José Silvestre Data-verified
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Postdoctoral Fellow
postdoc
Research Areas
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Biography and Research Information
OverviewAI-generated summary
José Silvestre's research investigates the complex interplay between fluvial processes, delta formation, and sea-level change. His work utilizes theoretical models and experimental data to understand how factors such as river avulsions, marsh sedimentation, and sediment compaction influence delta morphology and stability. Silvestre has published on topics including the effect of sea-level change on river avulsions and stratigraphy in experimental delta systems, and how marsh sedimentation controls delta top morphology and mass balance. His research also explores the impact of variable flood discharge on organic carbon preservation in deltas and the influence of non-fluvial sedimentation on delta channel kinematics. Silvestre collaborates with researchers at the University of Arkansas at Fayetteville, including John Shaw, Sam Zapp, and Kelly Sank, with whom he has co-authored multiple publications. His scholarship metrics include an h-index of 4, with 11 total publications and 84 total citations.
Metrics
- h-index: 4
- Publications: 11
- Citations: 90
Selected Publications
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Variable Flood Discharge Constrains Autochthonous Organic Carbon Preservation in Deltas: Insights From Physical Experiments (2026)
Collaboration Network
Top Collaborators
- Marsh Sedimentation Controls Delta Top Morphology, Slope, and Mass Balance
- Marsh-induced backwater: the influence of non-fluvial sedimentation on a delta's channel morphology and kinematics
- Sediment Compaction in Experimental Deltas: Toward a Meso‐Scale Understanding of Coastal Subsidence Patterns
- Exploring the relationship between organic deposition resulting from marshes and autogenic scales in deltaic stratigraphy
- Marsh sedimentation controls delta top morphology, slope, and mass balance
Showing 5 of 8 shared publications
- Marsh Sedimentation Controls Delta Top Morphology, Slope, and Mass Balance
- Marsh-induced backwater: the influence of non-fluvial sedimentation on a delta's channel morphology and kinematics
- Sediment Compaction in Experimental Deltas: Toward a Meso‐Scale Understanding of Coastal Subsidence Patterns
- Exploring the relationship between organic deposition resulting from marshes and autogenic scales in deltaic stratigraphy
- Marsh sedimentation controls delta top morphology, slope, and mass balance
Showing 5 of 7 shared publications
- Marsh Sedimentation Controls Delta Top Morphology, Slope, and Mass Balance
- Marsh-induced backwater: the influence of non-fluvial sedimentation on a delta's channel morphology and kinematics
- Sediment Compaction in Experimental Deltas: Toward a Meso‐Scale Understanding of Coastal Subsidence Patterns
- Exploring the relationship between organic deposition resulting from marshes and autogenic scales in deltaic stratigraphy
- Marsh sedimentation controls delta top morphology, slope, and mass balance
Showing 5 of 7 shared publications
- Marsh Sedimentation Controls Delta Top Morphology, Slope, and Mass Balance
- Marsh-induced backwater: the influence of non-fluvial sedimentation on a delta's channel morphology and kinematics
- Sediment Compaction in Experimental Deltas: Toward a Meso‐Scale Understanding of Coastal Subsidence Patterns
- Marsh sedimentation controls delta top morphology, slope, and mass balance
- Marsh-Delta Interactions: The strong influence of marsh deposition on delta slopes and mass partitioning
Showing 5 of 7 shared publications
- Marsh Sedimentation Controls Delta Top Morphology, Slope, and Mass Balance
- Marsh-induced backwater: the influence of non-fluvial sedimentation on a delta's channel morphology and kinematics
- Sediment Compaction in Experimental Deltas: Toward a Meso‐Scale Understanding of Coastal Subsidence Patterns
- Marsh sedimentation controls delta top morphology, slope, and mass balance
- Marsh induced backwater: the influence of non-fluvial sedimentation on a delta's channel morphology and kinematics
Showing 5 of 6 shared publications
- Where rivers jump course
- Effect of Sea‐Level Change on River Avulsions and Stratigraphy for an Experimental Lowland Delta
- More extensive land loss expected on coastal deltas due to rivers jumping course during sea-level rise
- Where rivers jump course
- Effect of Sea‐Level Change on River Avulsions and Stratigraphy for an Experimental Lowland Delta
- More extensive land loss expected on coastal deltas due to rivers jumping course during sea-level rise
- Exploring the relationship between organic deposition resulting from marshes and autogenic scales in deltaic stratigraphy
- Marsh-Delta Interactions: The strong influence of marsh deposition on delta slopes and mass partitioning
- Effect of Sea‐Level Change on River Avulsions and Stratigraphy for an Experimental Lowland Delta
- More extensive land loss expected on coastal deltas due to rivers jumping course during sea-level rise
- Exploring the relationship between organic deposition resulting from marshes and autogenic scales in deltaic stratigraphy
- Marsh-Delta Interactions: The strong influence of marsh deposition on delta slopes and mass partitioning
- Where rivers jump course
- Where rivers jump course
- Where rivers jump course
- Variable Flood Discharge Constrains Autochthonous Organic Carbon Preservation in Deltas: Insights From Physical Experiments
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