Grasslands
Grasslands
Grasslands are ecosystems dominated primarily by grasses and other herbaceous plants rather than dense tree cover. They occur on every continent except Antarctica and include temperate prairies, steppes, tropical savannas, alpine meadows, pampas, grassveld, and many other open ecosystems. Grasslands support distinctive plant and animal communities while providing food production, wildlife habitat, water regulation, soil protection, carbon storage, and livelihoods for pastoral and agricultural societies. :contentReference[oaicite:0]{index=0}
Although grasslands are sometimes treated as degraded forests or landscapes awaiting tree growth, many are ancient ecosystems maintained naturally by climate, grazing, fire, soils, and interactions among plants and herbivores. Converting these naturally open habitats to forests or intensive agriculture can therefore destroy rather than restore biodiversity. :contentReference[oaicite:1]{index=1}
Global Importance and Biodiversity
Grasslands cover enormous areas of the Earth's surface and contain substantial biological diversity. Their vegetation ranges from highly productive tallgrass systems to dry shortgrass steppes and alpine pastures. Grasslands can support large grazing mammals, predators, birds, insects, pollinators, reptiles, soil organisms, and specialized plant communities.
Major grassland regions include the Great Plains of North America, the South American pampas, Eurasian steppes, African savannas and grasslands, Australian temperate grasslands, the Tibetan Plateau, and extensive open ecosystems in India and Central Asia. Many of these landscapes remain economically important working lands where livestock production, agriculture, wildlife conservation, and traditional pastoral practices coexist. :contentReference[oaicite:2]{index=2}
Plant diversity plays an important role in grassland functioning. Research indicates that more diverse plant communities can improve ecosystem productivity, stability, resilience to drought, soil processes, and resistance to grazing pressure. Conversely, nutrient enrichment, intensive land use, and habitat conversion can reduce plant diversity and alter ecosystem functioning. :contentReference[oaicite:3]{index=3}
Grazing and Grassland Management
Grazing is one of the defining ecological processes of many grasslands. Wild herbivores and domesticated livestock influence vegetation height, nutrient cycling, plant competition, soil conditions, and habitat structure.
The ecological effects of livestock grazing depend strongly on grazing intensity, climate, soil conditions, livestock type, timing, and management practices. Moderate or carefully controlled grazing can sometimes maintain plant diversity and create varied habitat structures, while excessive grazing can reduce vegetation, biodiversity, soil carbon, and ecosystem multifunctionality. These negative effects may become especially severe in dry and arid grasslands. :contentReference[oaicite:4]{index=4}
Management approaches include rotational grazing, temporary livestock exclusion, seasonal resting, adaptive grazing, and combinations of grazing and prescribed fire. Complete removal of grazing is not always beneficial. Long-term exclusion can allow litter and nutrients to accumulate, increasing competition for light and sometimes reducing plant diversity. :contentReference[oaicite:5]{index=5}
Fire Ecology
Fire is another natural process responsible for maintaining many grassland and savanna ecosystems. Periodic burning removes accumulated vegetation, recycles nutrients, limits woody plant encroachment, and creates a mosaic of habitat conditions.
Prescribed burning is widely used in grassland management. Research from California and the Great Plains demonstrates that carefully managed fire can suppress invasive grasses, encourage native vegetation, and improve habitat diversity. Fire and grazing can also interact, as grazing animals are attracted to recently burned areas and thereby create differences in vegetation height and structure across a landscape. :contentReference[oaicite:6]{index=6}
Fire suppression can substantially alter grasslands by permitting shrubs and trees to expand into formerly open habitats. At the same time, inappropriate burning regimes or unusually severe wildfires can damage ecosystems, making adaptive fire management important.
Climate Change and Carbon Storage
Grasslands participate extensively in the global carbon cycle. Much of their carbon is stored below ground in roots and soils rather than above ground in woody vegetation. This makes healthy grassland soils an important long-term carbon reservoir.
Climate, grazing, fertilization, precipitation, temperature, and plant diversity all influence grassland carbon storage. Long-term experiments indicate that perennial prairie and managed pasture can retain soil carbon while some converted agricultural systems lose it. Research also shows that inappropriate grazing may offset potential climate-driven soil-carbon gains. :contentReference[oaicite:7]{index=7}
Climate change affects grasslands through changing precipitation, increasing temperatures, drought, altered growing seasons, frost events, and shifting plant productivity. Drought can interrupt long-term productivity trends and alter soil respiration, while changing rainfall and nitrogen availability can affect both aboveground vegetation and belowground roots and microorganisms. :contentReference[oaicite:8]{index=8}
Grasslands themselves may contribute to climate mitigation when existing ecosystems are protected and degraded systems are restored. However, climate policies that assume all open land should be planted with trees risk damaging natural grasslands and savannas.
Soils and Ecosystem Function
Grassland soils contain complex communities of bacteria, fungi, roots, insects, and other organisms that regulate nutrient cycling, decomposition, water retention, and carbon storage.
Plant diversity and soil microbial communities are closely connected. Long-term restoration can rebuild plant-soil relationships, while warming, drought, nutrient enrichment, and intensive grazing can alter microbial communities and soil processes.
Nitrogen enrichment presents a particular ecological challenge. Fertilization can temporarily increase plant production but may eventually reduce plant and microbial diversity. Research indicates that ecological thresholds can occur where additional carbon accumulation comes at the expense of biodiversity. :contentReference[oaicite:9]{index=9}
Grassland Wildlife
Grasslands provide habitat for numerous wildlife species adapted specifically to open landscapes. These include grazing mammals, burrowing mammals, predators, insects, bats, pollinators, reptiles, and large numbers of birds.
Grassland birds are particularly sensitive indicators of habitat change. Agricultural conversion, intensive grazing, fragmentation, oil development, altered fire regimes, and loss of natural grazing patterns have contributed to declines in many species.
Studies show that maintaining varied vegetation structures can benefit different bird species because some require short vegetation while others prefer taller or denser grass. Management involving combinations of grazing, fire, rest periods, and prairie restoration can therefore create a habitat mosaic supporting greater bird diversity. :contentReference[oaicite:10]{index=10}
Prairie strips embedded in agricultural fields can also provide breeding habitat, demonstrating that conservation can sometimes be incorporated into working agricultural landscapes.
Pollinators, Insects, and Other Animals
Grassland ecological diversity extends far beyond large mammals and birds. Bees, butterflies, dung beetles, ground-dwelling arthropods, and many other invertebrates contribute to pollination, decomposition, nutrient cycling, and food webs.
Vegetation structure can influence insect diversity. Research using drone measurements, for example, has found relationships between grassland vegetation height, flower diversity, and bee diversity. Intensively managed meadows may support lower insect and bat activity than more structurally diverse grasslands. :contentReference[oaicite:11]{index=11}
Dung beetles also play important roles in grazed ecosystems by breaking down manure and influencing nutrient cycling and greenhouse-gas emissions.
Degradation and Habitat Loss
Grasslands are among the world's most extensively modified terrestrial ecosystems. Large areas have been converted to cropland, urban development, plantations, intensive pasture, roads, energy infrastructure, or other land uses.
Fragmentation isolates remaining habitat and can affect species that require large continuous landscapes. Agricultural intensification can simplify vegetation structure and reduce biodiversity, while abandonment of traditionally managed semi-natural grasslands can also result in ecological decline when shrubs and trees replace open habitats.
Other degradation processes include soil erosion, overgrazing, invasive species, nutrient enrichment, mining, altered fire regimes, and woody plant encroachment.
Invasive Species and Woody Encroachment
Invasive plants and expanding shrubs or trees can fundamentally transform grassland ecosystems. Studies have examined invasive common milkweed, African lovegrass, black pine, and other species whose expansion changes vegetation structure and competes with native plants.
Woody encroachment can occur when grazing, fire regimes, climate, or land management change. Although trees are ecologically beneficial in forests, increasing tree cover within naturally open grasslands may reduce characteristic grassland biodiversity and alter soils, hydrology, wildlife habitat, and ecosystem processes. :contentReference[oaicite:12]{index=12}
Modern satellite imagery, drones, radar, and machine-learning techniques increasingly allow researchers to monitor invasive species, livestock density, erosion, vegetation change, and management intensity over large landscapes.
Grassland Restoration
Grassland restoration attempts to rebuild native plant communities, ecological processes, biodiversity, soil function, and ecosystem services on degraded land.
Restoration techniques include reseeding native plants, transferring hay or seed-rich material, controlling invasive species, restoring grazing or fire regimes, reducing livestock pressure, improving soil conditions, and allowing passive natural recovery.
No single method works everywhere. Restoration success depends on climate, aridity, past land use, remaining native vegetation, soils, and the type and severity of degradation.
Research from Kenyan grasslands shows that restoration can rebuild soil carbon and forage while avoiding some ecological trade-offs associated with invasive tree expansion. Restoration may also reduce competition between wildlife and livestock by increasing available resources. :contentReference[oaicite:13]{index=13}
Grasslands and Human Livelihoods
Grasslands are working landscapes as well as natural ecosystems. Hundreds of millions of people depend directly or indirectly on pastoralism, ranching, livestock production, agriculture, tourism, wildlife, and other grassland resources.
Traditional pastoral systems developed around seasonal movement, variable rainfall, fire, and grazing. Sustainable management therefore often requires balancing livestock production with wildlife conservation, soil protection, carbon storage, water resources, and local community needs.
Conservation strategies increasingly recognize that protecting grasslands cannot rely solely on government-owned reserves. Conservation easements, community-managed lands, sustainable ranching, Indigenous stewardship, and transboundary conservation areas can maintain ecological functions while allowing continued human use.
Monitoring and Technology
Remote sensing has transformed grassland research and management. Satellite platforms such as Sentinel can measure vegetation cover, productivity, grazing intensity, livestock distribution, land conversion, and restoration progress.
Drones provide much finer-scale information about vegetation height, invasive plants, erosion, flowering plants, and habitat structure. Machine-learning models are increasingly combined with these technologies to map and predict ecological changes over large regions. :contentReference[oaicite:14]{index=14}
These technologies allow researchers and land managers to monitor vast grassland regions that would be difficult or impossible to survey entirely from the ground.
Conservation Challenges
Grassland conservation faces several interconnected challenges:
- Conversion to cropland and development
- Habitat fragmentation
- Excessive or poorly timed grazing
- Loss of traditional grazing systems
- Fire suppression or inappropriate burning
- Climate change and drought
- Invasive species
- Woody plant encroachment
- Mining and infrastructure development
- Agricultural intensification
- Nutrient pollution
- Soil erosion
- Declining grassland wildlife populations
Successful conservation generally requires maintaining both biodiversity and the natural ecological processes that created grasslands in the first place.
Conclusion
Grasslands are complex, ancient, and globally important ecosystems rather than simply open spaces between forests. Their ecological character emerges from interactions among climate, soils, grasses, herbivores, fire, microorganisms, and human management.
They provide wildlife habitat, food production, pastoral livelihoods, pollination, water regulation, soil protection, biodiversity, and enormous stores of belowground carbon. Yet grasslands continue to be threatened by conversion, fragmentation, inappropriate grazing, invasive species, altered fire regimes, climate change, and misunderstanding of naturally open ecosystems.
Scientific research increasingly shows that successful grassland conservation requires more than simply removing human activity. Carefully managed grazing, prescribed fire, restoration, protection of remaining native habitat, sustainable working landscapes, and adaptive management can all contribute to maintaining resilient grassland ecosystems.
Protecting grasslands therefore requires recognizing them as valuable ecosystems in their own right and conserving both their biological diversity and the ecological processes that have sustained them over thousands or millions of years.
Grassland Ecology, Global Importance, and Conservation
| Various authors | Nature Portfolio | 2026
Grassland ecology encompasses the plants, animals, soils, climate, grazing processes, fire regimes, and ecological interactions that maintain grass-dominated ecosystems around the world.
| Ministry of Environment, Forest and Climate Change | Government of India | 2026
Describes India's first national guide to grasslands and other open natural ecosystems and emphasizes their value for biodiversity, livelihoods, and climate resilience.
| Conservation International | Conservation International | 2026
Examines the potential for improved grazing and fire management in African grasslands, savannas, and shrublands to support climate, biodiversity, and pastoral livelihoods.
| Various authors | Nature Ecology & Evolution | 2026
A global assessment revises estimates of the geographic extent of grasslands and explains how mapping uncertainty affects calculations of their contribution to terrestrial carbon storage.
| Various authors | Nature Ecology & Evolution | 2026
Research across drylands in 25 countries finds that greater plant diversity can increase the resistance of grasslands to increasing livestock grazing pressure.
| World Wildlife Fund | WWF | 2026
An introduction to grassland ecosystems, their biodiversity, ecological services, major threats, and worldwide conservation importance.
| U.S. Fish and Wildlife Service | USFWS | 2026
Describes conservation efforts across the North American Great Plains, where agricultural conversion and fragmentation have eliminated much native grassland habitat.
| U.S. Fish and Wildlife Service | USFWS | 2026
Reviews the condition of the Central Grasslands and explains the ecosystem services supplied by intact prairie landscapes.
| World Wildlife Fund | WWF | 2026
Examines the Great Plains as a working grassland landscape where ranching, Indigenous stewardship, wildlife conservation, and agriculture intersect.
| Akashni Ashok Latchanna | Nature Africa | 2026
Examines attempts to restore South African communal grasslands through managed grazing while generating income from soil-carbon credits.
| World Wildlife Fund | WWF | 2026
Describes a huge southern African landscape where grasslands, wetlands, woodlands, wildlife migrations, and community land uses are managed across national borders.
| World Wildlife Fund | WWF | 2026
Reviews conservation of southern Africa's interconnected grasslands, savannas, wetlands, and wildlife habitats.
| National Park Service | U.S. National Park Service | 2026
Describes monitoring of vegetation and fire in tallgrass, mixed-grass, and shortgrass prairie ecosystems of the southern Great Plains.
| U.S. Fish and Wildlife Service | USFWS | 2026
Explains how conservation easements protect privately owned grasslands while maintaining working landscapes and nesting habitat.
| John W. Morgan et al. | Austral Ecology | 2025
Reviews the conservation status of Australia's native temperate grasslands and argues that protection, restoration, and ecological management must operate at several spatial scales.
| IUCN | International Union for Conservation of Nature | 2025
Describes a regional initiative designed to improve knowledge sharing, sustainable management, and restoration of Latin American grasslands and savannas.
| National Park Service | U.S. National Park Service | 2025
Introduces prairie grasslands and their extraordinary biological diversity through the grasslands of Theodore Roosevelt National Park.
| IUCN | International Union for Conservation of Nature | 2025
Calls for stronger international protection and restoration of native temperate grasslands, including prairies, pampas, grassveld, steppes, and alpine grasslands.
| Conservation International | Conservation International | 2025
Reports evidence from Kenya that restoring degraded grasslands can increase available resources and potentially reduce conflict between pastoral communities and wildlife.
| Camila I. Donatti et al. | Frontiers in Environmental Science | 2025
Investigates how restoration in Kenya's Chyulu Hills affects human-wildlife conflict, social conflict, climate adaptation, and community security.
| Various authors | Current Biology | 2024
Reviews European semi-natural grasslands and shows how both agricultural intensification and complete abandonment can reduce biodiversity.
| Various authors | Global Ecology and Conservation | 2023
Reviews the worldwide challenges of restoring grasslands and identifies practical approaches for rebuilding biodiversity, carbon storage, forage, pollinator habitat, and other ecosystem services.
| Lorin Hancock | World Wildlife Fund | 2021
Discusses the global rangelands atlas and the enormous geographic importance of grasslands, savannas, shrublands, deserts, and other grazing lands.
| National Park Service | U.S. National Park Service | 2021
Introduces temperate grassland ecology and the relationships among grasses, grazing wildlife, soils, fire, and biodiversity.
| Nigel Dudley et al. | Restoration Ecology | 2020
Discusses grasslands and savannas within the UN Decade on Ecosystem Restoration and warns that inappropriate tree planting can damage naturally open ecosystems.
| Various authors | Land Use Policy | 2020
Examines conservation planning in Brazil's Pampa and explores how protected areas and sustainable livestock production can jointly conserve native grasslands.
| Various authors | Frontiers | 2020
Collects research on Asian grasslands, including climate change, degradation, grazing, biodiversity loss, restoration, and sustainable pastoral management.
| The Nature Conservancy | The Nature Conservancy | 2018
Provides practical guidance for converting degraded grassland dominated by invasive vegetation into biologically diverse conservation prairie.
| Tim Newbold et al. | Oikos | 2017
Assesses how land-use change is altering biodiversity in African tropical grasslands and savannas and models possible future losses.
Explains the ecology and global significance of tropical grassy biomes and argues that their conservation has often been overshadowed by concern for tropical forests.
| National Park Service | U.S. National Park Service | 2015
Explains the major grassland types of the American Southwest and how agriculture, development, grazing, fire suppression, and woody encroachment have altered them.
| Catherine L. Parr et al. | Trends in Ecology & Evolution | 2014
Discusses why tropical grassy biomes remain misunderstood and threatened despite their enormous contributions to biodiversity, carbon cycling, and human livelihoods.
| Various authors | Biodiversity and Conservation | 2011
Reviews plant diversity in temperate permanent grasslands and its relationship to agricultural production, grazing, ecosystem services, and conservation.
| William J. Bond and Catherine L. Parr | Biological Conservation | 2010
Examines the biodiversity and ecological importance of grasslands and savannas and explains why ancient grassy ecosystems should not be regarded simply as degraded forests.
| IUCN | International Union for Conservation of Nature | 2010
Describes the Daurian Steppe spanning Mongolia, China, and Russia, one of the largest remaining expanses of relatively intact temperate grassland.
| Various authors | Food and Agriculture Organization | 2005
Provides a global overview of major grassland regions, their ecological conditions, livestock systems, and management challenges.
| Daniel J. Miller | Food and Agriculture Organization | 2005
Examines the Tibetan Steppe, including its alpine grasslands, pastoral communities, wildlife, biodiversity, and importance as the headwaters of major Asian rivers.
| David Olson and Eric Dinerstein | World Wildlife Fund | 2002
Identifies globally important grassland, savanna, flooded-grassland, steppe, and montane-grassland ecosystems within WWF's Global 200 conservation framework.
Grazing, Fire, and Grassland Management
| Various authors | Agriculture, Ecosystems & Environment | 2026
Finds that controlled cattle grazing can suppress invasive grasses and increase native plant diversity in tropical Cerrado grasslands.
| Various authors | Agriculture, Ecosystems & Environment | 2026
Evaluates rotational grazing in alpine pastoral grasslands and finds that appropriate grazing regimes can improve several ecosystem functions.
| Chunping Zhang et al. | Functional Ecology | 2026
Finds that grazing exclusion combined with carefully limited nitrogen addition can increase plant diversity and stability in degraded alpine grassland.
| Various authors | One Earth | 2025
Shows that strategically resting grasslands during important plant-growth periods can improve multiple ecosystem services while retaining livestock production.
| Xiaotao Huang et al. | Communications Earth & Environment | 2025
Models several decades of grazing across Qinghai-Tibet Plateau grasslands and finds substantial losses of vegetation and soil carbon under unsuitable grazing pressure.
| Guoxing He et al. | Frontiers in Plant Science | 2025
Compares grazing exclusion, rest grazing, traditional grazing, and continuous grazing as approaches to restoring degraded Tibetan alpine grasslands.
| Various authors | Agriculture, Ecosystems & Environment | 2024
Synthesizes global evidence showing that grazing impacts depend on intensity, livestock type, climate, soils, and management regime.
| Lavhelesani D. Simba et al. | Ambio | 2024
Proposes a framework for restoring rangelands while integrating climate action, biodiversity conservation, local livelihoods, and social transformation.
| Various authors | U.S. Geological Survey | 2024
Investigates how working mixed-grass prairie recovers following very large wildfires in the Great Plains.
| European Commission Joint Research Centre | European Commission | 2024
Reviews scientific evidence concerning grassland conservation and restoration, including grazing, burning, seed addition, hay transfer, and passive recovery.
| Shuai Ren et al. | Nature Climate Change | 2024
Uses a global meta-analysis to evaluate historical grazing impacts on soil carbon and the climate-mitigation potential of changing grazing intensity.
| M. Fang et al. | Frontiers in Microbiology | 2024
Finds that severe grazing outside protected areas can influence soil properties and microbial communities inside neighboring grassland-restoration areas.
| Minna Zhang et al. | Nature Communications | 2023
Finds that the ecological effects of long-term livestock grazing depend strongly on aridity, with particularly severe biodiversity and multifunctionality losses in drier grasslands.
| Jon Keeley et al. | U.S. Geological Survey / Restoration Ecology | 2023
Reports a decade-long experiment showing how repeated prescribed burning can suppress non-native annual grasses while allowing California native bunchgrasses to recover.
| Christine D. Miller Hesed and Heather M. Yocum | U.S. Geological Survey | 2023
Identifies management goals, challenges, information needs, and climate-related priorities for grasslands of the north-central United States.
| Christine D. Miller Hesed et al. | U.S. Geological Survey | 2023
Synthesizes climate, vegetation, wildlife, grazing, fire, water, and land-use science relevant to northern Great Plains grassland management.
| Various authors | U.S. Geological Survey | 2023
Identifies seventy major research questions concerning restoration, conversion, invasive species, grazing, water, wildlife, and climate change in northern grasslands.
| Fort Collins Science Center | U.S. Geological Survey | 2023
Provides research and management resources concerning invasive grasses, climate change, restoration, wildlife, and other grassland issues.
| Natashi Pilon et al. | Journal of Applied Ecology | 2023
Reviews restoration approaches for Brazil's Cerrado open ecosystems and discusses the difficulties of rebuilding diverse grassland communities.
| Y. Zhang et al. | Frontiers in Plant Science | 2023
Investigates interactions among grazing intensity, climate variability, biodiversity, and productivity in the typical steppe of Inner Mongolia.
| Land Management Research Program | U.S. Geological Survey | 2022
Introduces the ecology, wildlife, conservation value, and ecosystem services of grasslands across the central United States.
| Various authors | Nature Reviews Earth & Environment | 2022
Reviews changes in Qinghai-Tibetan Plateau grasslands and assesses the relative effects of warming, precipitation, livestock grazing, and restoration policies.
| Qing Chen et al. | Scientific Reports | 2022
Examines how decades of grazing and subsequent livestock exclusion alter nitrogen cycling and ammonia-oxidizing microorganisms in Inner Mongolian grassland soils.
| Elise Buisson et al. | Restoration Ecology | 2021
Establishes research priorities for restoring tropical and subtropical grasslands and savannas using fire, grazing, invasive-species control, seeding, and other techniques.
| Various authors | Koedoe | 2021
Reviews fire-management strategies used in African savanna protected areas and the ecological and social objectives behind different burning regimes.
| Purity Rima Mbaabu et al. | Scientific Reports | 2020
Shows that restoring degraded Kenyan grassland can rebuild soil carbon and forage while avoiding ecological trade-offs associated with invasive tree encroachment.
| Muhammad Almaududi Pulungan et al. | Scientific Reports | 2019
Examines ecological mechanisms that may explain why intermediate grazing intensity sometimes supports higher plant diversity.
| Wenhuai Li et al. | Current Opinion in Environmental Sustainability | 2018
Reviews how climate change and grazing interact to alter grassland productivity, biodiversity, community structure, and ecosystem stability.
| Lawrence D. Igl et al. | U.S. Geological Survey | 2018
Evaluates adaptive use of grazing, burning, and rest to manage native prairie vegetation and grassland birds in the northern Great Plains.
| Rina Su et al. | Scientific Reports | 2017
Studies how grazing affects vegetation structure and ecosystem functioning in the grasslands of Inner Mongolia.
| Jingpeng Li et al. | Scientific Reports | 2017
Shows that long-term livestock exclusion can eventually reduce plant diversity through increasing nutrients, litter, and competition for light.
| Various authors | Scientific Reports | 2016
Synthesizes research from the Northern Great Plains to evaluate how livestock grazing changes carbon and nitrogen cycling.
| Various authors | Scientific Reports | 2015
Investigates grazing intensity in temperate steppe and finds that grazing strategy strongly affects plant production, nitrogen retention, roots, and soil-carbon storage.
| B. W. van Wilgen | South African Journal of Science | 2010
Reviews the evolution of fire management in South African savanna reserves and the shift toward adaptive, biodiversity-oriented management.
| S. D. Fuhlendorf et al. | Ecological Applications / USGS | 2006
Shows how patch burning combined with grazing creates vegetation heterogeneity that supports grassland bird species with different habitat requirements.
| Various authors | Food and Agriculture Organization | 2005
Provides a broad international review of grassland ecosystems, livestock systems, pastoralism, grazing management, and regional environmental conditions.
| Harold F. Duebbert et al. | U.S. Fish and Wildlife Service / USGS | 1981
Provides detailed methods for establishing and maintaining seeded grasslands as wildlife habitat in the Prairie Pothole Region.
Climate, Carbon, Water, Soils, and Ecosystem Function
| Huaqiang Li et al. | Nature Communications | 2026
Reports a widespread decline in grassland canopy height across China associated with changes in biomass allocation, climate, grazing, and plant diversity.
| Mengjiao Huang et al. | Nature Communications | 2026
Finds that plant diversity within local grassland communities can stabilize ecosystem productivity across time.
| Jianping Sun et al. | Nature Communications | 2026
Uses a global meta-analysis to show that plant responses to climate-driven changes in phenology depend on functional group and aridity.
| Various authors | Nature Communications | 2026
Identifies nitrogen-enrichment thresholds at which gains in ecosystem carbon begin to conflict with preservation of plant and microbial biodiversity.
| Various authors | Frontiers in Environmental Science | 2026
Provides collections of research concerning drylands, including carbon and nitrogen cycling, degradation, ecological restoration, grazing, and grassland management.
| Various authors | Journal of Applied Ecology | 2026
Uses global evidence to evaluate when, where, and how grassland restoration can maximize biodiversity and ecosystem multifunctionality.
| Shiqi Yu et al. | Nature Communications | 2025
Develops a continental-scale carrying-capacity index showing widespread pressure from livestock on African grasslands.
| Tingting Li et al. | Nature Communications | 2025
Shows that water and nitrogen limitations influence aboveground and belowground grassland production in substantially different ways.
| Cuihai You et al. | Nature Communications | 2025
Examines four decades of grassland productivity and shows how major droughts interrupt long-term changes in peak vegetation growth.
| Miao Zheng et al. | Nature Communications | 2025
Investigates how changing precipitation regimes could alter nitrogen cycling in grasslands and create unequal regional impacts.
| Mengjiao Huang et al. | Nature Communications | 2025
Examines how nitrogen enrichment and elevated carbon dioxide modify the ecological benefits produced by plant biodiversity.
| Shuai Ren et al. | Nature Communications | 2025
Finds that continued livestock grazing could substantially offset climate-driven soil-carbon gains across the Tibetan Plateau.
| Xiaofei Li et al. | Nature Communications | 2025
Shows how nitrogen enrichment can reduce grassland plant diversity by disrupting interactions between vegetation and herbivores.
| Various authors | Nature Communications | 2025
Uses a globally standardized grassland experiment to show that nutrient enrichment causes substantial local plant-species losses.
| Various authors | Nature Communications | 2025
Examines how simultaneous spring and autumn frost events affect carbon exchange in grassland ecosystems.
| Various authors | Nature Communications | 2025
Shows that combining several targeted restoration interventions can increase the multifunctionality and ecosystem-service value of degraded grasslands.
| Various authors | Nature Communications | 2025
Finds that key soil microorganisms help maintain plant-soil resilience during long-term restoration of alpine grasslands.
| Various authors | Nature Communications | 2025
Examines how shrub encroachment changes disease patterns affecting herbaceous vegetation beneath shrubs in grasslands.
| Various authors | Ecological Frontiers | 2025
Reviews hundreds of studies and shows that grassland-restoration success depends strongly on regional aridity and the restoration method chosen.
| Various authors | Nature Communications | 2024
Evaluates how mowing, grazing, fertilization, and other management practices affect multiple ecosystem services provided by temperate grasslands.
| Various authors | Nature Communications | 2024
Synthesizes research on organic and inorganic fertilization and its effects on grassland and cropland ecosystems.
| Various authors | Nature Communications | 2024
Shows how experimental warming accelerates soil-carbon priming processes in a temperate grassland.
| Various authors | Communications Earth & Environment | 2024
A 30-year experiment finds that perennial prairie and rotationally grazed pasture maintained soil carbon while several crop systems lost carbon.
| Teng Hu et al. | Communications Earth & Environment | 2024
Examines how ploughing frequency and renewal practices influence soil organic-carbon storage in managed grasslands.
| Hui Huang et al. | Frontiers in Plant Science | 2024
Reviews research into water cycling, carbon cycling, ecosystem stability, and climate-change responses across forest and grassland ecosystems.
| J. Ye et al. | Frontiers in Plant Science | 2024
Examines how elevation and climate influence plant resource-use strategies in mountain grassland communities.
| X. Wang et al. | Frontiers in Plant Science | 2024
Finds that phylogenetic diversity can strongly influence soil multifunctionality within an arid forest-grassland transition zone.
| Various authors | Communications Biology | 2024
Shows that temperature strongly influences how long-term grazing affects soil-borne fungal pathogens across northern Chinese grasslands.
| Angelos Amyntas et al. | Nature Communications | 2024
Investigates how the historical development of soil communities influences belowground food webs and ecological functioning in experimental grassland.
| Various authors | Nature Communications | 2023
Demonstrates that grassland management practices influence how dominant soil microorganisms respond to drought.
| Various authors | Nature Communications | 2023
Finds that the ability of plant diversity to increase soil carbon storage varies according to climatic conditions.
| Andreas Krause et al. | Scientific Reports | 2022
Compares potential productivity of forests, croplands, and grasslands and evaluates how historical land-cover change altered terrestrial primary production.
| Ali Hassan Shabbir et al. | Scientific Reports | 2020
Analyzes weather and climate factors controlling burned area in the grasslands of northeastern China.
| Jorge Durán and Manuel Delgado-Baquerizo | Scientific Reports | 2020
Uses a global dataset to investigate how vegetation structure influences spatial variation in belowground biodiversity.
| Various authors | Scientific Reports | 2020
Compares greenhouse-gas processes among grassland, cropland, and shrub-dominated ecosystems in an arid agricultural landscape.
Restoration, Invasives, Plants, and Landscape Change
| Zheng Hou et al. | Scientific Reports | 2026
Examines how vegetation succession from grassland toward shrubland and forest alters soil nutrients, heavy metals, enzymes, and microbial communities in alpine meadows.
| Meiling Song et al. | Scientific Reports | 2025
Studies how invasion by Ligularia virgaurea changes carbon, nitrogen, and phosphorus relationships in Qinghai-Tibetan alpine meadows.
| Qin Yang et al. | Scientific Reports | 2025
Finds that intermediate vegetation cover can maximize small-scale environmental heterogeneity in humid grasslands of Southwest China.
| László Bakacsy and Tomás Zakar | Scientific Reports | 2025
Uses drone imagery to map the spatial structure of invasive common milkweed populations in open grassland habitats.
| Cécile H. Albert et al. | Scientific Reports | 2025
Examines how ground-dwelling arthropods respond to experimental habitat loss and fragmentation.
| Yiming Liu et al. | Scientific Reports | 2025
Tracks changes in soil seed banks and aboveground vegetation through time following restoration of land disturbed by open-pit mining.
| Yuanbo Lu et al. | Scientific Reports | 2025
Uses satellite vegetation data to distinguish climatic and human influences on vegetation dynamics in Xinjiang.
| Chunxue Han et al. | Scientific Reports | 2025
Shows that drought suppresses microbial and root-related components of soil respiration differently in desert-steppe grassland.
| Nikolay Fedorov et al. | Scientific Reports | 2025
Compares plant diversity, productivity, and carbon sequestration between virgin and secondary meadow steppes in the southern Urals.
| Hongtao Jiang et al. | Scientific Reports | 2025
Investigates the causes and spatial distribution of wind erosion in the desert grasslands of Inner Mongolia.
| Jing Jin et al. | Scientific Reports | 2025
Models human-driven land-cover conversion and future development scenarios in an agro-pastoral grassland ecotone.
| Maeve Lin et al. | Scientific Reports | 2025
Shows how nitrogen enrichment and declining vascular-plant diversity can also reduce bryophyte diversity in grassland ecosystems.
| Jianting Long et al. | Scientific Reports | 2025
Examines environmental influences on the traits and seed chemistry of the Tibetan grass Elymus nutans.
| Various authors | Frontiers in Sustainable Food Systems | 2025
Uses Sentinel-2 imagery to classify Kenyan grassland communities and identify differences in forage palatability and grazing pressure.
| Maciej Bartold et al. | Scientific Reports | 2024
Demonstrates how Sentinel radar and optical satellite data can be combined to map grassland management intensity.
| Guoxing He et al. | Scientific Reports | 2024
Finds that near-natural restoration can rebuild soil-carbon stocks in degraded alpine meadows although carbon stabilization may remain altered.
| Ziyue Guo et al. | Scientific Reports | 2024
Maps and predicts the development of wind-eroded blowouts within sandy grassland landscapes.
| Yazhou Liu et al. | Scientific Reports | 2024
Examines how grazing intensity and management practices affect soil organic-carbon density in grasslands of Zhangye, China.
| Yaping Liu et al. | Scientific Reports | 2024
Uses machine learning to map livestock-density patterns across the grasslands of Mongolia's Selenge River Basin.
| Alexander T. Strauss et al. | Scientific Reports | 2024
Uses a 22-year grassland experiment to examine interactions among biodiversity, nitrogen, carbon dioxide, and plant disease.
| Beata Medyńska-Gulij et al. | Scientific Reports | 2024
Reconstructs centuries of forest, wetland, and grassland landscape change on the North European Plain.
Grassland Wildlife and Applied Ecology
| U.S. Fish and Wildlife Service | USFWS | 2026
Reviews conservation of the Lesser Prairie-Chicken and the large intact grassland landscapes required by this prairie-dependent species.
| Guylain Grange et al. | Scientific Reports | 2024
Shows that increasing plant diversity can improve multifunctionality and drought resilience in productive grassland systems.
| Marcia Helena Machado da Rocha Fernandes et al. | Scientific Reports | 2024
Uses Sentinel-2 satellite imagery and machine learning to estimate forage mass and nutritional quality in tropical pasture.
| Melina T. Dietzer et al. | Scientific Reports | 2024
Reports comparatively low bat and insect activity above intensively managed Central European meadows.
| Alan Álvarez-Holguín et al. | Scientific Reports | 2024
Uses environmental niche modeling to identify native grass species potentially suitable for rangeland restoration in northern Mexico.
| Ziqi Liu and Jiyao Sun | Scientific Reports | 2024
Examines the role of non-governmental organizations and legal institutions in grassland ecological-compensation programs.
| László Bakacsy and Ágnes Szepesi | Scientific Reports | 2024
Studies the early invasion of black pine and its effects on native species composition in Pannonic sand grassland.
| Qingge Zhao et al. | Scientific Reports | 2024
Examines how grazing changes nutrient resorption strategies in dominant plant species of desert-steppe grasslands.
| Xueteng Zhang et al. | Scientific Reports | 2024
Measures seasonal carbon exchange and gross primary production in semi-arid grassland on China's Loess Plateau.
| Michele Torresani et al. | Scientific Reports | 2024
Uses drone photogrammetry to show that variation in grassland vegetation height can predict flower and bee diversity.
| Garrett J. MacDonald et al. | U.S. Geological Survey | 2024
Documents migration, nesting, and breeding periods of 38 North American grassland bird species to help managers schedule grazing, mowing, and other habitat treatments.
| Jordan C. Giese et al. | Agriculture, Ecosystems & Environment / USGS | 2024
Finds substantially higher densities of grassland birds in croplands containing reconstructed native prairie strips.
| Jordan C. Giese et al. | Agriculture, Ecosystems & Environment | 2024
Demonstrates that prairie strips embedded within row-crop fields can provide breeding habitat for several grassland bird species.
| Mohan Ram et al. | Scientific Reports | 2023
Investigates habitat use and movement of the endangered lesser florican, a bird strongly associated with Indian grasslands.
| Benedikt Speißer and Mark van Kleunen | Scientific Reports | 2023
Studies how grassland plants alter root growth when soils contain patches contaminated with plastic.
| Ákos Bede-Fazekas et al. | Scientific Reports | 2023
Uses vegetation and climate data to better define the transition zone between temperate forests and steppes.
| J. Brown et al. | Scientific Reports | 2023
Uses machine-learning models to predict the occurrence of invasive Eragrostis curvula in Australian grasslands.
| Mateusz Wala et al. | Scientific Reports | 2023
Tests how meadow buttercup responds to saline and sodic soils and considers its usefulness as an indicator of habitat condition.
| Thomas C. Wagner et al. | Scientific Reports | 2023
Finds that rainfall and wet soils can be more important than management in explaining the distribution of a toxic plant in production grasslands.
| Qian Zhang et al. | Scientific Reports | 2023
Examines how moderate livestock grazing alters vegetation and soils on zokor mounds in alpine grasslands.
| João Paulo Silva et al. | Scientific Reports | 2023
Documents a nationwide collapse of an important grassland bird associated with livestock-system conversion and agricultural intensification.
| Huijun Li et al. | Scientific Reports | 2023
Examines biomass production and nutrient use by Leymus chinensis under differing phosphorus availability.
| Carlos C. V. García et al. | Scientific Reports | 2023
Investigates how dung beetles influence nutrient cycling, ammonia loss, and nitrous-oxide emissions in grazed ecosystems.
| Joris H. Wiethase et al. | Scientific Reports | 2023
Identifies multiple pathways of rangeland degradation in northern Tanzania while also finding evidence that some degraded systems retain substantial recovery potential.
| Lawrence D. Igl et al. | U.S. Geological Survey | 2022
Reviews habitat needs and management strategies for Greater Prairie-Chickens within remaining prairie landscapes.
| Douglas H. Johnson and Lawrence D. Igl | The Auk / USGS | 2001
Examines how grassland patch size affects occurrence and abundance of bird species across restored grasslands in the northern Great Plains.
| Gregory A. Knutsen and Ned H. Euliss | U.S. Geological Survey | 2001
Reviews restoration of Prairie Pothole wetlands embedded within the northern Great Plains grassland landscape and their importance for wildlife.
| P. D. Vickery et al. | U.S. Geological Survey | 2000
Reviews major threats to grassland birds and recommends creating mosaics of habitat using fire, grazing, mowing, and rotational management.
| P. D. Vickery et al. | U.S. Geological Survey | 2000
Explains how the disappearance of native herbivores, fire suppression, agriculture, and habitat fragmentation changed North American grassland bird communities.
| U.S. Geological Survey | USGS | 2019
Synthesizes thousands of studies concerning breeding habitat and the effects of grazing, burning, mowing, and other management practices on grassland birds.
| Lawrence D. Igl et al. | U.S. Geological Survey | 2019
Introduces North American grasslands and explains the ecological roles of fire, grazing, climate, agricultural conversion, and habitat management.
| Various authors | U.S. Geological Survey | 2019
Provides species-by-species accounts of habitat requirements and management responses for approximately forty North American grassland birds.
| Various authors | U.S. Geological Survey | 2019
Compiles extensive management guidance for grassland grouse, shorebirds, raptors, owls, sparrows, longspurs, meadowlarks, and other prairie birds.
| U.S. Geological Survey | USGS | 2015
Reports research showing that oil-development infrastructure can reduce habitat quality for several declining grassland bird species.
