new enclosures in contemporary Ethiopia. International Conference on global land grabbing, Future Agricultures Sussex, UK. 2011.
  146. Baletti, B. Saving the Amazon? Land Grabs and sustainable soy as the new logic of conservation. International. Conference of Global Land Grabbing. 2011.
  147. Burnod, P.; Gingembre, M. A. R. Competition over authority and access: International land deals in Madagascar. Development and change. 2013, 2, 357-37. [CrossRef]
  148. Grajales, J. A land full of opportunities? Agrarian frontiers, policy narratives and the political economy of peace in Colombia. Third World Quarterly. 2020, 1-20. [CrossRef]
  149. Bryant, R. L. Political ecology: A critical agenda for change. Social nature: Theory, practice and politics. 2001, 151-169.
  150. National Remote Sensing Agency Department of Space. Mapping of Wastelands in India from Satellite Images. Project report (Hyderabad Government of India). 1985.
  151. Indian Council of Agriculture Research (ICAR). Technologies for wasteland development, Degraded Soils-Their Mapping through Soil Surveys, New Delhi. 1987, 1-17.
  152. NRSA. Wastelands Atlas of India. National Remote Sensing Agency, Hyderabad. 2000, 81.
  153. NRSA. Category wise wasteland classes during 2015-2016. Wasteland Atlas of India. National Remote Sensing Agency, Hyderabad. 2019.
  154. van Duppen, J.L.C.M. The Cuvrybrache as Free Place-The diverse meanings of a wasteland in Berlin (Master’s thesis). 2010.
  155. Das, R. The Politics of Land, Consent, and Negotiation: Revisiting the Development-Displacement Narratives from Singur in West Bengal. South Asia Multidisciplinary Academic Journal. 2016,13. [CrossRef]
  156. Pal, M. Organization at the margins: Subaltern resistance of Singur. Human Relations. 2016, 69(2), 419-438. [CrossRef]
  157. Olaniya, M.; Bora, P.K.; Das, S.; Chanu, P.H. Soil erodibility indices under different land uses in Ri-Bhoi district of Meghalaya (India). Scientific Reports, 2020, 10(1), 1-13. [CrossRef]
  158. Islam, M.A.; Quli, S.M.S.; Mushtaq, T. Wasteland reclamation strategy for household timber security of tribes in Jharkhand, India. Journal of Applied and Natural Science. 2017, 9(4), 2264-2271. [CrossRef]
  159. Doust, S.J.; Erskine, P.D.; Lamb, D. Direct seeding to restore rainforest species: Microsite effects on the early establishment and growth of rainforest tree seedlings on degraded land in the wet tropics of Australia. Forest Ecology and Management. 2006, 1-3, 333-343. [CrossRef]
  160. Chirwa, P.W.; Larwanou, M.; Syampungani, S.; Babalola, F.D. Management and restoration practices in degraded landscapes of Eastern Africa and requirements for up-scaling. International Forestry Review. 2015, 3, 20-30. [CrossRef]
  161. Chowdhury, S. An Assessment of the Potential for Bio-based Land Uses on Urban Brownfields (Doctoral dissertation, Department of Architecture and Civil Engineering, Chalmers University of Technology. 2020.
  162. Pahlen, G.; Glöckner, S. Sustainable regeneration of European brownfield sites. WIT Transactions on Ecology and the Environment. 2004.
  163. Nathanail, C.P.; Sustainable brownfield regeneration. Dealing with Contaminated Sites. Springer, Dordrecht. 2011, 1079-1104.
  164. Spadaro, P.; Rosenthal, L. River and harbor remediation: “polluter pays,” alternative finance, and the promise of a “circular economy”. Journal of Soils and Sediments, 2020, 20(12), 4238-4247. [CrossRef]
  165. Chaturvedi, V. Peasant pasts: History and memory in western India. University of California Press. 2007.
  166. Guha, R. The unquiet woods: Ecological change and peasant resistance in the Himalaya. University of California Press; 2000. [CrossRef]
  167. Tully, J. An approach to political philosophy: Locke in contexts. Cambridge University Press, 1993.
  168. Iqbal, I. Governing the Wasteland Ecology and Shifting Political Subjectivities in Colonial Bengal. RCC Perspectives. 2014, 3, 39-44. [CrossRef]
  169. Deshpande, R.S.; Bhende, M.J. Land Resources and Policy in Karnataka. Institute for Social and Economic Change. 2013,132.
  170. Hazra, A. Land reforms: Myths and realities. Concept Publishing Company. 2006.
  171. Besley, T.; Leight, J.; Pande, R.; Rao, V. Long-run impacts of land regulation: Evidence from tenancy reform in India. Journal of Development Economics. 2016,118, 72-87. [CrossRef]
  172. Reddy, B. N.; Suresh, G. Crop diversification with oilseed crops for-maximizing productivity, profitability and resource conservation. Indian Journal of Agronomy. 2009, 2, 206-214. [CrossRef]
  173. Manivannan, S.; Khola, O.P.; Kannan, K.; Hombegowda, H.C.; Singh, D.V.; Sundarambal, P.; Thilagam, V.K. Comprehensive impact assessment of watershed development projects in lower Bhavani catchments of Tamil Nadu. Journal of Soil and Water Conservation. 2021, 1, 66-73. [CrossRef]
  174. Mathur, K.; Jayal, N.G. Drought management in India: The long-term perspective. Disasters. 1992, 16(1), 60-65. [CrossRef]
  175. Emg, U.N. Global drylands: A UN system-wide response. Environment Management Group of the United Nations Geneva. 2011.
  176. Qadir, M.; Schubert, S.; Oster, J.D.; Sposito, G.; Minhas, P.S.; Cheraghi, S.A.; Murtaza, G.; Mirzabaev, A, Saqib, M. High-magnesium waters and soils: Emerging environmental and food security constraints. Science of the total environment. 2018, 1108-1117. [CrossRef]
  177. Ratna Reddy, V.; Gopinath Reddy, M.; Galab, S.; Soussan, J.; Springate-Baginski, O. Participatory watershed development in India: Can it sustain rural livelihoods? Development and change. 2004, 2, 297-326.
  178. Sengar, R. S.; Chaudhary, R,Kureel, R. S. Jatropha plantation for simultaneous waste land reclamation fuel production and socio-economic development in degraded areas in India. Bulletin of Pure & Applied Sciences-Botany. 2014, 13-36. [CrossRef]
  179. Chanakya, H.N.; Mahapatra, D.M.; Sarada, R.; Abitha, R. Algal biofuel production and mitigation potential in India. Mitigation and Adaptation Strategies for Global Change, 2013, 1, 113-136. [CrossRef]
  180. Van Eijck, J.; Romijn, H.; Smeets, E.; Bailis, R.; Rooijakkers, M.; Hooijkaas, N.; Verweij, P.; Faaij, A. Comparative analysis of key socio-economic and environmental impacts of smallholder and plantation based jatropha biofuel production systems in Tanzania. Biomass and Bioenergy. 2014, 25-45. [CrossRef]
  181. Osorio, L.R.M.; Salvador, A.F.T.; Jongschaap, R.E.E.; Perez, C.A.A.; Sandoval, J.E.B.; Trindade, L.M.; Visser, R.G.F.; van L.E.N. High level of molecular and phenotypic biodiversity in Jatropha curcas from Central America compared to Africa, Asia and South America. BMC plant biology. 2014, 14(1), 1-19. [CrossRef]
  182. Van Eijck, J.; Smeets, E.; Faaij, A. Jatropha: A Promising Crop for Africa’s Biofuel Production? Bioenergy for sustainable development in Africa, Springer, Dordrecht. 2012, 27-40.
  183. Sapeta, H.; Costa, J.M.; Lourenco, T.; Maroco, J.; Van der Linde, P.; Oliveira, M.M. Drought stress response in Jatropha curcas: Growth and physiology. Environmental and Experimental Botany. 2013, 76-84. [CrossRef]
  184. Achten, W.M.; Verchot, L.; Franken, Y.J.; Mathijs, E.; Singh, V.P.; Aerts,Muys, B. Jatropha bio-diesel production and use. Biomass and bioenergy. 2008, 12, 1063-1084. [CrossRef]
  185. Arslan, M.; Zaidi, A.Z.; Malik, S. Identification of Suitable Sites for Plantation of Biofuel Source Jatropha C. using Geospatial Techniques. Journal of Space Technology. 2015, 5(1).
  186. Rathmann, R.; Szklo, A.; Schaeffer, R. Land use competition for production of food and liquid biofuels: An analysis of the arguments in the current debate. Renewable energy. 2010, 1, 14-22. [CrossRef]
  187. Menon, A.; Vadivelu, G.A. Common property resources in different agro-climatic landscapes in India. Conservation and society. 2006, 132-154.
  188. Kerr J, Foley C, Chung K, Jindal R. Reconciling environment and development in the clean development mechanism. Journal of Sustainable Forestry. 2006, 1, 1-8. [CrossRef]
  189. Wani, S.P.; Singh, H.P.; Sreedevi, T.K.; Pathak, P.; Rego, T.J.; Shiferaw, B.; Iyer, S.R. Farmer-participatory integrated watershed management: Adarsha watershed, Kothapally India. 2003.
  190. Alemu, B.; Kidane, D. The implication of integrated watershed management for rehabilitation of degraded lands: Case study of ethiopian highlands. J Agric Biodivers Res. 2014, 6, 78-90.
  191. Bhan, S. Land degradation and integrated watershed management in India. International Soil and Water Conservation Research. 2013, 1, 49-57. [CrossRef]
  192. Moran, E.C.; Woods, D.O. Comprehensive watershed planning in New York State: The Conesus Lake example. Journal of Great Lakes Research. 2009, 35, 10-14. [CrossRef]
  193. Gregersen, H.M.; Ffolliott, P.F.; Brooks, K.N. Integrated watershed management: Connecting people to their land and water. CABI. 2007.
  194. Hooks, G.; Smith, C. L. The treadmill of destruction: National sacrifice areas and Native Americans. American Sociological Review. 2004, 4, 558-75. [CrossRef]
  195. Endres, D. From wasteland to waste site: The role of discourse in nuclear power’s environmental injustices. Local Environment. 2009, 10, 917-37. [CrossRef]
  196. Madhusudan, M.D. and Vanak, A.T., 2023. Mapping the distribution and extent of India’s semi-arid open natural ecosystems. Journal of Biogeography, 50(8), pp.1377-1387. [CrossRef]
  197. Snehi, S.K.; Prihar, S.S.; Gupta, G.; Singh, V.; Raj, S.K.; Prasad, V. The current status of new emerging begomoviral diseases on Jatropha species from India. J Plant PatholMicrobiol. 2016, 357. [CrossRef]
  198. Sigamany, I. Land rights and neoliberalism: An irreconcilable conflict for indigenous peoples in India? International Journal of Law in Context. 2017, 3, 369-387. [CrossRef]
  199. Deshpande, R.S. Current land policy issues in, India. 2003.
  200. Zhang, Y. The credibility of slums: Informal housing and urban governance in India. Land use policy. 2018, 876-890. [CrossRef]
  201. Dolisca, F.; McDaniel, J.M.; Teeter, L.D.; Jolly, C.M. Land tenure, population pressure, and deforestation in Haiti: The case of Forêt des Pins Reserve. Journal of Forest Economics. 2007, 4, 277-289. [CrossRef]
  202. Ramsundar, B. Population Growth and Sustainable Land Management in India. Population. 2011, 10.
  203. Saigal, S. Greening the wastelands: Evolving discourse on wastelands and its impact on community rights in India. 13th Biennial Conference of the International Association for the Study on Commons. 2011.
  204. Maboeta, M. Soils: A wasteland of opportunities. 2015.
  205. Thompson, M. Rubbish theory: The creation and destruction of value. Encounter. 1979, 12-24. [CrossRef]
  206. Strasser, S. Waste and Want: The Other Side of Consumption.1992, 5.
  207. Ministry of food and agriculture. Location and utilisation of wastelands in India. Wasteland survey and reclamation committee report. New Delhi government of India. 1961.
  208. Bhumbla, D. R.; Khare, A. Estimate of Wastelands in India. Society for Promotion of Wastelands Development. 1984, 18.
  209. CSIR. Plants for Reclamation of Wastelands. Pub. & Inf. Directorate, Council of Scientific and Industrial Research (CSIR), New Delhi. 1990.
  210. NRSC. Technical guidelines: Integrated study to Combat Drought for Sustainable Development. Department of Space, Hyderabad. 1991.
  211. Chakravarty, S.; Dey, A. N.; Shukla, G. Growing TBOS for Wasteland Development. Environment and Ecology. 2010, 3, 1502-1506.
  212. Qureshi, A.S.; McCornick, P.G.; Sarwar, A.; Sharma, B.R. Challenges and prospects of sustainable groundwater management in the Indus Basin, Pakistan. Water resources management. 2010, 8, 1551-1569. [CrossRef]
  213. Mansoor, M.; Jamil, M.; Anwar, F.; Awan, A.A.; Muhammad, S. Review A Review on Rangeland Management in Pakistan, Bottlenecks and Recommendations. Biological Sciences-PJSIR. 2018, 2, 115-120. [CrossRef]
  214. Myint, M. M., & Westerberg, V. (2014). An economic valuation of a large-scale rangeland restoration project through the Hima system in Jordan. ELD Initiative. Nairobi: IUCN.
  215. Amede, T.; Belachew, T.; Geta, E. Reversing the degradation of arable land in the Ethiopian Highlands. Managing Africa’s Soils. 2001, 23.
  216. Mello, I., Roloff, G., Laurent, F., Gonzalez, E., & Kassam, A. (2023). Sustainable Land Management with Conservation Agriculture for Rainfed Production: The Case of Paraná III Watershed (Itaipu dam) in Brazil. Rainfed systems intensification and scaling of water and soil management: Four case studies of development in family farming, 99-126.
  217. Imang, N., Inoue, M., & Sardjono, M. A. (2008). Tradition and the influence of monetary economy in swidden agriculture among the Kenyah people of East Kalimantan, Indonesia. International Journal of Social Forestry, 1(1), 61-82.
  218. Castonguay, A. C., Burkhard, B., Müller, F., Horgan, F. G., & Settele, J. (2016). Resilience and adaptability of rice terrace social-ecological systems: A case study of a local community’s perception in Banaue, Philippines. Ecology and Society, 21(2). [CrossRef]
  219. Rubanza, C.D.; Shem, M.N.; Ichinohe, T.; Fujihara, T. Biomass production and nutritive potential of conserved forages in silvopastoral traditional fodder banks (Ngitiri) of Meatu District of Tanzania. Asian-Australasian journal of animal sciences. 2006, 7, 978-983. [CrossRef]
  220. Roose, E.; Kabore, V.; Guenat, C. Zaï, practice: A West African traditional rehabilitation system for semiarid degraded lands, a case study in Burkina Faso. Arid Soil Research and Rehabilitation. 1999, 4, 343-355. [CrossRef]
  221. Rockstrom, J. Water resources management in smallholder farms in Eastern and Southern Africa: An overview. Physics and Chemistry of the Earth, Part B: Hydrology, Oceans and Atmosphere. 2000, 3, 275-283. [CrossRef]
  222. Miao, Z.; Marrs, R. Ecological restoration and land reclamation in open-cast mines in Shanxi Province, China. Journal of Environmental Management. 2000, 3, 205-215. [CrossRef]
  223. Köppler, M. R., Kowarik, I., Kühn, N., & von der Lippe, M. (2014). Enhancing wasteland vegetation by adding ornamentals: Opportunities and constraints for establishing steppe and prairie species on urban demolition sites. Landscape and Urban Planning, 126, 1-9. [CrossRef]
  224. Goyal, V.C.; Garg, A.; Patil, J.P.; Thomas, T. Formulation of integrated water resources management (IWRM) plan at district level: A case study from Bundelkhand region of India. Water Policy. 2020, 22(1), 52-69. [CrossRef]
  225. Pani, P. Controlling gully erosion: An analysis of land reclamation processes in Chambal Valley, India. Development in Practice. 2016, 8, 1047-1059. [CrossRef]
  226. Juyal, G.P.; Katiyar, V.S.; Dhadwal, K.S.; Joshie, P.; Arya, R.K. Mined area rehabilitation in Himalayas: Sahastradhara experience. Central Soil and water Conservation Research and Training Institute, Dehradun. 2007, 104.
  227. Narayana, M. P. Neyveli open cast mine. A review of environmental management of mining operation in India. Banaras Hindu University, Varanasi. 1987, 54–62.
  228. Chaturvedi, O.P.; Kaushal, R.; Tomar, J.M.; Prandiyal, A.K.; Panwar, P. Agroforestry for wasteland rehabilitation: Mined, ravine, and degraded watershed areas. In Agroforestry Systems in India: Livelihood Security & Ecosystem Services. Springer, New Delhi. 2014, 233-271.
  229. Parandiyal, A.K.; Sethy, B.K.; Somasundaram, J.; Ali, S.; Meena, H.R. Potential of Agroforestry for the Rehabilitation of Degraded Ravine Lands. In Agroforestry for Degraded Landscapes. Springer, Singapore. 2020, 229-251.
  230. Kerr, J. Sharing the benefits of watershed management in Sukhomajri, India. Selling forest environmental services: Market-based mechanisms for conservation and development. 2002, 327-343.
  231. Sharda, V.N.; Sikka, A.K.; Juyal, G.P. Participatory integrated watershed management: A field manual. Central Soil & Water Conservation Research & Training Institute; 2006.
  232. Wani, S.P.; Chander, G.; Sahrawat, K.L.; Rao, C.S.; Raghvendra, G.; Susanna, P.; Pavani, M. Carbon sequestration and land rehabilitation through Jatropha curcas (L.) plantation in degraded lands. Agriculture, ecosystems & environment. 2012, 112-120. [CrossRef]
  233. Kiran, K.R.; Rani, M.; Pal, A. Reclaiming degraded land in India through the cultivation of medicinal plants. Bot Res Int. 2009, 174-181.
  234. Mishra, A.; Sharma, S. D. Leguminous trees for the restoration of degraded sodic wasteland in eastern Uttar Pradesh, India. Land Degradation & Development. 2003, 2, 245-261. [CrossRef]
  235. Jena, S.K.; Sahoo, N.; Roy, Chowdhury, S.; Mohanty, R.K.; Kundu, D.K.; Behera, M.S.; Patil, D.U.; Kumar, A. Reclamation of coastal waterlogged wasteland through bio drainage. J Indian Soc Coastal Agric Res. 2011, 2, 57-62.
  236. Garg, K.K., Anantha, K.H., Barron, J., Singh, R., Dev, I., Dixit, S. & Whitbread, A.M.. 2020. Scaling-up Agriculture Water Management Interventions for Building System Resilience in Bundelkhand Region of Central India.
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.
Copyright: This open access article is published under a Creative Commons CC BY 4.0 license, which permit the free download, distribution, and reuse, provided that the author and preprint are cited in any reuse.
Prerpints.org logo

Preprints.org is a free preprint server supported by MDPI in Basel, Switzerland.

Subscribe

© 2024 MDPI (Basel, Switzerland) unless otherwise stated