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AWAE Program Headquarters
322 East Front St., Ste 401
Boise, ID 83702
(208) 373-4340
Rocky Mountain Research Station Headquarters
2150 Centre Ave., Bldg A
Fort Collins, CO 80526
(970) 295-5923
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Rocky
Mountain Research Station Home > Science
Program Areas > Air, Water
and Aquatics > Boise Lab Stream Temperature Modeling and Monitoring
Stream Temperature Modeling and Monitoring

Thermal regimes are important to aquatic ecosystems because they strongly dictate species distributions, productivity, and abundance. Inexpensive digital temperature loggers, geographic information systems (GIS), remote sensing technologies, and new spatial analyses are facilitating the development of temperature models and monitoring networks applicable at broad spatial scales. This web site provides a mapping tool to help those in the western US organize temperature monitoring efforts, describes techniques for measuring stream temperatures, and describes several statistical models for predicting stream temperatures and thermally suitable fish habitats from temperature data. The web site also provides links to other stream temperature resources such as publications, videos, and presentations on topics relating to thermal regimes in streams.
This Page: Temperature Monitoring | Temperature Models | Other Resources | Stream Temperature Publications
stream temperature Monitoring

Dynamic Mapping Tool for Full-Year Stream Temperature Monitoring Sites
Sites Map Updated May 2012
Idaho (899 sites)
Wyoming (51 sites)
Washington (533 sites)
Oregon (484 sites)
Nevada (17 sites)
Montana (523 sites)
Colorado (72 sites)
Utah (10 sites)
Newer States added:
Alaska (5 sites)
California (35 sites)
Georgia (25 sites)
Hawaii (9 sites)
Maryland (20 sites)
North Carolina (86 sites)
South Carolina (4 sites)
Tennessee (12 sites)
Virginia (70 sites)
West Virginia (37 sites)
Future Sites -
Arizona | New Mexico | South Dakota
Map and table filter tips - Filter the stream temperature sites by state, agency, year and contact
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This tool provides a spatial index to nearly 2,900 sites on streams and rivers in the US where full year stream temperatures are currently being monitored by numerous agencies. The primary goal is to portray a comprehensive set of sites across all agencies to facilitate data sharing and avoid redundancies, as new monitoring sites are added to the regional network. Raw temperature data are not downloadable through this site, but typically reside with the local data stewards, whose contact information is displayed by clicking on a point in the map. In some instances, RMRS may have copies of the raw data and permission to distribute it, so we ask that you contact us before contacting the local data stewards. The map will be updated once each winter to maintain an accurate description of current monitoring locations. If interested in obtaining temperature data, or if you have full year temperature monitoring sites to add to the map, please contact Sherry Wollrab: 208.373.4371; sherrywollrab <at> fs.fed.us.
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stream temperature Models
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GNLCC Regional Stream Temperature Model
A new regional stream temperature modeling project has been initiated with funding from the Great Northern LCC. One of the goals of the project is to compile existing stream temperature data from federal, state, tribal, and private sources across the five state region that comprises the US portion of the GNLCC. These data will be developed into a comprehensive, integrated regional database that is made available to all interested parties. The stream temperature database will also be used with new spatial statistical models for river networks to develop an accurate regional model capable of predicting stream temperatures for all fish-bearing streams. The model will be used to simulate a variety of historic and future climate scenarios and to assess effects on the distributions of thermal habitat for multiple aquatic species. Spatially continuous maps of stream temperature predictions and thermal habitats will be made available as GIS layers at the end of this project to assist in conservation and management planning.
The first phase of this project is simply assembling the database of stream temperature information from the many sources across the GNLCC. For those interested in learning more about the project or possibly contributing temperature data, please visit the project website http://nrmsc.usgs.gov/gnlcc/str_tempDB, where detailed instructions for data submissions, project boundaries, methodologies, and contact information are provided below.
For more information about the project, please contact:
Dan Isaak (disaak@fs.fed.us ; 208.373.4385)
Jeff Kershner (jkershner@usgs.gov ; 406.994.5304)
Jason Dunham (jdunham@usgs.gov ; 541.750.7397)
Maps showing status of temperature database by state
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Air
Temperature Based Thermal Stream Habitat Model
This model was developed for predictions across the interior Columbia River basin in
the Pacific Northwest. The model predicts the distribution of
thermally suitable habitat for bull trout by incorporating air
temperature, elevation, latitude, and longitude. |
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Spatial
Statistical Stream Temperature Model
This stream temperature modeling
approach uses thermograph data and the predictor variables: air temperature,
solar radiation, elevation, and stream flow. GIS and spatial statistical
models that account for network topology were used to predict stream
temperatures at 1 km intervals throughout a 2,500 km river network. |
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Multiple
Regression Stream Temperature Model
This modeling approach uses thermograph records and a simple set of
geomorphic predictor variables derived from digital elevation models
(DEM). A multiple regression model and GIS are used to
predict stream temperatures for individual reaches
throughout a river network. |
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other Stream Temperature Resources
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Climate Change Resource Center Reference Web site for resource managers and decision makers who need information and tools to address climate change in planning and project implementation. |
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Climate-Aquatics Blog
Discussion group where new research and topics of general relevance to climate change and aquatic ecosystems are periodically posted for broad dissemination and feedback |
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2011 Climate-Aquatic Workshop
Understanding and Adapting To Climate Change in Aquatic Ecosystems at Landscape and River Basin Scales: A decision support workshop for integrating research and management |
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Temperature Data Macro
Stream Temperature SAS Macro |
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awae stream temperature Publications and Presentations
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2012
Monitoring & Modeling Stream Temperatures: Lessons Learned in the Northwest with Applications to the Northeast - Presentation Slides
Spatial statistical models on stream networks – Presentation Slides
A video demonstration of installing temperature sensors with underwater epoxy - 5 minute video demonstration
A large-scale field evaluation of a cost-effective and simple method to monitor full-year temperatures in mountain streams - Poster Presentation |
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| A Simple Method Using Underwater Epoxy to Install Temperature Sensors in Mountain Streams - Presentation slides |
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| Climate Change Effects on Coldwater Stream Ecosystems: How Climate Concerns are Driving Development of Better Decision Support Tools & Improving Resource Management - Webinar video (PDF) |
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| Climate Change Effects on Stream & River Temperatures across the Northwest U.S. from 1980–2009- Presentation slides |
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| Where’s the Beef? - Why 20 Years of Predicted Global Warming Effects on Fish Distributions Remain Unsubstantiated- Presentation slides |
2011
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| Isaak, D.J. 2011. Stream Temperature Monitoring and Modeling: Recent Advances and
New Tools for Managers. Stream Notes. Stream Systems Technology Center. July 2011. 7 p. |
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| Isaak, D.J., and D.L. Horan. 2011. An assessment of underwater epoxies for permanently installing temperature sensors in mountain streams. North American Journal of Fisheries Management 31:134-137. |
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| Isaak, D. J.; D. Horan, and S. Wollrab. 2011. A visual guide to permanently installing temperature sensors in streams using underwater epoxy. Updated 2/2/12 |
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Isaak, D.J., S. Wollrab, D. Horan, and G. Chandler. 2011. Climate Change Effects on Stream and River Temperatures across the Northwest U.S. from 1980 – 2009 and Implications for Salmonid Fishes. Climatic Change. DOI 10.1007/s10584-011-0326-z. |
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Regional Efforts to Monitor & Model Temperature Response of Northwest US Streams to Climate Change - Presentation slides
Monitoring and Modeling Northwest US stream and river temperatures |
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Regional Efforts to Monitor & Model Temperature Response of Northwest US Streams to Climate Change - Webinar video (PDF) |
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2010 |
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Isaak, Daniel J.; Luce, Charles H.; Rieman, Bruce E.; Nagel, David E.; Peterson, Erin E.; Horan, Dona L.; Parkes, Sharon; Chandler, Gwynne L. 2010. Effects of climate change and wildfire on stream temperatures and salmonid thermal habitat in a mountain river network. Ecological Applications. 20(5): 1350-1371. |
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Massive air and stream temperature sensor networks for studying microclimatic variation in mountain landscapes of the northwestern U.S. - 2010 Poster Presentation |
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| 2009 |
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| Isaak, D.J., B.E. Rieman, and D. Horan. 2009. A watershed-scale bull trout monitoring protocol. USDA Forest Service, Rocky Mountain Research Station, GTR-RMRS-224, Fort Collins, CO. |
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Stream Thermal Regimes & Aquatic Ecosystems in a Changing Climate - 2009 Presentation slides
General discussion of climate influences on stream temperatures: why stream temperatures are so important, what are the likely mechanisms of change, and observed/predicted patterns in stream temperature |
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| Collecting, Organizing, and Applying Stream Temperature Data - 2009 Presentation slides |
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2008 and earlier |
| Dunham, J.B., A.E. Rosenberger, C.H. Luce, B.E. Rieman. 2007. Influences of Wildfire and Channel Reorganization on Spatial and Temporal Variation in Stream Temperature and the Distribution of Fish and Amphibians. Ecosystems: 10: 335-346. |
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| Rieman, B.E., D.J. Isaak, S. Adams, D. Horan, D. Nagel, C. Luce, and D. Myers. 2007. Anticipated climate warming effects on bull trout habitats and populations across the Interior Columbia River Basin. Transactions of the American Fisheries Society 136:1552-1565. |
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| Dunham, J., G. Chandler, B. Rieman, and D. Martin. 2005. Measuring stream temperature with digital data loggers: A user's guide. General Technical Report. RMRSGTR-150WWW. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Research Station. 15pp. |
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| Isaak,
D.J., and W.A. Hubert. 2004. Nonlinear
response of trout abundance to summer stream temperatures across a thermally
diverse montane landscape. Transactions of the American Fisheries
Society 133:1254-1259. |
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| Meeuwig,
M. H.; Dunham, J. B.; Hayes, J. P.; Vinyard, G. L. 2004. Effects
of constant and cyclical thermal regimes on growth and feeding of juvenile
cutthroat trout of variable sizes. Ecology of Freshwater
Fish. 13(3): 208–216. |
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| Dunham,
J., B. Rieman and G. Chandler 2003. Influences
of temperature and environmental variables on the distribution of
bull trout within streams at the southern margin of its range. North
American Journal of Fisheries Management 23:894-904. |
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| Dunham,
J., R. Schroeter and B. Rieman 2003. Influence
of maximum water temperature on occurrence of Lahontan cutthroat trout
within streams. North American Journal of Fisheries Management
23:1042-1049. |
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| Isaak,
D.J., and W.A. Hubert. 2001. A
hypothesis about factors that affect maximum summer stream temperatures
across montane landscapes. Journal of the American Water Resources
Association 37:351-366. |
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