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Search Results (834)

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18 pages, 283 KiB  
Article
“Someone Who Is Going to Preserve Your Surname and Clan Name”: A Sesotho Cultural Perspective on Male Partner Involvement in Maternal and Newborn Care in the Free State, South Africa
by Ngwi N. T. Mulu and Michelle Engelbrecht
Soc. Sci. 2024, 13(10), 540; https://doi.org/10.3390/socsci13100540 - 12 Oct 2024
Viewed by 372
Abstract
In the global public health discourse, involving men in maternal and neonatal health is regarded as crucial for positive outcomes in both health and development. In South Africa, health interventions designed to promote male partner involvement among low-income indigenous populations have been framed [...] Read more.
In the global public health discourse, involving men in maternal and neonatal health is regarded as crucial for positive outcomes in both health and development. In South Africa, health interventions designed to promote male partner involvement among low-income indigenous populations have been framed within social constructivist notions of masculinities and have produced mixed outcomes. This has necessitated calls to explore alternative approaches, including the need to decolonise men and masculinities studies in Africa. As part of one phase of formative research for a mixed-method project aimed at adapting a male involvement intervention for the context of Sesotho-speaking men and women in the Free State, we applied a multi-site case study research design and collected qualitative data using focus group discussions and key informant interviews. Verbatim-recorded transcripts were translated, transcribed, and thematically analysed with NVIVO 14. The results indicate that customary practices in pregnancy, delivery, and newborn care are not static and vary between families based on belief systems, socioeconomic status, geographical setting (peri-urban/rural), and kinship networks of care. Therefore, these practices and beliefs should be understood, affirmed, and contested within the complex African-centred material and immaterial worldviews on personhood in which they were generated, transmitted, rejected, or adopted. It is recommended that a decolonised approach to male partner involvement in this context must be cognisant of the intersections of racial and gendered power relations, contestations in beliefs and practices, the resilient effect of colonialism on indigenous gender systems, as well as contemporary global entanglements that inform North–South power relations on the best practices in maternal and newborn health in the public health sector in South Africa. Full article
3 pages, 160 KiB  
Editorial
Overview of “Landscape Architecture Research and Design for Urban and Peri-Urban Environments”
by Richard Smardon
Land 2024, 13(10), 1659; https://doi.org/10.3390/land13101659 - 12 Oct 2024
Viewed by 213
Abstract
Landscape architecture and design research is becoming increasingly relevant due to rapid urbanization and its impact on urban and peri-urban environments [...] Full article
(This article belongs to the Special Issue Landscape Architecture and Design in Urban and Peri-Urban Environment)
20 pages, 4669 KiB  
Article
Developing a Calculation Workflow for Designing and Monitoring Urban Ecological Corridors: A Case Study
by Carmine Massarelli
Urban Sci. 2024, 8(4), 169; https://doi.org/10.3390/urbansci8040169 - 11 Oct 2024
Viewed by 490
Abstract
Urban ecological corridors play a crucial role in biodiversity conservation, connecting fragmented habitats in highly anthropized areas and generating benefits in terms of the sustainability of urban environments. These corridors mitigate the effects of habitat fragmentation, such as reduced genetic diversity and limited [...] Read more.
Urban ecological corridors play a crucial role in biodiversity conservation, connecting fragmented habitats in highly anthropized areas and generating benefits in terms of the sustainability of urban environments. These corridors mitigate the effects of habitat fragmentation, such as reduced genetic diversity and limited species dispersal, while improving the ecological health of urban environments and the well-being of citizens. This study proposes a calculation workflow for the identification of the necessary and most suitable ecological corridors to be planned in the urban-environmental planning phase and identifies some of the existing innovative technologies to evaluate and improve their functionality, enabling the real-time monitoring of habitat conditions and providing valuable information to optimize the design and management of these peri-urban natural areas. Urban ecological corridors also improve human well-being by contributing to cleaner air, better water quality and recreational opportunities to the point that the costs incurred for their construction are much lower than the economic and social benefits for the area. Full article
(This article belongs to the Special Issue Assessing Urban Ecological Environment Protection)
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<p>Extension of the Dune Costiere Regional Natural Park and study area.</p>
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<p>Land use map of the entire study area.</p>
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<p>The data processing workflow for the identification of the necessary and most suitable ecological corridors (Least cost path algorithm from [<a href="#B57-urbansci-08-00169" class="html-bibr">57</a>]; output picture from [<a href="#B58-urbansci-08-00169" class="html-bibr">58</a>]).</p>
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<p>Map of green area locations (centroids).</p>
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<p>Movement cost map of the study area.</p>
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<p>Map of the most suitable areas for acting as ecological corridors.</p>
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17 pages, 1121 KiB  
Article
Investigating Alternative Water Supply in Settlements: Cases from Turkana County in Kenya and Orangi in Karachi, Pakistan
by Noman Ahmed, Muhammad Sohail and Johana Ekwam
Sustainability 2024, 16(19), 8725; https://doi.org/10.3390/su16198725 - 9 Oct 2024
Viewed by 694
Abstract
In urban areas, water is usually provided through piped systems from specific sources to consumers. Cities, towns, and peri-urban settlements typically benefit from piped systems, while rural areas rely on water supplies from surface sources like rivers and canals, as well as ground [...] Read more.
In urban areas, water is usually provided through piped systems from specific sources to consumers. Cities, towns, and peri-urban settlements typically benefit from piped systems, while rural areas rely on water supplies from surface sources like rivers and canals, as well as ground sources such as wells and tube wells. When traditional methods fail, alternative water supply systems emerge in both urban and rural areas. This paper addresses the question of whether alternative water supply arrangements are sustainable in terms of system reliability, consumer acceptance, cost-effectiveness, convenience, perceptions of service levels, and ease of access to service providers. This paper examines the status of alternative water supply arrangements in Turkana County, Kenya, and Orangi in Karachi, Pakistan, using qualitative methods. It highlights that underprivileged communities commonly turn to alternative water supply arrangements when conventional methods are unavailable or underperforming. Full article
(This article belongs to the Section Sustainable Water Management)
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<p>Populations served by a water reticulation system.</p>
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<p>Water reticulation system; demand and supply.</p>
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<p>Water supply in Orangi through piped supply option *. Source: Authors’ illustration based upon the actual process of piped supply, 2023. * This supply only functions on rare frequencies when water is supplied to Orangi.</p>
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18 pages, 730 KiB  
Article
Using Treated Wastewater for Non-Potable Household Uses in Peri-Urban India: Is It Affordable for the Users?
by Norbert Brunner, Sukanya Das, Anju Singh and Markus Starkl
Water 2024, 16(19), 2838; https://doi.org/10.3390/w16192838 - 6 Oct 2024
Viewed by 653
Abstract
Reuse of wastewater is a promising response to water scarcity. For peri-urban areas served by decentralized wastewater treatment plants, the delivery of treated wastewater to the households may be a viable option to promote reuse on a larger scale. Based on a case [...] Read more.
Reuse of wastewater is a promising response to water scarcity. For peri-urban areas served by decentralized wastewater treatment plants, the delivery of treated wastewater to the households may be a viable option to promote reuse on a larger scale. Based on a case study in Eastern India, this paper explores if households would accept recycled water for non-potable purposes and if they would pay for it. While the respondents to household surveys had very positive views about recycling, they were not willing to pay much, even if they were from a middle-income class and could afford more. A closer analysis of the attitudes towards recycling indicated knowledge gaps about the risks and advantages of using recycled water. Full article
(This article belongs to the Special Issue Water Quality, Wastewater Treatment and Water Recycling)
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<p>Cumulative distribution function of per capita incomes per day of the 1129 persons living in the interviewed households (green: weighted mixture of uniform distributions over modified income intervals, dashed red: fit by a lognormal distribution to this mixture); plots and computations using Mathematica.</p>
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<p>Expected revenues from monthly surcharges for recycled water amongst 184 households with willingness to pay (black dashed revenues from a histogram distribution, green from a mixture of uniform distributions, red dashed revenues from a lognormal distribution fitted to the mixture distribution); plots and computations using Mathematica.</p>
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<p>Decision tree to identify compliant (C) and non-compliant (NC) households amongst 188 typical ones (terminal nodes in red or green; red means “classified as NC”, and green means “classified as C”); computations using Mathematica and graphics in MS PowerPoint (TWW: treated wastewater).</p>
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30 pages, 32487 KiB  
Article
Fitness of Multi-Resolution Remotely Sensed Data for Cadastral Mapping in Ekiti State, Nigeria
by Israel Oluwaseun Taiwo, Matthew Olomolatan Ibitoye, Sunday Olukayode Oladejo and Mila Koeva
Remote Sens. 2024, 16(19), 3670; https://doi.org/10.3390/rs16193670 - 1 Oct 2024
Viewed by 946
Abstract
In developing nations, such as Ekiti State, Nigeria, the utilization of remotely sensed data, particularly satellite and UAV imagery, remains significantly underexploited in land administration. This limits multi-resolution imagery’s potential in land governance and socio-economic development. This study examines factors influencing UAV adoption [...] Read more.
In developing nations, such as Ekiti State, Nigeria, the utilization of remotely sensed data, particularly satellite and UAV imagery, remains significantly underexploited in land administration. This limits multi-resolution imagery’s potential in land governance and socio-economic development. This study examines factors influencing UAV adoption for land administration in Nigeria, mapping seven rural, peri-urban, and urban sites with orthomosaics (2.2 cm to 3.39 cm resolution). Boundaries were manually delineated, and parcel areas were calculated. Using the 0.05 m orthomosaic as a reference, the Horizontal Radial Root Mean Square Error (RMSEr) and Normalized Parcel Area Error (NPAE) were computed. Results showed a consistent increase in error with increasing resolution (0.1 m to 1 m), with RMSEr ranging from 0.053 m (formal peri-urban) to 2.572 m (informal rural settlement). Formal settlements with physical demarcations exhibited more consistent values. A comparison with GNSS data revealed that RMSEr values conformed to the American Society for Photogrammetry and Remote Sensing (ASPRS) Class II and III standards. The research demonstrates physical demarcations’ role in facilitating cadastral mapping, with formal settlements showing the highest suitability. This study recommends context-specific imagery resolution to enhance land governance. Key implications include promoting settlement typology awareness and addressing UAV regulatory challenges. NPAE values can serve as a metric for assessing imagery resolution fitness for cadastral mapping. Full article
(This article belongs to the Section Urban Remote Sensing)
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<p>Study area map. (<b>a</b>) Map of Nigeria showing Ekiti State; (<b>b</b>) map of Ekiti State showing the study sites.</p>
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<p>Methodology flow.</p>
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<p>Perceived benefits of UAV use for land administration in Nigeria.</p>
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<p>Concerns and challenges perceived in adopting UAVs for land administration and management in Nigeria.</p>
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<p>UAV orthomosaic of part of Aaye-Oja Ekiti (rural and informal settlement).</p>
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<p>UAV orthomosaic of part of Igedora-Ekiti (rural and formal settlement).</p>
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<p>UAV orthomosaic of part of Aaye community (peri-urban and informal settlement).</p>
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<p>UAV orthomosaic of part of Maryland Avenue (peri-urban and formal settlement).</p>
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<p>UAV orthomosaic of part of Atinkankan (urban and informal settlement–slum).</p>
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<p>UAV orthomosaic of part of Okebola (urban and formal settlement).</p>
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<p>UAV orthomosaic of part of Egbewa GRA (urban and formal settlement) annotated with GNSS marker positions for absolute accuracy comparison.</p>
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<p>Comparison of spatial resolutions for rural agricultural area. (<b>a</b>) 1 m; (<b>b</b>) 0.5 m; (<b>c</b>) 0.1 m; (<b>d</b>) 0.05 m.</p>
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<p>Comparison of spatial resolutions for rural formal settlement. (<b>a</b>) 1 m; (<b>b</b>) 0.5 m; (<b>c</b>) 0.1 m; (<b>d</b>) 0.06 m.</p>
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<p>Comparison of spatial resolutions for peri-urban informal settlement. (<b>a</b>) 1 m; (<b>b</b>) 0.5 m; (<b>c</b>) 0.1 m; (<b>d</b>) 0.06 m.</p>
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<p>Comparison of spatial resolutions for peri-urban formal settlement. (<b>a</b>) 1 m; (<b>b</b>) 0.5 m; (<b>c</b>) 0.1 m; (<b>d</b>) 0.05 m.</p>
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<p>Comparison of spatial resolutions for urban informal settlement (slum). (<b>a</b>) 1 m; (<b>b</b>) 0.5 m; (<b>c</b>) 0.1 m; (<b>d</b>) 0.05 m.</p>
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<p>Comparison of spatial resolutions for urban formal settlement. (<b>a</b>) 1 m; (<b>b</b>) 0.5 m; (<b>c</b>) 0.1 m; (<b>d</b>) 0.05 m.</p>
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<p>Satellite imagery of Aaye-Oja Ekiti clipped at a 1:20,000 visualization scale on QGIS: (<b>a</b>) 3.5 m resolution multispectral image; (<b>b</b>) 2.1 m resolution panchromatic image.</p>
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19 pages, 4739 KiB  
Article
Agroecology for the City—Spatialising ES-Based Design in Peri-Urban Contexts
by Richard Morris, Shannon Davis, Gwen-Aëlle Grelet and Pablo Gregorini
Land 2024, 13(10), 1589; https://doi.org/10.3390/land13101589 - 30 Sep 2024
Viewed by 445
Abstract
The design of urban systems that allow growth while also maximising ecosystem services is identified as an important priority for creating a Good Anthropocene. An ecosystem service (ES)-based approach to landscape interventions maximises the provision of ESs, and in doing so, repairs and [...] Read more.
The design of urban systems that allow growth while also maximising ecosystem services is identified as an important priority for creating a Good Anthropocene. An ecosystem service (ES)-based approach to landscape interventions maximises the provision of ESs, and in doing so, repairs and reinforces threatened ecological planetary boundaries. As an urbanising planet, cities are critical frontiers of human interaction with these planetary boundaries, and therefore a critical arena for ES-based intervention. Globally, the predominant pattern of urbanisation is dedensification, an outwardly expanding trend where cities are growing in physical extent at a higher rate than their population growth. We therefore require spatially explicit tools capable of reconciling dedensification and Good Anthropocene visions. We propose a methodology that integrates agroecology and urbanisation and is focussed specifically on the supply of targeted regulating ESs. This ‘Agroecology for the City’ differs from conventional urban agriculture discourse and its preoccupation with food security. Our research interest is agroecological farm systems’ (AFSs) capacity to provide critical life support services in a spatially effective manner to urban systems. Our recent research introduced a new GIS-based model (ESMAX) and a spatial agroecology approach that identified AFS configurations at a 1 ha scale which maximised the supply of three regulating ESs, as well as multifunctional performance across all three ESs combined. In the present research, we apply this process at a larger scale, with 1 ha and 4 ha AFS parcels being integrated with a real-world 200 ha peri-urban residential development. The AFS parcels and built-up areas are configured differently to maximise the supply of ESs identified as critical by the local community. We found that arrangements with AFS parcels interspersed evenly with built-up areas provided the best multifunctionality across the four ESs tested. This supports pathways for a Good Anthropocene that work with the global urbanising reality of dedensification and underpin the need for a hybrid science of rural/urban systems. Full article
(This article belongs to the Special Issue Urban Ecosystem Services: 5th Edition)
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Figure 1
<p>The ESMAX model: (<b>i</b>) ESMAX first assigns a characteristic shape (also referred to as a ‘kernel’) for each type of ES, representing the distance–decay of each ES from its source. The kernel comprises the initial maximum intensity of the ES at its source SPU (represented on the y-axis), the extent of the effect of the ES from its source (the x-axis), and how that effect dissipates with distance away from the SPU, whether in a linear, negative exponential or logistic/sigmoid fashion, for example. This kernel is translated by the model’s Geographic Information System (GIS) platform as an ‘ES field’ that radiates from each SPU. Within the SPU itself, ES intensity is assumed to be at maximum value and constant. When looking at the ES field, the ES distance–decay outside the SPU is illustrated by the transition of yellow (maximum intensity) to black (minimum intensity). This direct impact of the ES from its SPU is referred to as its first-order effect. (<b>ii</b>) Where ES fields overlap, an equation is used to predict the resulting response in ES performance at a particular point in time and space. This response can either be neutral (there is no impact on the two Es fields), negative (the net ES effect is reduced) or positive (there is an amplification of net ESs in the overlapping area). These various effects are termed second-order effects. (<b>iii</b>) ESMAX provides a plan-view visualisation for a configuration of SPUs across the designated research area, which is bounded with a red rectangle (a 1 ha research area and generic ES are shown). The different-sized SPUs represent different sizes of individual groups of woody vegetation plants (or ‘clumps’), here shown concentrated around the perimeter of the research area.</p>
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<p>The New Zealand case study site: (<b>i</b>) The 190 ha case study site (outlined in red) is located to the south of Lincoln township (white dashed outline). The 2000 homes proposed for the site represent an 85% increase in existing housing numbers and a 35% increase in the land area of the township [<a href="#B41-land-13-01589" class="html-bibr">41</a>]. Existing urban morphology is illustrated by typical residential blocks (1 ha and 4 ha) outlined in black. (<b>ii</b>) The site is classified in its entirety as Highly Productive Land (HPL). A New Zealand classification system, HPL refers to the most valuable farming land, based on the Land-Use Capability (LUC) of that land. LUC classes land across a range of 1 to 8, with LUC 1, 2 and 3 containing the most versatile and most suitable land, soil and the environmental variables for agricultural production under this New Zealand classification system [<a href="#B42-land-13-01589" class="html-bibr">42</a>]. HPL is a scarce and finite resource—LUC classes 1 and 2 comprise only 4% of New Zealand’s total land area, while LUC classes 1 to 3 together constitute 14% [<a href="#B40-land-13-01589" class="html-bibr">40</a>]. (<b>iii</b>) A 200-year flood risk model shows inundation to the eastern and western extents of the site, as well as flood paths from the township transecting the site north to south [<a href="#B43-land-13-01589" class="html-bibr">43</a>,<a href="#B44-land-13-01589" class="html-bibr">44</a>]. The site, lying less than 10 m above sea level, formed part of extensive wetlands in pre-European time [<a href="#B45-land-13-01589" class="html-bibr">45</a>]. Nearby rivers are prone to flooding, with raised embankments (or ‘stopbanks’) a requirement to protect livestock. The nature of flood risk is primarily riverine, exacerbated by sea level rise and the trend towards heavier-intensity rainfall events [<a href="#B46-land-13-01589" class="html-bibr">46</a>]. (<b>iv</b>) The rezoning masterplan of the development proposed for the site is illustrative of a typical approach to greenfield peri-urban development in New Zealand. Built-up areas are shaded grey, public green spaces are indicated in green and a designated flood relief zone in blue.</p>
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<p>The 4-step methodology used in this research: (<b>1</b>) NVivo (Version 14.23) is used to analyse public submissions made during the planning consent process of a proposed 190 ha peri-urban residential development of 2000 houses. NVivo is data analysis software for working with qualitative information, such as interviews, documents, and survey data. In this research, it is used to analyse public submissions to the planning process and thus identify which ESs presently provided by the site are considered most valuable to the local community. (<b>2</b>) The 1 ha and 4 ha agroecological farm system (AFS) parcels are arranged in various configurations across the site. In general, the parcels are aggregated into larger continuous expanses of agroecological use, and alternatively, where individual parcels are evenly dispersed across the site. Technically, both the AFS parcels and the woody vegetation clumps within the parcels are Service Providing Units, or SPUs—to avoid confusion, only the parcels are referred to as SPUs. The residual areas between SPUs are set aside for residential development. (<b>3</b>) The ESMAX model visualises and quantifies the different levels of regulating ES performance supplied by the overall development site for the various configurations of SPUs. (<b>4</b>) The results from ESMAX demonstrate trade-offs and/or synergies in ES performance particular to each configuration. These characteristics are used to create a ’Solution Space’ graph, whose shape depicts the multifunctional performance of each site configuration. This allows stakeholders to choose from a range of alternatives that meet ES demand requirements while adapting to spatial constraints (urban planning, farming operations, topography, etc.) specific to the site.</p>
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<p>ES demand of the case study site. The graph indicates the findings of NVivo analysis of formal public submissions made during the planning consent process for the proposed residential development of the site. Submissions referring to individual ESs were tabulated, shown here divided into provisioning, regulating and cultural ESs. Protection of HPL is the most frequently occurring concern, inferred by this research to mean the provision of food and economic livelihood. Loss of biodiversity and flood mitigation are the next highest-ranking issues. Despite being the least registered factor among present-day public opinion, the cooling effect is included for assessment due to anticipated local warming resulting from climate change.</p>
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<p>Spatial agroecology configuration options—Individual 1 ha and 4 ha AFS SPUs each contain 15% woody vegetation, with a total SPU area of 64 ha in each configuration. Note that only the 4 ha parcels are large enough to accommodate the largest XL-sized (0.2 ha) clumps due to the 15% constant tree cover limitation. How the clumps of woody vegetation are configured is the subject of a previous research paper [<a href="#B27-land-13-01589" class="html-bibr">27</a>] and resembles three agroecological typologies: clumped woodlot (configurations <b>1a</b>,<b>2a</b>,<b>3a</b>,<b>4a</b>), a shelterbelt (or hedgerow) around the perimeter of the AFS parcel (<b>1b</b>,<b>2b</b>,<b>3b</b>,<b>4b</b>) and a silvopastoral arrangement, where woody vegetation clumps are evenly interspersed with pasture and/or crops (<b>1c</b>,<b>2c</b>,<b>3c</b>,<b>4c</b>). The SPUs are arranged in two site-wide general arrangements—aggregated or dispersed. The aggregated arrangements cluster the AFS parcels so that they protect the most valuable LUC classes 1 and 2 land from residential development. They are also concentrated on areas of the site most vulnerable to flood inundation. The dispersed arrangements distribute the AFS parcels evenly across the case study site. Residual space between AFS parcels is shaded to represent the potential area for residential development. The vertical break in the shaded area at the centre left denotes the existing road passing through the proposed development site. For the purposes of this work, the only urban planning consideration is an allowance of 75 m between adjacent SPUs that are not intentionally connected—sufficient to nominally accommodate a street with a row of terraced houses on either side.</p>
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<p>Individual ES performance. The histograms on the left show the performance of each configuration for each ES. The best and worst-performing configurations are shown in the middle column. The best-performing configurations are coloured green, corresponding to the green bars of the histograms. The worst-performing configurations are coloured red, corresponding to the red bars on the histograms. In the case of flood mitigation, the two top performers and three lowest performers rank equally. In the case of cooling performance, the four top performers rank equally, as do the three lowest performers.</p>
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<p>The Solution Space. The radar charts on the left present the ‘solution space’ for this research, setting out the multifunctional performance of all case study site configuration options. Each configuration is represented by a ‘solution polygon’—in this case, a quadrilateral polygon, given that four ESs are being tested. Each axis represents one of the ESs, with the vertices of each solution polygon being set by the respective ES Score of each configuration for that ES: (<b>i</b>) Analysis configurations according to the total multiple ESs supplied, based on an area calculation of the solution polygon, with (<b>ii</b>) showing the three configurations coloured green that supply the most combined multiple ESs (in descending order). Configuration 1a supplied the lowest level of ESs, here coloured red. (<b>iii</b>,<b>iv</b>) Highlights the configurations according to how evenly they produce the four ESs. The configurations coloured green provided the most balanced performance across the four ESs measured, while 3a exhibits the most eccentrically shaped solution polygon, and therefore the most weighting towards the supply of a single ES (cooling effect, in this case).</p>
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<p>The Solution Space. The radar charts on the left present the ‘solution space’ for this research, setting out the multifunctional performance of all case study site configuration options. Each configuration is represented by a ‘solution polygon’—in this case, a quadrilateral polygon, given that four ESs are being tested. Each axis represents one of the ESs, with the vertices of each solution polygon being set by the respective ES Score of each configuration for that ES: (<b>i</b>) Analysis configurations according to the total multiple ESs supplied, based on an area calculation of the solution polygon, with (<b>ii</b>) showing the three configurations coloured green that supply the most combined multiple ESs (in descending order). Configuration 1a supplied the lowest level of ESs, here coloured red. (<b>iii</b>,<b>iv</b>) Highlights the configurations according to how evenly they produce the four ESs. The configurations coloured green provided the most balanced performance across the four ESs measured, while 3a exhibits the most eccentrically shaped solution polygon, and therefore the most weighting towards the supply of a single ES (cooling effect, in this case).</p>
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15 pages, 6338 KiB  
Article
Climate Classification in the Canadian Prairie Provinces Using Day-to-Day Thermal Variability Metrics
by William A. Gough and Zhihui Li
Atmosphere 2024, 15(9), 1111; https://doi.org/10.3390/atmos15091111 - 13 Sep 2024
Viewed by 296
Abstract
The data from thirty-one climate stations in the Canadian Prairie provinces of Alberta, Saskatchewan, and Manitoba are analyzed using a number of day-to-day thermal variability metrics. These are used to classify each climate station location using a decision tree developed previously. This is [...] Read more.
The data from thirty-one climate stations in the Canadian Prairie provinces of Alberta, Saskatchewan, and Manitoba are analyzed using a number of day-to-day thermal variability metrics. These are used to classify each climate station location using a decision tree developed previously. This is the first application of the decision tree to identify stations as having rural, urban, peri-urban, marine, island, airport, or mountain climates. Of the thirty-one, eighteen were identified as peri-urban, with fourteen of these being airports; six were identified as marine or island; four were identified as rural; one as urban was identified; and two were identified as mountain. The two climate stations at Churchill, Manitoba, located near the shores of Hudson Bay, were initially identified as peri-urban. This was re-assessed after adjusting the number of “winter” months used in the metric for identifying marine and island climates (which, for all other analyses, excluded only December, January, and February). For Churchill, to match the sea ice season, the months of November, March, April, and May were also excluded. Then, a strong marine signal was found for both stations. There is a potential to use these thermal metrics to create a sea ice climatology in Hudson Bay, particularly for pre-satellite reconnaissance (1971). Lake Louise and Banff, Alberta, are the first mountain stations to be identified as such outside of British Columbia. Five airport/non-airport pairs are examined to explore the difference between an airport site and a local site uninfluenced by the airport. In two cases, the expected outcome was not realized through the decision tree analysis. Both Jasper and Edmonton Stony Plain were classified as peri-urban. These two locations illustrated the influence of proximity to large highways. In both cases the expected outcome was replaced by peri-urban, reflective of the localized impact of the major highway. This was illustrated in both cases using a time series of the peri-urban metric before and after major highway development, which had statistically significant differences. This speaks to the importance of setting climate stations appropriately away from confounding influences. It also suggests additional metrics to assess the environmental consistency of climate time series. Full article
(This article belongs to the Section Atmospheric Techniques, Instruments, and Modeling)
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<p>Thermal metrics decision tree developed in [<a href="#B8-atmosphere-15-01111" class="html-bibr">8</a>].</p>
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<p>Map of 31 Stations used in this study in the Canadian provinces of Alberta, Saskatchewan, and Manitoba.</p>
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<p>The 31 stations plotted by classification type (colour) and as a function of RΔT<sub>min</sub>. Blue represents marine and island stations (dark blue for marine and lighter blue for island). Darker orange are peri-urban climates, not at airports, and lighter orange are peri-urban climates at airports. Green designates rural climates, and red denotes urban climates. Purple signifies a mountain classification.</p>
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<p>RΔT<sub>min</sub> for Edmonton Stony Plain, decadal average from the 1970s to the 2010s. Blue indicates below the peri-urban threshold and red indicates above the peri-urban threshold.</p>
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<p>Gimli and Gimli A. Scale 1:50,000.</p>
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<p>Flin Flon and Flin Flon A. Scale 1:15,000.</p>
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<p>Regina A and Regina University. Scale 1:30,000.</p>
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<p>Prince Albert and Prince Albert A. Scale 1:25,000.</p>
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<p>Edmonton Stony Plan and Edmonton A. Scale 1:6000.</p>
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<p>Location of Churchill Marine and Churchill A stations. Scale 1:50,000.</p>
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<p>Lake Louise. Scale 1:25,000.</p>
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<p>Banff. Scale 1:10,000.</p>
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<p>Jasper. Jasper TS is the train station. Jasper TC is the town centre. “Jasper” is located at the coordinates provided by the climate data archive. The locations A, B, C, and D define the area in which, given the uncertainty in the coordinates, the station could be located. Scale 1:150,000.</p>
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<p>Jasper, 1941–1990, RΔTmin, decadal averaging. Red dots indicate decades above the 1.05 threshold, and blue dots indicate those below the 1.05 threshold.</p>
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26 pages, 42108 KiB  
Article
Assessing the Public Peri-Urban Agricultural Park as a Tool for the Sustainable Planning of Peri-Urban Areas: The Case Study of Prato
by David Fanfani, Fabrizio Battisti and Benjamin Agosta
Sustainability 2024, 16(18), 7946; https://doi.org/10.3390/su16187946 - 11 Sep 2024
Viewed by 521
Abstract
Inherited and current trends of urbanization result in growing agri–urban mixed land use patterns that strongly call for innovative management and planning tools at the urban/rural interface. This could especially help to cope with both resilience and environmental fairness goals. In this framework, [...] Read more.
Inherited and current trends of urbanization result in growing agri–urban mixed land use patterns that strongly call for innovative management and planning tools at the urban/rural interface. This could especially help to cope with both resilience and environmental fairness goals. In this framework, the category of the Agriculture Park (AP) deserves much attention in relating meaningful experiences, especially in Mediterranean areas. This article deepens the category with the aim of assessing its features as a viable tool in the planning domain to jointly protect and enhance peri-urban farmland areas. In particular, the adopted methodology taps into an integrated and holistic approach to define and assess, by design, a multi-purpose model of a Public Agri–urban Park (PAP) drawing on the Public–Private Partnership (PPP) management model (using break-even analysis to define the contents of the PPP itself), inhabitants’ participation, and referring to a typical fringe area in the municipality of Prato (Italy). Results show the potential of the PAP to jointly achieve—according to a proactive model of green spaces’ protection—many sustainable design targets along with new forms of services aimed at social welfare. At the same time, the article highlights the call for public bodies and agencies to overcome the “business as usual” and “silo-framed” institutional approach and establish fruitful collaborative and synergistic co-design procedures with inhabitants and local stakeholders. Full article
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<p>Concept map of peri-urban park typologies according to the 4 typologies identified by the project (source, Fanfani for Peri-urban Parks Project—Interreg IVc, 2012).</p>
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<p>(<b>a</b>) Prato and the surrounding metropolitan area. (<b>b</b>) Map of area study in Prato.</p>
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<p>(<b>a</b>) Prato and the surrounding metropolitan area. (<b>b</b>) Map of area study in Prato.</p>
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<p>Map of the structure of green areas in relation to the built-up area in the municipality of Prato (from UdS Lamma, simplified).</p>
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<p>Land use and the study area plot position in the urban sector (in light yellow).</p>
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<p>Aerial view of the PAP designed area (inside the green line).</p>
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<p>Long-lasting settlement patterns and territorial heritage map; the design park area is within the orange line (source: authors’ elaboration on aerial photo GAI 1954).</p>
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<p>Historical settlement patterns and the current urban structure.</p>
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<p>Functional and connective structure of the wider study area.</p>
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<p>Pictures of the peri-urban farming activity in the PAP design area: Photos 1–7 views and details of the farmland design area; photos 8–16 views of the surrounding urban interface elements and buildings.</p>
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<p>Reconnection of the peri-urban green spaces in the wider design area: slow mobility tracks and new accessibility of green peri-urban spaces.</p>
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<p>Details of the specific design site: master plan of the Public Agricultural Park.</p>
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<p>Landscape regenerative project of the Public Agricultural Park for the specific design site.</p>
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24 pages, 4050 KiB  
Article
Sources, Distribution, and Health Implications of Heavy Metals in Street Dust across Industrial, Capital City, and Peri-Urban Areas of Bangladesh
by Md. Sohel Rana, Qingyue Wang, Weiqian Wang, Christian Ebere Enyoh, Md. Rezwanul Islam, Yugo Isobe and Md Humayun Kabir
Atmosphere 2024, 15(9), 1088; https://doi.org/10.3390/atmos15091088 - 7 Sep 2024
Viewed by 1290
Abstract
Heavy metals in road dusts can directly pose significant health risks through ingestion, inhalation, and dermal contact. This study investigated the pollution, distribution, and health effect of heavy metals in street dust from industrial, capital city, and peri-urban areas of Bangladesh. Inductively coupled [...] Read more.
Heavy metals in road dusts can directly pose significant health risks through ingestion, inhalation, and dermal contact. This study investigated the pollution, distribution, and health effect of heavy metals in street dust from industrial, capital city, and peri-urban areas of Bangladesh. Inductively coupled plasma mass spectrometry (ICP-MS) examined eight hazardous heavy metals such as Zn, Cu, Pb, Ni, Mn, Cr, Cd, and Co. Results revealed that industrial areas showed the highest metal concentrations, following the order Mn > Zn > Cr > Pb > Ni > Co > Cd, with an average level of 444.35, 299.25, 238.31, 54.22, 52.78, 45.66, and 2.73 mg/kg, respectively, for fine particles (≤20 μm). Conversely, multivariate statistical analyses were conducted to assess pollution levels and sources. Anthropogenic activities like traffic emissions, construction, and industrial processing were the main pollution sources. A pollution load index revealed that industrial areas had significantly higher pollution (PLI of 2.45), while the capital city and peri-urban areas experienced moderate pollution (PLI of 1.54 and 1.59). Hazard index values were below the safety level of 1, but health risk evaluations revealed increased non-carcinogenic risks for children, especially from Cr, Ni, Cd, and Pb where Cr poses the highest cancer risk via inhalation, with values reaching 1.13 × 10−4–5.96 × 10−4 falling within the threshold level (10−4 to 10−6). These results underline the need for continuous environmental monitoring and pollution control in order to lower health hazards. Full article
(This article belongs to the Section Biometeorology and Bioclimatology)
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<p>(<b>a</b>) A map of street dust sampling areas in Bangladesh, (<b>b</b>) showing the Mymensingh Division, with sampling locations highlighted along the street, and (<b>c</b>) showing the Dhaka division, highlighting sampling locations from the street.</p>
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<p>Street dust sampling and preparation stage.</p>
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<p>Street dust sample preparation and heavy metal analysis.</p>
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<p>Plots of principal components in rotated space for toxic elements in suspended street dust.</p>
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<p>An HCA dendrogram illustrating the categorization of toxic elements in street dust being studied.</p>
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<p>Igeo value of toxic elements in three different areas. (IA indicates ‘industrial area’, CCA indicates ‘capital city area’, and PUA indicates ‘peri-urban area’).</p>
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19 pages, 2242 KiB  
Article
Presence of Heavy Metals in Irrigation Water, Soils, Fruits, and Vegetables: Health Risk Assessment in Peri-Urban Boumerdes City, Algeria
by Mohamed Younes Aksouh, Naima Boudieb, Nadjib Benosmane, Yacine Moussaoui, Rajmund Michalski, Justyna Klyta and Joanna Kończyk
Molecules 2024, 29(17), 4187; https://doi.org/10.3390/molecules29174187 - 4 Sep 2024
Viewed by 853
Abstract
This study investigates heavy metal contamination in soils, irrigation water, and agricultural produce (fruits: Vitis vinifera (grape), Cucumis melo var. saccharimus (melon), and Citrullus vulgaris. Schrade (watermelon); vegetables: Lycopersicum esculentum L. (tomato), Cucurbita pepo (zucchini), Daucus carota (carrot), Lactuca sativa (lettuce), Convolvulus Batatas (potato), [...] Read more.
This study investigates heavy metal contamination in soils, irrigation water, and agricultural produce (fruits: Vitis vinifera (grape), Cucumis melo var. saccharimus (melon), and Citrullus vulgaris. Schrade (watermelon); vegetables: Lycopersicum esculentum L. (tomato), Cucurbita pepo (zucchini), Daucus carota (carrot), Lactuca sativa (lettuce), Convolvulus Batatas (potato), and Capsicum annuum L. (green pepper)) in the Boumerdes region of Algeria. The concentrations of seven heavy metals (cadmium (Cd), chromium (Cr), copper (Cu), iron (Fe), nickel (Ni), lead (Pb), and zinc (Zn)) in soil and food samples were analyzed using atomic absorption spectrometry. Health risks associated with these metals were evaluated through the estimated daily intake (EDI), non-carcinogenic risks (using target hazard quotient (THQ), total target hazard quotient (TTHQ), and hazard index (HI)), and carcinogenic risks (cancer risk factor (CR)). Statistical analyses, including cluster analysis (CA) and Pearson correlation, were conducted to interpret the data. The results revealed the highest metal transfer as follows: Cd was most significantly transferred to tomatoes and watermelons; Cr to carrots; Cu to tomatoes; and Fe, Ni, Pb, and Zn to lettuce. Among fruits, the highest EDI values were for Zn (2.54·10−3 mg/day) and Cu (1.17·10−3 mg/day), with melons showing the highest Zn levels. For vegetables, the highest EDI values were for Fe (1.68·10−2 mg/day) and Zn (8.37·10−3 mg/day), with potatoes showing the highest Fe levels. Although all heavy metal concentrations were within the World Health Organization’s permissible limits, the HI and TTHQ values indicated potential health risks, particularly from vegetable consumption. These findings suggest the need for ongoing monitoring to ensure food safety and mitigate health risks associated with heavy metal contamination. Full article
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<p>Comparison of the metal content in the waters of different regions of Algeria [<a href="#B26-molecules-29-04187" class="html-bibr">26</a>,<a href="#B27-molecules-29-04187" class="html-bibr">27</a>,<a href="#B28-molecules-29-04187" class="html-bibr">28</a>,<a href="#B29-molecules-29-04187" class="html-bibr">29</a>,<a href="#B30-molecules-29-04187" class="html-bibr">30</a>,<a href="#B31-molecules-29-04187" class="html-bibr">31</a>,<a href="#B32-molecules-29-04187" class="html-bibr">32</a>].</p>
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<p>Dendrogram resulting from the hierarchical cluster analysis of the heavy metal concentrations in the studied soils.</p>
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<p>Comparison of the metal content in soils of different regions of Algeria [<a href="#B23-molecules-29-04187" class="html-bibr">23</a>,<a href="#B33-molecules-29-04187" class="html-bibr">33</a>,<a href="#B38-molecules-29-04187" class="html-bibr">38</a>,<a href="#B39-molecules-29-04187" class="html-bibr">39</a>,<a href="#B40-molecules-29-04187" class="html-bibr">40</a>,<a href="#B41-molecules-29-04187" class="html-bibr">41</a>,<a href="#B42-molecules-29-04187" class="html-bibr">42</a>,<a href="#B43-molecules-29-04187" class="html-bibr">43</a>].</p>
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<p>Dendrogram resulting from the hierarchical cluster analysis of the heavy metal concentration in the studied food.</p>
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<p>Transfer factors of the fruits and vegetables grown in the studied region of Boumerdes.</p>
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<p>Target hazard quotient (THQ) (<b>A</b>) and total target hazard quotient (TTHQ) (<b>B</b>) for consumers of the food from the studied area.</p>
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<p>Study area with sampling sites and location of industrial activities (a—Ezmam/Solgen Paper Factory; b—Imotep Pharm; c—EURL Lepro Chemical Plant Pack; d—GC BFE; e—SNC Hassani; f—Socotid).</p>
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15 pages, 3360 KiB  
Article
Assessment of the Climate Environmental Vulnerability Index for Urban Settlements on the Mediterranean Coast: A Case Study in Sicily
by Floralba Pirracchio Massimino, Rui Alexandre Castanho, Inmaculada Gómez, Víctor Rincón and Javier Velázquez
Urban Sci. 2024, 8(3), 130; https://doi.org/10.3390/urbansci8030130 - 30 Aug 2024
Viewed by 561
Abstract
Climate change poses a severe environmental crisis where many European urban centers face increased risks, among others, of flooding and/or water scarcity due to intense rainfall and prolonged droughts. Urgent adaptation measures are required to enhance resilience in urban, peri-urban, and agricultural areas [...] Read more.
Climate change poses a severe environmental crisis where many European urban centers face increased risks, among others, of flooding and/or water scarcity due to intense rainfall and prolonged droughts. Urgent adaptation measures are required to enhance resilience in urban, peri-urban, and agricultural areas against extreme weather events. This article describes a method for categorizing urban areas based on climate-related risks as a targeting and prioritization system for allocating climate resilience measures in cities. The method allows for calculating a climate vulnerability index value, considering temperature, precipitation, wind patterns, population density, altitude, and urban area. Focused on the Mediterranean region, particularly Sicily, the index application generates quantifiable vulnerability values for urban settlements, enabling comparison and prioritization. The reproducible and scalable method provides a valuable tool for urban analysis beyond the Mediterranean and can facilitate decision-making processes to initiate future studies and projects. Full article
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<p>Location of Sicily and of the ten cities analyzed.</p>
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<p>Phases of the methodology.</p>
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<p>Values of temperature average of Tmax absolute of period 1 (1965–1994) and period 2 (2022/2023), and finally the ‘average’ between both values per city and period, with value used as temperature parameter (T).</p>
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<p>Rainfall values of period 1 (1965–1994) and period 2 (2022/2023), and average between both values per city and period, with value used as rainfall parameter (P).</p>
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<p>Population and population density (Dens) values for the ten cities.</p>
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<p>Average wind speed values of period 1 (1965–1994) and period 2 (2022/2023), and average between both values per city and period, with value used as wind parameter (W).</p>
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<p>Climatic vulnerability index values along the 10 selected cities for the case study.</p>
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23 pages, 9305 KiB  
Article
Community-Based Resilience Analysis (CoBRA) to Hazard Disruption: Case Study of a Peri-Urban Agricultural Community in Thailand
by Alisa Sahavacharin, Fa Likitswat, Kim N. Irvine and Lihoun Teang
Land 2024, 13(9), 1363; https://doi.org/10.3390/land13091363 - 26 Aug 2024
Viewed by 1516
Abstract
The expansion of cities and land use changes have led to the emergence of peri-urban areas representing a transition between fully urbanized and agricultural regions in Southeast Asia. Peri-urban communities provide essential ecosystem services but are vulnerable to climate-related disruptions and socioeconomic challenges. [...] Read more.
The expansion of cities and land use changes have led to the emergence of peri-urban areas representing a transition between fully urbanized and agricultural regions in Southeast Asia. Peri-urban communities provide essential ecosystem services but are vulnerable to climate-related disruptions and socioeconomic challenges. Utilizing their unique characteristics, peri-urban communities can contribute to sustainable development and resilience. This study assesses the potential of peri-urban areas to meet future challenges for sustainable development in a changing world, focusing on the local pandan farming community of Pathum Thani, approximately 53 km north of Bangkok, using the Community-Based Resilience Analysis (CoBRA) approach. A formally established group of peri-urban farming households identified COVID-19, water quality, and solid waste as their primary disruptive challenges. The community identified economic stability and resources (land ownership, financial security, and government support), community and social support (collaborative community, and healthcare facilities), an environmental dimension (sufficient food and clean water), and an information dimension (news and knowledge update) as key community resilience characteristics, which highlight their comprehensive approach to hazard resilience. The study concludes that the community was moderately resilient to hazards and COVID-19 was the primary disrupting event over the past 10 years. To address future challenges in peri-urban agriculture, it is suggested to focus on enhancing economic diversification, strengthening social networks and support systems, implementing sustainable land management practices, and promoting access to timely and accurate information. Additionally, investing in infrastructure for water management and waste recycling, supporting small-scale farming initiatives, and fostering collaboration between farmers and local authorities can contribute to building resilience in peri-urban agricultural communities. Full article
(This article belongs to the Special Issue Sustainability and Peri-Urban Agriculture II)
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<p>Study area: (<b>a</b>) location of study area in Thailand; (<b>b</b>) land use (2021) in Pathum Thani Province. The study area is marked as a black circle. The transition zone between urban (red color) and the mixture of agricultural land is clearly evident; (<b>c</b>) satellite view of the study area (specific area enclosed by the red box; and (<b>d</b>) a drone image of the study area, with Khlong 3.</p>
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<p>Phases and Steps in the UNDP CoBRA Assessment framework (adapt from [<a href="#B36-land-13-01363" class="html-bibr">36</a>,<a href="#B38-land-13-01363" class="html-bibr">38</a>]).</p>
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<p>Community resiliency workshop (<b>a</b>) co-PIs and facilitators assisted participants in the discussion and then collected scores from each team; (<b>b</b>) workshop participants engaged in discussions while facilitators recorded their responses on flip charts.</p>
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<p>(<b>a</b>) Solid waste processing facility in the study area; and (<b>b</b>) water quality sampling in upper Khlong 3.</p>
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<p>The trend or change in achievement of resilience characteristics in the past 5 years.</p>
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<p>The community’s progress in developing resilience characteristics before and during crisis periods.</p>
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<p>(<b>a</b>) display of existing pandan products at the workshop sign-in desk; and (<b>b</b>) product development brainstorming at the workshop.</p>
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19 pages, 678 KiB  
Article
Land Rental Transactions in Ethiopian Peri-Urban Areas: Sex and Other Factors for Land Rent Transactions
by Sayeh Kassaw Agegnehu, Reinfried Mansberger, Moges Wubet Shita, Derjew Fentie Nurie and Ayelech Kidie Mengesha
Land 2024, 13(9), 1344; https://doi.org/10.3390/land13091344 - 24 Aug 2024
Viewed by 601
Abstract
The continuous reduction in peri-urban agricultural land due to spatial urban expansion forces subsistence farmers to seek arable land through different land access strategies. Among these, land rental transactions are crucial for accessing arable land across different regions. This study aimed to examine [...] Read more.
The continuous reduction in peri-urban agricultural land due to spatial urban expansion forces subsistence farmers to seek arable land through different land access strategies. Among these, land rental transactions are crucial for accessing arable land across different regions. This study aimed to examine factors affecting land rental transactions in the peri-urban areas of the East Gojjam Administrative Zone in Ethiopia. Data were collected from 353 household heads of peri-urban areas, who were affected by expropriation. A total of 350 valid responses were analyzed using descriptive and inferential statistics and an econometrics model. The results indicated that 58% of the respondents participated in both renting and renting out land, which underlines the importance of land rental transactions in the peri-urban areas. Specifically, 60% of female-headed households were engaged in land rental transactions, with 14% renting in and 46% renting out land. In contrast, 38% of the male-headed respondents rented land, while only 19% rented out land. The model result identified sex, landholding size, number of oxen, participation in off-farm activities, and extension service as significant determinant variables for renting land. Households made land rental agreements both orally and in written documents, with oral agreements being more prevalent. Transaction dues were conducted through sharecropping and fixed rents, with sharecropping being the most common method. Thus, land rental transactions play pivotal roles to support the livelihoods of peri-urban subsistence farmers. Full article
(This article belongs to the Special Issue Gender and Land)
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<p>Study area of Debre Markos City (blue area) and Bichena Town (green area). Source: Ethiopian boundaries—openAFRICA; Orthoimages—Google.maps.</p>
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17 pages, 8668 KiB  
Article
Peri-Urban and Urban Green Space Management and Planning: The Case of Thessaloniki, Greece
by Maria Baxevani, Dimitrios Tsiotas, Georgios Kolkos, Eleni Zafeiriou and Garyfallos Arabatzis
Land 2024, 13(8), 1235; https://doi.org/10.3390/land13081235 - 8 Aug 2024
Cited by 1 | Viewed by 653
Abstract
With the increase in population and commercial development, urban development has led to a decrease in natural vegetation and an increase in solid surfaces, which negatively affect the environment. Maintaining green spaces in cities is emerging as a critical intervention for improving living [...] Read more.
With the increase in population and commercial development, urban development has led to a decrease in natural vegetation and an increase in solid surfaces, which negatively affect the environment. Maintaining green spaces in cities is emerging as a critical intervention for improving living conditions. This research, conducted in Thessaloniki, revealed that citizens face problems in using green space, which needs to be addressed. Through questionnaires distributed online, we examined citizens’ concerns about urban green space, including the peri-urban forest of Thessaloniki and its cities. The need for regeneration and new green networks is highlighted, as well as the importance of citizen participation in the management of these spaces at the local level. The analysis of the data results in proposals for action, including the regeneration of green spaces, their interconnection with cycle paths and pedestrian walkways, and the creation of a network of applications to inform citizens. These proposals are important for improving the environment and enhancing sustainability in urban development. Full article
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<p>The peri-urban forest of Thessaloniki Seich-Su in the municipality map, including information on the sample size municipal distribution and indicative photos of the Seich-Su’s vegetation (data source: [<a href="#B40-land-13-01235" class="html-bibr">40</a>]; picture source: own archive).</p>
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<p>Maps showing the road network, recreation infrastructure, protection infrastructure, and the vegetation map of the Seich-Su peri-urban forest in Thessaloniki. Related pictures are included in each window (data source: [<a href="#B40-land-13-01235" class="html-bibr">40</a>]; picture source: own archive).</p>
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<p>Significant correlations between the questionnaire variables (variable descriptions are shown in <a href="#land-13-01235-t002" class="html-table">Table 2</a>).</p>
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<p>The community detection of the correlation network composed of the available questionnaire variables (the node color denotes community membership, and the node size is proportional to the weighted degree; variable descriptions are shown in <a href="#land-13-01235-t002" class="html-table">Table 2</a>).</p>
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