Sandy Floodplain Forest
Scenario model
Current ecosystem state
Select a state
Management practices/drivers
Select a transition or restoration pathway
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Transition T1A
Altered hydrology
More details -
Transition T1B
Pasture establishment/management
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Transition T1C
Row crop establishment/management
More details -
Transition T2A
Pasture establishment/management
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Transition T2B
Row crop establishment/ management
More details -
Restoration pathway R2A
Restoration management inputs
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Transition T3A
Abandonment; no management inputs; hydrology altered
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Transition T3B
Establishment / management of row crops
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Restoration pathway R3A
Restoration management inputs
More details -
Transition T4A
Abandonment; altered hydrology
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Transition T4B
Establishment and management for forage production
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Restoration pathway R4A
Restoration management inputs
More details -
Transition T5A
Altered hydrology; no management
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Transition T5B
Pasture establishment/management
More details -
Transition T5C
Cropland establishment and management
More details -
No transition or restoration pathway between the selected states has been described
Target ecosystem state
Select a state
Description
The reference plant community is categorized as a floodplain forest community, dominated by hydrophytic woody and herbaceous vegetation. The three community phases within the reference state are dependent on a regular flood regime. The amount and duration of flooding alters species composition, cover, and extent.
Submodel
Description
Agricultural tile drainage, stream channelization, and levee construction in hydrologically-connected waters have drastically changed the natural hydrologic regime of Sandy Floodplain Forests. In addition, increased amounts of precipitation and intensity have amplified flooding events (Pryor et al. 2014). This has resulted in a type conversion from the species-rich forest to a ruderal floodplain forest state. In addition, exotic species have encroached and continuously spread, reducing native diversity and ecosystem stability (Eggers and Reed 2015).
Submodel
Description
The pasture state arises when the site is converted to a farming system that emphasizes domestic livestock production, known as grassland agriculture. Fire suppression, periodic cultural treatments (e.g., clipping, drainage, soil amendment applications, planting new species and/or cultivars, mechanical harvesting) and grazing by domesticated livestock transition and maintain this state (USDA-NRCS 2003). Early settlers seeded non-native species, as smooth brome (Bromus inermis Leyss.) tall fescue (Festuca arundinace) and Kentucky bluegrass (Poa pratensis L.), to help extend the grazing season (Smith 1998). Over time, as lands were continuously harvested or grazed by herds of cattle, these species were able to spread and expand across the landscape, reducing the native species diversity and ecological function.
Submodel
Description
The Midwest is well-known for its highly-productive agricultural soils, and as a result, much of the MLRA has been converted to cropland, including portions of this ecological site. The continuous use of tillage, row-crop planting, and chemicals (i.e., herbicides, fertilizers, etc.) has effectively eliminated the reference community and many of its natural ecological functions in favor of crop production. Corn (Zea mays L.) and soybeans (Glycine max (L.) Merr.) are the dominant crops for the site. These areas are likely to remain in crop production for the foreseeable future.
Submodel
Description
The combination of natural and anthropogenic disturbances occurring today has resulted in numerous ecosystem health issues, and restoration back to the historic reference state may not be possible. Many natural forest communities are being stressed by non-native diseases and pests, habitat fragmentation, permanent changes in hydrologic regimes, and overabundant deer populations on top of naturally-occurring disturbances (severe weather and native pests) (Flickinger 2010). However, these habitats provide multiple ecosystem services including carbon sequestration; clean air and water; soil conservation; biodiversity support; wildlife habitat; as well as a variety of cultural activities (e.g., hiking, hunting) (Millennium Ecosystem Assessment 2005; Flickinger 2010). Therefore, conservation of floodplain forests should still be pursued. Habitat reconstructions are an important tool for repairing natural ecological functioning and providing habitat protection for numerous species . Therefore, ecological restoration should aim to aid the recovery of degraded, damaged, or destroyed ecosystems. A successful restoration will have the ability to structurally and functionally sustain itself, demonstrate resilience to the ranges of stress and disturbance, and create and maintain positive biotic and abiotic interactions (SER 2002). The reconstructed forest state is the result of a long-term commitment involving a multi-step, adaptive management process.
Submodel
Mechanism
Altered hydrology throughout the watershed transitions the site to the hydrologically-altered state (2).
Mechanism
Woody species removal and cultural treatments to enhance forage quality and yield transition the site to the pasture state (3).
Mechanism
Woody species removal, tillage, seeding of agricultural crops, and non-selective herbicide transition the site to the cropland state (4).
Mechanism
Woody species removal and cultural treatments to enhance forage quality and yield transition the site to the pasture state (3).
Mechanism
Woody species removal, tillage, seeding of agricultural crops, and non-selective herbicide transition the site to the cropland state (4).
Mechanism
Site preparation, tree planting, timber stand improvement, non-native species control, and water control structures installed to improve and regulate hydrology transition this site to the reconstructed forest state (5).
Mechanism
Land is abandoned and left fallow; natural succession by opportunistic species transition this site the hydrologically-altered state (2).
Mechanism
Tillage, seeding of agricultural crops, and non-selective herbicide transition the site to the cropland state (4).
Mechanism
Site preparation, tree planting, timber stand improvement, non-native species control, and water control structures installed to improve and regulate hydrology transition this site to the reconstructed forest state (5).
Mechanism
Land abandonment transitions the site to the hydrologically-altered state (2).
Mechanism
Cultural treatments to enhance forage quality and yield transition the site to the pasture state (3).
Mechanism
Site preparation, tree planting, timber stand improvement, non-native species control, and water control structures installed to improve and regulate hydrology transition this site to the reconstructed forest state (5).
Mechanism
Removal of water control structures and unmanaged invasive species populations transition this site to the hydrologically-altered state (2).
Mechanism
Tree removal and cultural treatments to enhance forage quality and yield transition the site to the pasture state (3).
Model keys
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The Ecosystem Dynamics Interpretive Tool is an information system framework developed by the USDA-ARS Jornada Experimental Range, USDA Natural Resources Conservation Service, and New Mexico State University.