S. Simmons

发表

Impact of scaled tidal stream turbine over mobilesediment beds

D. Parsons, S. McLelland, R. Cooke, 2015 .

A new methodology for the quantitative visualization of coherent flow structures in alluvial channels using multibeam echo‐sounding (MBES)

Daniel R. Parsons, James Leonard Best, Stephen M. Simmons, 2010 .

An investigation of the wake recovery of two model horizontal-axis tidal stream turbines measured in a laboratory flume with Particle Image Velocimetry

Daniel R. Parsons, Stuart J. McLelland, Brendan Murphy, 2017 .

Asymmetric effects of a modelled tidal turbine on the flow and seabed

D. Parsons, S. McLelland, R. Cooke, 2020, Renewable Energy.

Relating the Flow Processes and Bedforms of Steady-State and Waning Density Currents

R. Dorrell, S. McLelland, H. Naruse, 2020, Frontiers in Earth Science.

Monitoring Suspended Sediment Dynamics Using MBES

S. Lane, J. Best, D. Parsons, 2010 .

An evaluation of the use of a multibeam echo-sounder for observations of suspended sediment

Daniel R. Parsons, James Leonard Best, Stephen M. Simmons, 2017 .

Monitoring the generation and evolution of the sediment plume behind towed fishing gears using a multibeam echosounder

J. Best, D. Parsons, F. Armstrong, 2013 .

Rapidly-migrating and internally-generated knickpoints can control submarine channel evolution

D. Parsons, E. Sumner, J. Dix, 2020, Nature Communications.

Sticky stuff: Redefining bedform prediction in modern and ancient environments

J. Peakall, D. Parsons, D. Paterson, 2015 .

The role of biophysical cohesion on subaqueous bed form size

J. Peakall, D. Parsons, D. Paterson, 2016, Geophysical research letters.

Sediment and organic carbon transport and deposition driven by internal tides along Monterey Canyon, offshore California

D. Parsons, E. Sumner, C. Paull, 2019, Deep Sea Research Part I: Oceanographic Research Papers.

Longest sediment flows yet measured show how major rivers connect efficiently to deep sea

M. Trigg, M. Urlaub, J. Neasham, 2022, Nature Communications.

Flood and tides trigger longest measured sediment flow that accelerates for thousand kilometers into deep-sea

M. Trigg, M. Urlaub, J. Neasham, 2022 .

First source-to-sink monitoring shows dense head controls sediment flux and runout in turbidity currents

D. Parsons, J. Hunt, J. Eggenhuisen, 2022, Science advances.

Three-dimensional modelling of suspended sediment transport in the far wake of tidal stream turbines

Ming Li, S. McLelland, Xiaorong Li, 2020, Renewable Energy.

Temporal characteristics of coherent flow structures generated over alluvial sand dunes, Mississippi River, revealed by acoustic doppler current profiling and multibeam echo sounding

J. Best, D. Parsons, J. Czuba, 2009 .

Newly recognized turbidity current structure can explain prolonged flushing of submarine canyons

Daniel R. Parsons, Esther J. Sumner, Peter J. Talling, 2017, Science Advances.

Knickpoints and crescentic bedform interactions in submarine channels

D. Parsons, E. Sumner, J. Hunt, 2021, Sedimentology.

Rapidly-migrating and internally-generated knickpoints can control submarine channel evolution

D. Parsons, E. Sumner, J. Dix, 2020, Nature Communications.

The influence and interactions of delta slopes and knickpoints on bedforms within submarine channel systems

D. Parsons, P. Talling, Rebecca Williams, 2019 .

Linking Direct Measurements of Turbidity Currents to Submarine Canyon-Floor Deposits

D. Parsons, E. Sumner, C. Paull, 2019, Front. Earth Sci..

Earth and Planetary Science Letters What determines the downstream evolution of turbidity currents?

D. Parsons, E. Sumner, C. Paull, 2022 .

Preconditioning by sediment accumulation can produce powerful turbidity currents without major external triggers

D. Parsons, C. Paull, I. Haigh, 2021, Earth and Planetary Science Letters.

Powerful turbidity currents driven by dense basal layers

D. Caress, D. Parsons, E. Sumner, 2018, Nature Communications.

Direct Monitoring Reveals Initiation of Turbidity Currents From Extremely Dilute River Plumes

D. Parsons, E. Sumner, J. Hunt, 2019, Geophysical research letters.

Carbon and sediment fluxes inhibited in the submarine Congo Canyon by landslide-damming

M. Urlaub, D. Parsons, B. Dennielou, 2022, Nature Geoscience.

Fill, flush or shuffle: How is sediment carried through submarine channels to build lobes?

D. Parsons, E. Sumner, J. Eggenhuisen, 2022, Earth and Planetary Science Letters.

Direct evidence of a high-concentration basal layer in a submarine turbidity current

D. Parsons, C. Paull, Zhiwen Wang, 2020, Deep Sea Research Part I: Oceanographic Research Papers.

Density stratification controls the bedform phase diagram of saline‐gravity currents versus open‐channel flows

R. Dorrell, S. McLelland, H. Naruse, 2023, Sedimentology.

Global monitoring data shows grain size controls turbidity current structure

E. Sumner, C. Paull, P. Talling, 2020 .

Time‐Lapse Seafloor Surveys Reveal How Turbidity Currents and Internal Tides in Monterey Canyon Interact With the Seabed at Centimeter‐Scale

D. Caress, C. Paull, P. Talling, 2023, Journal of Geophysical Research: Earth Surface.

Laboratory study on the effects of hydro kinetic turbines on hydrodynamics and sediment dynamics

D. Parsons, S. McLelland, R. Cooke, 2018, Renewable Energy.

Detailed monitoring reveals the nature of submarine turbidity currents

D. Parsons, C. Paull, Ricardo Silva Jacinto, 2023, Nature Reviews Earth & Environment.

Novel sensor array helps to understand submarine cable faults off West Africa

M. Trigg, M. Urlaub, D. Parsons, 2021 .

Newly recognized turbidity current structure can explain prolonged flushing of submarine canyons

D. Parsons, E. Sumner, P. Talling, 2017, Science Advances.

Measurement of Large-Scale Sediment Transport Dynamics Using Multibeam Sonar

D. Parsons, J. Best, G. Keevil, 2007 .