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Riverine

Capturing energy from river currents.

Riverine energy technologies extract the kinetic energy from flowing water in rivers to generate electricity. Although not technically a marine resource, as part of the natural hydrological cycle, water from drainage basins, groundwater springs, and snow melt feed rivers that flow towards lakes, seas, and oceans. This movement of water downstream can be used to generate electricity via riverine turbines or hydroelectric dams.

Riverine Turbines

  • Riverine turbines capture the kinetic energy from the flowing water in rivers, streams, canals, and creeks to generate electricity. These turbines can be mounted on the ground, attached to a fixed or floating structure, or suspended within the water column. Riverine turbines are similar to those used for tidal energy, except that they are designed to extract energy from water that flows in only one direction.

Photo Credit: Ocean Renewable Power Company (ORPC)

ORPC TidGen
Hydroelectric Dam

Hydroelectric Dams

  • Hydroelectric dams store large volumes of water which, when allowed to flow downstream, spin turbines that then generate electricity. The power extracted from the water depends on the volume of dammed water and the height between the source and the turbines.
  • Please note: Very little of the content in Tethys deals with the environmental effects of hydroelectric dams, as this topic falls outside of Tethys’ scope.

Photo Credit: Martina Nolte / Creative Commons CC-by-sa-3.0 de

The main environmental concern is collision between turbine blades and marine organisms due to natural animal movements, attraction to the device, or inability to avoid turbines within strong currents. It should be noted that these turbines spin much slower than propellers on ships, and that marine mammals are typically less common in most rivers. There is some concern that noise from the turbines can affect animals that use sound for communication, social interaction, orientation, predation, and evasion. As with all electricity generation, there is a slight concern that electromagnetic fields generated by power cables and moving parts may affect animals that use Earth's natural magnetic field for orientation, navigation, and hunting. Likewise, chemicals, such as anti-corrosion paint and small amounts of oil and grease, may enter the waterbody during spills and affect water quality. Large-scale changes in flow (from arrays) may alter the natural physical system, potentially affecting ecosystem processes, though this may be seen as a benefit for flood protection.

Marine and Wind Energy Environmental Documents

Tethys is a knowledge hub that contains documents on the environmental effects of wind and marine energy. The table below contains all of the documents in the Tethys Knowledge Base associated with Riverine.

Total: 107

Title Author Date Content Type Technology Stressor Receptor
Hydrokinetic Power for Energy Access in Rural Ghana Miller, V., Ramde, E., Gradoville, R. Journal Article Marine Energy, Riverine Human Dimensions, Legal & Policy
Hydrokinetic Energy Projects and Recreation: A Guide to Assessing Impacts Bowers, R., Harn, J., Rosebrough, S. Report Wave, Tidal, Riverine, Ocean Current, Marine Energy Recreation & Tourism, Human Dimensions
River, Tidal, and Ocean Current Hydrokinetic Energy Technologies: Status and Future Opportunities in Alaska Johnson, J., Pride, D. Report Riverine, Marine Energy Sediment Transport, Physical Environment, Fish
Evaluation of Small Axial Flow Hydrokinetic Turbines for Remote Communities Anyi, M., Kirke, B. Journal Article Marine Energy, Riverine Human Dimensions, Social & Economic Data
Run of River Hydrokinetic Renewable Energy Presentation: Clean, Domestic, Scalable, Continuous, Competative Power Free Flow Power Presentation Riverine, Marine Energy
An Estimation Of Survival And Injury Of Fish Passed Through The Hydro Green Energy Hydrokinetic System, And A Characterization Of Fish Entrainment Potential At The Mississippi Lock And Dam No. 2 Hydroelectric Projects Normandeau Associates Inc Report Marine Energy, Riverine Collision Fish
Lock and Dam No. 2 Hydroelectric Project Hydro Green Energy Project Site Marine Energy, Riverine
In-Stream Tidal Energy Potential of Puget Sound, Washington Polagye, B., Kawase, M., Malte, P. Journal Article Marine Energy, Riverine, Tidal Physical Environment
Hydrodynamic Effects of Kinetic Power Extraction by In-Stream Tidal Turbines Polagye, B. Thesis Marine Energy, Riverine, Tidal Changes in Flow Physical Environment
River Current Energy Conversion Systems: Progress, Prospects and Challenges Khan, M., Iqbal, M., Quaicoe, J. Journal Article Riverine, Marine Energy Human Dimensions
Environmental Assessment for Mississippi River Lock and Dam No. 2 Hydroelectric Project City of Hastings Report Riverine, Marine Energy Human Dimensions, Environmental Impact Assessment
A Review of the Application of Lifecycle Analysis to Renewable Energy Systems Lund, C., Biswas, W. Journal Article Wind Energy, Wave, Tidal, Riverine, Marine Energy Life Cycle Assessment, Human Dimensions
Evaluation of Blade-Strike Models for Estimating the Biological Performance of Kaplan Turbines Deng, Z., Carlson, T., Ploskey, G. Journal Article Marine Energy, Riverine Collision Fish, Pelagic Fish
A New Tool to Forecast Fish Movement and Passage Goodwin, R., Nestler, J., Anderson, J. Magazine Article Riverine, Marine Energy Fish
Potential Impacts Of Hydrokinetic And Wave Energy Conversion Technologies On Aquatic Environments Cada, G., Ahlgrimm, J., Bahleda, M. Journal Article Marine Energy, Riverine, Wave
Efforts to Reduce Mortality to Hydroelectric Turbine-Passed Fish: Locating and Quantifying Damaging Shear Stresses Cada, G., Loar, J., Garrison, L. Journal Article Marine Energy, Riverine Collision Fish
Evaluation of Blade-Strike Models for Estimating the Biological Performance of Large Kaplan Turbines Deng, Z., Carlson, T., Ploskey, G. Report Marine Energy, Riverine Collision Fish, Pelagic Fish
Use of Pressure-Sensitive Film to Quantify Sources of Injury to Fish Cada, G., Smith, J., Busey, J. Journal Article Riverine, Marine Energy Collision Fish
Comparison of Blade-Strike Modeling Results with Empirical Data Ploskey, G., Carlson, T. Report Riverine, Marine Energy Collision Fish
Identifying the Effects on Fish of Changes In Water Pressure during Turbine Passage Becker, J., Abernethy, C., Dauble, D. Magazine Article Riverine, Marine Energy Changes in Flow Fish
Life-Cycle Assessment of Electricity Generation Options: The Status of Research in the Year 2001 Gagnon, L., Bélanger, C., Uchiyama, Y. Journal Article Marine Energy, Riverine, Wind Energy, Land-Based Wind Human Dimensions, Life Cycle Assessment
Evaluation of the Effects of Turbulence on the Behaviour of Migratory Fish Odeh, M., Noreika, J., Haro, A. Report Riverine, Marine Energy Changes in Flow Fish
Evaluation of Juvenile Salmon Behavior at Bonneville Dam, Columbia River, using a Multibeam Technique Johnson, R., Moursund, R. Journal Article Marine Energy, Riverine Fish, Pelagic Fish
Laboratory Studies on the Effects of Shear on Fish Nietzel, D., Richmond, M., Dauble, D. Report Marine Energy, Riverine Changes in Flow Fish, Pelagic Fish
Downstream Migration of Fish Through Dams of Hydroelectric Power Plants Pavlov, D., Lupandin, A., Kostin, V. Book Riverine, Marine Energy Collision Fish
A Review of Studies Related to the Effects of Propeller-Type Turbine Passage on Fish Early Life Stages Cada, G. Journal Article Marine Energy, Riverine Collision Fish
Annapolis Tidal Station Nova Scotia Power Corporation Project Site Marine Energy, Riverine, Tidal

Displaying 81 - 107 of 107 results