• OSU Pytheas - Data Catalog
  •  
  •  
  •  

AcoustRivNN : flow and granulometry of the sediment transport in a river from acoustic pressure

AcoustRivNN proposes to develop a system to estimate the flow and the granulometry of the sediment transport in a river from the acoustic pressure generated by the latter using methods from artificial intelligence.


The estimation of the sediment flow carried by water, in rivers or estuaries, is a crucial issue for the management of the latter, allowing to carry out scientific studies, restoration or prevention projects, as well as operational works.


Given the lack of effective methods to estimate the flow of sediment, the AcoustRivNN project proposes to provide a "proof of concept" by developing an original system based on deep learning to estimate the flow of coarse sediments from the simple acoustic pressure generated by the latter and measured by hydrophones.


The originality of this project lies, in particular, in its interdisciplinary aspect proposing to adapt methods from artificial intelligence particularly effective in many applied fields. This project, which is part of the transversal axis 2: "Observations/information systems/modeling" of the ECCOREV federation, is structured in two phases:


- Phase I proposes to build an acoustic database referenced in the laboratory necessary for the training of a neural network.

- Phase II aims to develop a neural network model to characterize the acoustics of sediment flow.


DOI: https://doi.org/10.34930/dc3225de-ef03-4134-927e-2347d75d8b41


Citation:

Gassier, G., Michal, T., & Dussouillez, P. (2022). AcoustRivNN : flow and the granulometry of the sediment transport in a river from acoustic pressure [Data set]. CEREGE UMR 7330 CNRS. https://doi.org/10.34930/DC3225DE-EF03-4134-927E-2347D75D8B41

Simple

Date (Publication)
2022-09-02T11:00:00
Citation identifier
http://dataset.osupytheas.fr/geonetwork/srv/resourcesdc3225de-ef03-4134-927e-2347d75d8b41
Purpose

AcoustRivNN proposes to develop a system to estimate the flow and the granulometry of the sediment transport in a river from the acoustic pressure generated by the latter using methods from artificial intelligence.

Status
Completed
Point of contact
  CEREGE UMR 7330 CNRS - Gassier Ghislain ( )
Principal investigator
  CEREGE UMR 7330 CNRS - Tal Michal
Processor
  CEREGE UMR 7330 CNRS - Dussouillez Philippe
Maintenance and update frequency
As needed
Point of contact
  CEREGE UMR 7330 CNRS - GASSIER Ghislain

GEMET - Concepts, version 2.4

  • geology

  • geophysics

  • hydrogeology

  • acoustics

GEMET - INSPIRE themes, version 1.0

  • Geology

  • Hydrography

Continents, countries, sea regions of the world.

  • France

Theme
  • Sedimentary transport

  • Passive acoustic monitoring

  • Deep learning

  • Neuronal network

  • Signal processing

  • Sound recognition

  • Convolutional neural networks

  • multi layers perceptron

Access constraints
Copyright
Use constraints
otherRestictions
Spatial representation type
Vector
Denominator
5000
Language
English
Character set
UTF8
Topic category
  • Environment
  • Geoscientific information
Begin date
2020-09-01
End date
2022-09-04
Description

France

N
S
E
W
thumbnail


Supplemental Information

Cerege aix en provence

Reference system identifier
WGS 1984
Distribution format
  • WAV files ( 1.0 )

Owner
  CEREGE UMR 7330 CNRS - GASSIER Ghislain
OnLine resource
AcousticRivNN DOI ( DOI )

AcoustRivNN : flow and the granulometry of the sediment transport in a river from acoustic pressure

OnLine resource
AcousticRivNN .wav files ( WWW:LINK-1.0-http--link )
Hierarchy level
Dataset
Statement

Referenced acoustic measurement (PAM) realized by hydrohones in an acoustic tank

File identifier
dc3225de-ef03-4134-927e-2347d75d8b41 XML
Metadata language
English
Character set
UTF8
Hierarchy level
Dataset
Hierarchy level name

dataset

Date stamp
2022-09-12T11:55:39
Metadata standard name

ISO 19115:2003/19139

Metadata standard version

1.0

Custodian
  CEREGE UMR 7330 CNRS - GASSIER Ghislain ( )
 
 

Overviews

overview
acoustic measurement realized by hydrohones in an acoustic tank

Spatial extent

N
S
E
W
thumbnail


Keywords

Convolutional neural networks Deep learning Neuronal network Passive acoustic monitoring Sedimentary transport Signal processing Sound recognition multi layers perceptron
GEMET - Concepts, version 2.4
acoustics geology geophysics hydrogeology
GEMET - INSPIRE themes, version 1.0
Geology Hydrography

Provided by

logo
Access to the portal
Read here the full details and access to the data.

Associated resources

Not available


  •  
  •  
  •