0000000000077278

AUTHOR

Mark A. Nearing

showing 6 related works from this author

Soil erosion modelling: a global review and statistical analysis

2021

40 Pags.- 10 Figs.- 2 Tabls.- Suppl. Informat. The definitive version is available at: https://www.sciencedirect.com/science/journal/00489697

Research literatureEnvironmental EngineeringErosion rates010504 meteorology & atmospheric sciencesComputer scienceGeography & travelReview[SDV.SA.SDS]Life Sciences [q-bio]/Agricultural sciences/Soil study010501 environmental sciencesErosion rate01 natural sciencesPolicy supportModellingITC-HYBRIDErosion rates; GIS; Land degradation; Land sustainability; Modelling; Policy supportddc:550Environmental ChemistryLand sustainabilityStatistical analysisWaste Management and Disposal0105 earth and related environmental sciencesddc:910WIMEKbusiness.industryEnvironmental resource managementCollective intelligenceBodemfysica en Landbeheer15. Life on landPE&RCGISPollutionSoil Physics and Land ManagementITC-ISI-JOURNAL-ARTICLESustainabilityErosionLand degradationLand degradationbusinessISRIC - World Soil InformationPredictive modelling
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Testing a theoretical resistance law for overland flow on a stony hillslope

2020

Overland flow, sediments, and nutrients transported in runoff are important processes involved in soil erosion and water pollution. Modelling transport of sediments and chemicals requires accurate estimates of hydraulic resistance, which is one of the key variables characterizing runoff water depth and velocity. In this paper, a new theoretical power–velocity profile, originally deduced neglecting the impact effect of rainfall, was initially modified for taking into account the effect of rainfall intensity. Then a theoretical flow resistance law was obtained by integration of the new flow velocity distribution. This flow resistance law was tested using field measurements by Nearing for the …

010504 meteorology & atmospheric sciencesFlow (psychology)rainfall0207 environmental engineering02 engineering and technology01 natural sciencessymbols.namesakeWetted perimeteroverland flowdimensional analysiFroude numberSettore AGR/08 - Idraulica Agraria E Sistemazioni Idraulico-Forestali020701 environmental engineering0105 earth and related environmental sciencesWater Science and Technologyself-similarityReynolds numberLaminar flowstony hillslopeFlow velocityLawsymbolsvelocity profileEnvironmental scienceSurface runoffflow resistanceIntensity (heat transfer)
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Soil erosion modelling: A bibliometric analysis.

2021

16 Pags.- 12 Figs.- 8 Tabls.

Research impactCalibration (statistics)Geography & travelDecision treeParticipatory networkAgricultural engineering[SDV.SA.SDS]Life Sciences [q-bio]/Agricultural sciences/Soil study010501 environmental sciencesParticipatory modeling01 natural sciencesBiochemistryBibliometricITC-HYBRID03 medical and health sciencesSoil0302 clinical medicineCitation analysisBenchmark (surveying)Citation analysis; Participatory network; Research impact; Soil erosion modelling; Systematic literature review; Agriculture; Publications; Soil; Bibliometrics; Soil Erosionddc:550030212 general & internal medicine0105 earth and related environmental sciencesGeneral Environmental Scienceddc:910Soil ErosionWIMEKSystematic literature reviewPublicationsAgricultureBodemfysica en Landbeheer15. Life on landPE&RCBibliographic couplingSoil Physics and Land ManagementCitation analysis13. Climate actionCitation analysiSoil erosion modellingBibliometricsITC-ISI-JOURNAL-ARTICLEErosionEnvironmental sciencePublicationScale (map)ISRIC - World Soil InformationEnvironmental research
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Testing a theoretical resistance law for overland flow under simulated rainfall with different types of vegetation

2020

Abstract In this paper a recently theoretically deduced flow resistance equation, based on a power-velocity profile, was tested using data collected for overland flow under simulated rainfall carried out in plots with vegetation. The available data were obtained exploring a wide range of rainfall intensities (from 60 to 181 mm h−1) and slopes (from 3.6 to 39.6%), and with four different types of vegetation. The database, including measurements of flow velocity, water depth, cross sectional flow area, wetted perimeter and bed slope, was divided in four datasets (one for each vegetation type), which allowed the calibration of the relationship between the velocity profile parameter Γ, the slop…

Dimensional analysi010504 meteorology & atmospheric sciencesSoil science01 natural sciencessymbols.namesakeWetted perimeterVelocity profileFroude numbermedicineSettore AGR/08 - Idraulica Agraria E Sistemazioni Idraulico-ForestaliVegetable cover0105 earth and related environmental sciencesEarth-Surface ProcessesReynolds numberLaminar flow04 agricultural and veterinary sciencesOpen channel flowOpen-channel flowSelf-similarityFlow (mathematics)Flow velocityFlow resistance040103 agronomy & agriculturesymbolsRainfall simulationSoil erosion0401 agriculture forestry and fisheriesEnvironmental sciencemedicine.symptomVegetation (pathology)
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Scales and erosion

2013

HydrologyErosionEnvironmental scienceEarth-Surface ProcessesCATENA
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Testing a new rill flow resistance approach using the Water Erosion Prediction Project experimental database

2018

In this paper, a recently theoretically deduced rill flow resistance equation, based on a power‐velocity profile, was tested using the Water Erosion Prediction Project database. This database includes measurements of flow velocity, water depth, cross section area, wetted perimeter, and bed slope that were made in rills shaped on experimental sites distributed across the continental United States. In particular, three different experimental conditions (only rainfall, only flow, and rain with flow) were examined, and for each condition, the theoretically based relationship for estimating the Γ function of the power velocity profile was calibrated. The results established that (a) the Darcy‐We…

Flow resistancegeographyWater erosiongeography.geographical_feature_categorysoil erosionself-similarity0208 environmental biotechnology04 agricultural and veterinary sciences02 engineering and technology020801 environmental engineeringRill040103 agronomy & agriculture0401 agriculture forestry and fisheriesSettore AGR/08 - Idraulica Agraria E Sistemazioni Idraulico-ForestaliGeotechnical engineeringrill erosionflow resistanceGeologyWater Science and Technology
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