Rethinking Urban Lawns: Rewilding and Other Nature-Based Alternatives
Abstract
1. Introduction
- (a)
- To extend the conceptual framework established earlier [2] toward the practical requirements for implementing nature-based strategies for urban lawns;
- (b)
- To analyse selected case studies in Europe and Asia, complemented by insights from the literature review, in order to develop a comprehensive typology of NBS related to urban lawns, and identify barriers and opportunities for their implementation in diverse urban contexts;
- (c)
- To formulate practical recommendations and a future research direction for promoting NBS alternatives to conventional lawns, including rewilding, to enhance ecological performance, social acceptance, and management adaptability.
2. Materials and Methods
- Phase 1: Conceptual grounding—conduct a focused narrative review of existing literature to elaborate on the key aspects of lawn research, such as: (a) biodiversity, (b) ecosystem services and ecosystem disservices, (c) public perception, attitude, and preferences, and (d) NBS-related lawn alternatives to identify conceptual and practical gaps.
- Phase 2: Case study analysis—examine ten selected case studies representing various perspectives of lawn research to investigate how they appear in practice, highlighting challenges and opportunities, while linking findings back to the literature to reinforce the theoretical foundation.
- Phase 3: Recommendations for practical application and future research to support the integration of the nature-based lawn alternatives (including rewilding) into the planning, design, and management of UGS.
2.1. Literature Review
2.2. Case Study
- (1)
- Conventional lawns (taking the biggest area in the cities, common for most UGS), which are cut on average 8–12 times per season (or more) to a height of 3–4–10 cm according to the official municipal standards; with remaining the clipping on the area and mulching.
- (2)
- Sports lawns (e.g., football fields), which are typically subject to more intensive management. They occupy the UGS of sports facilities and account for only a small proportion of the total urban lawn area.
- (3)
- Meadow-like lawns, representing a lawn alternative, which are mowed one to three times per season, and the clippings removed. In European cities (especially German and Swedish), there is a rise in using this type of lawn not only in public parks, but also in other types of UGS, including private gardens, and road embankments inside or on the outskirts of cities.
- (4)
- Other sustainable lawn alternatives (e.g., permaculture or edible lawns, naturalistic herbaceous plantings, grass-free lawns, lawns comprised exclusively of locally native species, pictorial meadows, and rewilding-oriented lawns) designed to reduce resource inputs and maintenance (mowing once or twice per season or not mowing at all) while enhancing biodiversity, ecosystem services, and habitat quality for urban wildlife (mostly insects); they are increasingly implemented in public parks, institutional landscapes (e.g., university campuses), and experimental urban sites.
2.3. Recommendations for Practical Application
3. Results
3.1. Lawn as a Contradictory Phenomenon
3.1.1. Symbol of Prosperity Versus High Ecosystem Disservices and Maintenance Costs
3.1.2. “Natural” Space Versus Artificial Habitat and Homogenization
3.1.3. Green Space Versus a “Brownscape”
3.1.4. Social and Emotional Value Versus Functional Utility
3.2. Integrating Contradictions: Toward Sustainable Alternatives (NBS) and Rewilding for Urban Lawns
3.2.1. Rationale and Benefits of NBS for Urban Lawns
3.2.2. Typology of NBS for Urban Lawns
- (1)
- Urban semi-natural grasslands retain a close-to-natural or semi-natural composition, often resulting from historical land use such as traditional farming practices (pastures and meadows) rather than intensive management, where grasses and forbs thrive together, providing valuable benefits for people and wildlife through essential ecosystem services. They often include remnants of older grasslands, which are mainly found in old parks like landscape gardens [136], where, before the introduction of the motorized lawn mower in the 1950th, such grasslands were used as pastures and meadows. Further examples can be found in urban parks, road verges, and other green spaces, including Tempelhofer Feld in Berlin (former airport area), Adlershof district in Berlin, and Lene-Voigt Park (former railway station) in Leipzig. Additional examples are provided by interventions within the peri-urban grassland/floodplain restoration projects in Leipzig, including Auwald (Riverside/Floodplain Forest), as well as the metropolitan grassland biodiversity program and Appia Antica Regional Park in Rome (Figure 9).
- (2)
- Rewilded lawns (spontaneous urban vegetation) are represented by areas where largely unmanaged or self-establishing (naturally or spontaneously growing) vegetation, which is not intentionally planted and cultivated by humans. They create more natural, species-rich covers. Our studies found that in Western, Northern (and recently in Eastern) Europe, the “go wild” approach is popular (e.g., Park Gleisdreieck in Berlin), whereas in China, Vietnam, and Russia, a balance is needed between the wild, variable, species-rich qualities of spontaneous vegetation (which can be seen as messy) and a better-kept lawn appearance (Figure 10). Hence, a managed mixed lawn using a “cues to care” approach of Nassauer [137] may be more successful than relying solely on entirely spontaneous growth.
- (3)
- Urban species-rich perennial meadows (meadow-like lawns and grass-free tapestry lawns) use appropriate native perennial species to form dense, low-growing covers that need little mowing. They can be created by sowing seeds or planting pre-grown plugs—the faster but costlier option. Seeded lawns take longer to fill in, and some grasses may eventually return. Once established, they need minimal maintenance and can be walked on, though people often avoid stepping on the flowers. Examples include urban meadows within the projects on adaptive planting to enhance biodiversity and cope with climate change, and to design and manage meadow-like plant communities, where wildflower species play a significant role (but grasses can still be the foundation for such meadows) in city districts of Barcelona, Beijing, and Moscow. Also, they are promoted within the Parks programme and projects on restoration of species-rich flowering meadows (Blühwiesen) in Berlin (e.g., Park Gleisdreieck) and Leipzig (e.g., Johanna Park, Friedenspark), several kindergartens of Leipzig, as well as at the campuses of the UFZ and the Uppsala and Stockholm Universities. Grass-free/tapestry lawns, which are made from planted low-growing flowering perennial and annual species but without any grasses and cut once a season, are closely related to this category (e.g., SLU campus in Uppsala) (Figure 11).
- (4)
- Naturalistic mixed-herbaceous plantings—an approach proposed by Dunnett and Hitchmough [138] that combines native herbaceous (perennials, including bulbs) and grass species with attractive non-native, flowering prairie plants and low-growing shrubs depending on climate (e.g., xerophyte species). The primary goal of this type was addressing biodiversity needs (attract pollinators) and the preference of urban citizens to bright, pretty flowers that could reinforce the aesthetic acceptance of alternative solutions. Among the examples are interventions within Barcelona’s naturalisation Program and Superblocks Program, including greening the streets, reclaiming of inner blocks, and establishing green corridors with naturalistic mixed-herbaceous plantings with grasses and perennials, wildflower meadows in the Citadelle park. Many large naturalistic perennial plantings are found in Moscow at Krymskaya Embankment, Triumphalnaya Square, and Park Muzeon. Planting with native and non-native species in a more naturalistic style is detected in public parks of St. Petersburg, Leipzig, Berlin, and Xi’an, including the Botanical Garden areas. Greening with perennial plantings is typical for the campuses of the Uppsala and Stockholm Universities (Figure 12). This type is quite diverse and reflects the specifics of local perennial plants’ availability in nurseries. This type is perhaps one of the most “horticultural” types that can include more maintenance operations compared to other, more “nature” driven types.
- (5)
- Mixed-vegetation groundcovers are low-growing plant assemblages (grasses, forbs, and herbs) designed to replace conventional lawns in some particular parts of urban green spaces. They provide continuous ground cover, often similar in appearance to uniform lawns, while enhancing biodiversity, providing pollinator habitat, and protecting soils. Case studies in Moscow and St. Petersburg show the shift of public preference for a mix of cultivated and spontaneous plants, highlighting that the success of groundcovers depends on balancing ecological aesthetics with public perception of “wildness” and maintenance. Plant composition varies depending on climatic conditions—northern cities such as Uppsala, Stockholm, and St. Petersburg, as well as Moscow, tend to use low-growing perennial groundcover species. In contrast, Barcelona and Rome favour mixed-vegetation groundcovers using drought-tolerant Mediterranean groundcovers. In Chinese cities, shade-tolerant native species are used, e.g., in demonstration gardens on the Xi’an University campus (Figure 13).
- (6)
- Edible lawn alternatives are based on plants such as creeping herbs (e.g., thyme, oregano), strawberries, vegetables, low-growing fruit plants, and certain clovers that can be grown as a ground cover. Being part of the broader edible landscape concept, they provide a functional, sustainable, and often scented/aromatic alternative to traditional grass, attract pollinators, and produce food. Examples are found in community gardens, residential courtyards, and public green spaces in Leipzig and Berlin, but are not yet widely adopted in Swedish, Vietnamese, and Chinese cities (except for the Xi’an University campus and within the roof garden of the GreenCityLabHuế project). However, edible lawns are emerging in Moscow and St. Petersburg through urban gardening initiatives that combine edible and ornamental plants in residential/blocks’ green areas, street verges, and flowerbeds, creating a mix of aesthetic appeal and functional food production (Figure 14).
- (7)
- Pictorial (annual) meadows are created from native and exotic annual plants, providing colourful flowering sites that are also highly attractive to wildlife. They are found on university campuses and public parks in Stockholm and Uppsala. In Berlin and Leipzig, pictorial and wildflower meadow pilots have been implemented as part of municipal greening campaigns. In Germany, such meadows are often called Blühwiesen (the same as urban species-rich meadows—type 1) (Figure 15).
| Type of Alternative | Primary Goals | Other Co-Benefits | Design, Plant Composition, and Maintenance | Case Study | References |
|---|---|---|---|---|---|
| (1) Urban semi-natural grasslands (Figure 9) | Ecological (support original flora/fauna (pollinators)) | Carbon sequestration, erosion control | Remnants of historically natural or semi-natural grasslands, or areas managed to mimic them. Rich variety of native wildflowers and grasses that developed over time. Mowing once or twice per year or grazing; no irrigation; adaptive to local soil and climate | Leipzig, Rome, Berlin | [34,38,39,81,83,95,131,136,139,140] |
| (2) Rewilded lawns (spontaneous urban vegetation) (Figure 10) | Biodiversity restoration, ecosystem service enhancement | Carbon sequestration, microhabitats for insects and birds, and aesthetic variation | Mixture of spontaneously appearing native and exotic plants. Minimal human intervention; occasional control of aggressive weeds that could also become invasive; supports ecological succession | Leipzig, Berlin | [2,37,40,45,72,73,74,76,87,125,141,142] |
| (3) Urban species-rich meadows (meadows-like lawns) (Figure 11) | Biodiversity enhancement (incl. pollinator support), habitat provision | Aesthetic value, seasonal floral diversity | Intentionally planted or managed to have a high diversity of flowering plants, grasses, and other species. High content of flowering perennial plants. Composition and structure differ depending on the availability of soil nutrients, water, and mowing regime. Mowing once or twice per year; minimal irrigation; adaptive to local soil and climate | Barcelona, Beijing, Berlin, Leipzig, Moscow, Stockholm, Uppsala | [44,45,48,49,53,82,98,107,114,131,139,143,144,145] |
| (4) Naturalistic herbaceous perennial plantings (Figure 12) | Biodiversity and aesthetic value | Could include Nitrogen-fixing species, pest control | Plant communities made from perennial grasses and forbs, native as well as some exotics. Low to medium maintenance; requires initial planting and occasional weeding | Berlin, Leipzig, Moscow, St.-Petersburg, Stockholm, Xi’an, Uppsala. | [2,6,43,48] |
| (5) Mixed-vegetation ground covers (Figure 13) | Soil protection, multifunctionality | Microclimate regulation, runoff reduction, visual diversity | Low maintenance, drought- or shade-tolerant ground-cover species; include diversity of species with decorative characteristics (diversity of colour, texture and forms). Minimal irrigation and occasional weeding | Leipzig, Berlin, Moscow, St.-Petersburg, Uppsala, Xi’an | [11,48,51] |
| (6) Edible lawn alternatives (Figure 14) | Food production and multifunctionality | Pollinator habitat, soil health, urban microclimate benefits | Often permaculture-inspired: low or no mowing, diverse edible species; some irrigation may be needed; maintenance depends on species selection | Berlin, Leipzig, Moscow, St. Petersburg | [11,51,57,133] |
| (7) Pictorial (annual) meadows (Figure 15) | Pollinator habitat, decorative purpose (colourful, designed meadow) | Visual diversity, runoff reduction | Made from native and exotic annual plants. Occasional weeding. Cut at the end of the season and reseed in the next year | Berlin, Leipzig, Stockholm, Xi’an, Uppsala | [1,48] |
3.2.3. Implementation Methods and Practical Considerations
- Selecting appropriate sites;
- Reducing management intensity;
- Planting native species;
- Engaging local communities in the planting and maintenance process;
- Applying adaptive management (e.g., research-based time of mowing aiming to achieve the best flowering effect and attract different groups of pollinators during the vegetative season).
4. Discussion
4.1. Urban Lawns Reconsidered
4.2. Nexus Between NBS, Rewilding, and Other Sustainable Alternatives for Urban Lawns
4.3. Limitations and Future Research
- Conducting longitudinal studies to assess ecological and social outcomes of alternative lawns over multiple seasons and years.
- Expanding comparative analyses to cities outside Eurasia, including arid, tropical, and subtropical regions, particularly in the Southern Hemisphere, using similar methodologies.
- Evaluating cost-effectiveness and scalability of nature-based and rewilding interventions.
- Integrating multi-disciplinary approaches, combining ecology, landscape architecture, urban planning, and social sciences to bridge theory and practical implementation.
- Adopting a transdisciplinary approach for investigating and achieving socio-cultural acceptance of diverse lawn alternatives and for extending strategies for community engagement, co-design, and environmental education.
5. Conclusions
Supplementary Materials
Author Contributions
Funding
Institutional Review Board Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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| Category of Research | Research Aspect (s) | References |
|---|---|---|
| 1. Lawn and the benefits provided | 1.1. Biodiversity and vegetation aspects | Aguilera et al., 2019 [79]; Baldi et al., 2023 [58]; Beery and Lekies, 2019 [80]; Buchholz et al., 2018, 2020 [34,35]; Chollet et al., 2018 [53]; Fekete et al., 2024 [81]; Griffiths-Lee et al., 2022 [50]; Hedblom et al., 2017 [1]; Hwang et al., 2017 [40]; Ignatieva, 2017 [48]; Lhomme-Duchadeuil, 2018 [82]; Lonati et al., 2018 [39]; Müller et al., 2013 [52]; Rudolph et al., 2017 [83]; Sehrt et al., 2020 [84]; Smith and Fellowes, 2013, 2014 [51,85]; Southon et al., 2017 [86]; Trémeau et al., 2023 [87]; Wastian et al., 2016 [88]; Winkler et al., 2024 [13]; Wolfin et al., 2021 [47]; Yang et al., 2019a [4] |
| 1.2. Ecosystem services and disservices provided by lawns | Amani-Beni et al., 2018 [89]; Barnes et al., 2020 [90]; Bø et al., 2024 [91]; Chollet et al., 2018 [53]; Çakır and Sancar, 2022 [92]; Marcus and Sachs, 2014 [93]; Cumberbatch et al., 2025 [94]; Fekete et al., 2024 [81]; Filibeck et al., 2016 [38]; Fischer et al., 2020 [95]; Francis, 2018 [96]; Griffiths-Lee et al., 2022 [50]; Gu et al., 2015 [97]; Hedblom et al., 2017 [1]; Ignatieva and Hedblom, 2018 [61]; Ignatieva et al., 2020 [8]; Monteiro, 2017 [11]; Müller et al., 2013 [52]; Przybysz et al., 2021 [98]; Rudolph et al., 2017 [83]; Shchepeleva et al., 2019 [99]; Thienelt and Anderson, 2021 [100]; Thompson and Kao-Kniffin, 2017 [101]; Trémeau et al., 2023 [87]; Turgeon and Fidanza, 2017 [102]; van Delden et al., 2016 [103]; Wang et al., 2016 [12]; Wheeler et al., 2017, 2020 [16,104]; Winkler et al., 2024 [13]; Zhang et al., 2015 [105] | |
| 2. Lawn as a socio-cultural phenomenon | 2.1. Public perception, attitude, and preferences | Barnes, 2022 [90]; Beery & Lekies, 2019 [80]; Filibeck et al., 2016 [38]; Fischer et al., 2020 [95]; Francis, 2018 [96]; Hartin et al., 2022 [15]; Hedblom et al., 2017 [1]; Hu et al., 2025 [106]; Konstantinova et al., 2025 [107]; Ignatieva, 2017 [48]; Ignatieva et al., 2020 [8]; Ignatieva et al., 2024, 2025 [41,42]; Poškus and Poškienė, 2015 [108]; Prior and Brady, 2017 [109]; Ramer et al., 2019 [46]; Southon et al., 2017 [86]; Yang et al., 2019 [4]; Yang et al., 2019 [62]; Wheeler et al., 2020 [104]; Zhang et al., 2015 [105] |
| 2.2. History of lawn development, management, and maintenance | Bretzel et al., 2020 [43]; Fekete et al., 2024 [81]; Hartin et al., 2022 [15]; Ignatieva, 2017 [48]; Ignatieva et al., 2018 [63]; Ignatieva et al., 2020 [2]; Ignatieva and Hedblom, 2018 [61]; Konstantinova et al., 2025 [107]; Paudel and States, 2023 [6]; Sehrt et al., 2020 [84]; Smetana and Crittenden, 2014 [110]; Smith and Fellowes, 2013, 2014 [51,85]; Trémeau et al., 2023 [87]; Turgeon and Fidanza, 2017 [102]; Yang et al., 2019 [111]; Wheeler et al., 2020 [104]; Zhang et al., 2015 [105] | |
| 3. Sustainable alternatives/Lawn-related NBS | 3.1. Nature-based alternatives to conventional lawns, lawn-related NBS, and sustainable lawn management | Baldi et al., 2023 [58]; Barnes et al., 2020 [90]; Beumer, 2018 [112]; Bonthoux and Chollet, 2024 [113]; Bretzel et al., 2020, 2023 [43,44]; Buchholz et al., 2018 [34]; Chollet et al., 2018 [53]; Çakır and Sancar, 2022 [92]; Dushkova et al., 2021, 2025a [59,60]; Fekete et al., 2024 [81]; Fischer et al., 2020 [95]; Garret, 2014 [54]; Gu et al., 2015 [97]; Hwang et al., 2017 [40]; Jiang and Tuan, 2023 [114]; Smith and Fellowes, 2014 [51]; Konstantinova et al., 2025 [107]; Ignatieva, 2017 [48]; Ignatieva and Hedblom, 2018 [61]; Ignatieva et al., 2023 [20]; Lonati et al., 2018 [39]; Mårtensson, 2017 [49]; Müller et al., 2013 [52]; Pilarchik and D’Amore, 2023 [55]; Przybysz et al., 2021 [98]; Rudolph et al., 2017 [83]; Sehrt et al., 2020 [84]; Smith and Fellowes, 2013, 2014 [51,85]; Stevens, 2020 [56]; Wolfin et al., 2021 [47] |
| 3.2. Lawn and rewilding | Bauer and von Atzigen, 2019 [115]; Bonthoux and Chollet, 2024 [113]; Cabon et al., 2022 [116], Carver et al., 2021 [117]; Chollet et al., 2018 [53]; Clayton, 2019 [118]; Fischer et al., 2020 [95]; Jørgensen, 2015 [119]; Hobbs and White, 2016 [120]; Hwang et al., 2017 [40]; Hu et al., 2025 [106]; Mata et al., 2025 [121]; Moxon et al., 2023 [76]; Mumaw and Bekessy, 2017 [122]; Owens and Wolch, 2019 [123]; Pettorelli and Bullock, 2023 [124]; Prior and Brady, 2017 [109]; Rotherham, 2019 [125]; Southon et al., 2017 [86]; Sikorska et al., 2021, 2023 [36,37]; Stone, 2019 [77]; Tessler et al., 2023 [45]; Trémeau et al., 2023 [87]; Turnbull et al., 2025 [126]; Wartmann and Lorimer, 2024 [127]; Webb and Moxon, 2021 [128]; Winkler et al., 2024 [13]; Zoderer, 2025 [129]; Zoderer and Wieser, 2025 [130] |
| Case Study | Ecological Parameters, Incl. Biodiversity Aspects | Social Aspects (Perception, Attitude, and Preferences) | Management and Maintenance Specifics |
|---|---|---|---|
| Uppsala, Stockholm (Sweden) | Direct (landscape) observation, data on plants and pollinators | on-site questionnaire survey among citizens, and observational studies of people’s activities | Semi-structured interviews with experts * |
| Berlin, Leipzig (Germany) | Direct (landscape) observation, plant biodiversity assessment of lawns in parks, and verges | Walking interviews with park visitors, observational studies of people’s activities | Semi-structured interviews with experts * |
| Barcelona (Spain) and Rome (Italy) | Direct (landscape) observation | Observational studies of people’s activities | Analysis of documents and policies regulating lawn construction and management |
| Moscow, St.-Petersburg (Russia) | Direct (landscape) observation, plant biodiversity assessment of lawns in parks and private gardens | Online and on-site questionnaire survey among citizens | Analysis of documents regulating lawn construction and management |
| Beijing, Xi’an (China) | Landscape observation, plant and pollinator biodiversity assessment of lawns in parks, green corridors, and verges | Observational studies of people’s activities, walking interviews | Semi-structured interviews with experts * |
| Hue City (Vietnam) | Landscape observation in public parks and private gardens (lawn as a part of green spaces). | Semi-structured interviews with experts * | Semi-structured interviews with experts * |
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Dushkova, D.; Ignatieva, M. Rethinking Urban Lawns: Rewilding and Other Nature-Based Alternatives. Diversity 2025, 17, 830. https://doi.org/10.3390/d17120830
Dushkova D, Ignatieva M. Rethinking Urban Lawns: Rewilding and Other Nature-Based Alternatives. Diversity. 2025; 17(12):830. https://doi.org/10.3390/d17120830
Chicago/Turabian StyleDushkova, Diana, and Maria Ignatieva. 2025. "Rethinking Urban Lawns: Rewilding and Other Nature-Based Alternatives" Diversity 17, no. 12: 830. https://doi.org/10.3390/d17120830
APA StyleDushkova, D., & Ignatieva, M. (2025). Rethinking Urban Lawns: Rewilding and Other Nature-Based Alternatives. Diversity, 17(12), 830. https://doi.org/10.3390/d17120830

