The National Stream Internet Project An analytical framework for creating new information from old stream data Dan Isaak, Erin Peterson, Dave Nagel, Jay Ver Hoef, Jeff Kershner BIG DATA = BIG POSSIBILITIES More Pressure, Fewer Resources Climate Change Urbanization & Population Growth Shrinking Budgets Need to do more with less 21st Century Will be a Transitional One Invest Here Not here Sorry Charlie Good Information Critical for Decision Making Strategically Consistent Information Across Broad Areas for Efficient Planning Tactically Precise Information for Local Decisions & Project Implementation Regional models are too coarse I’m going to invest here… …instead of here What’s a Stream Internet? A network of people, data, digital information systems & analytical techniques that interact synergistically to create & transmit massive amounts of “information” Data (what’s being “clicked” on?) People on landscapes collecting data using standard protocols Google Servers & Databases Corporate databases & institutional memory Search algorithms find signal in noise (information from data) New stream analyses & research activities Key Ingredient #1: NHDPlus Streams Nationally consistent geospatial stream database Reach Descriptors: All • Elevation 2,500,000 • Slope • %Landuse stream • Precipitation kilometers100’s more… Cooter et al. 2010. A nationally consistent NHDPlus framework for identifying interstate waters: Implications for integrated assessments and interjurisdictional TMDLs. Environmental Management 46:510-524. Wang et al. 2011. A Hierarchical Spatial Framework and Database for the National River Fish Habitat Condition Assessment. Fisheries 36:436-449. Key Ingredient #2: Statistical Models for Data on Stream Networks…FINALLY! Key Innovation of Stream Models is Covariance Structure Based On Network Structure Models “understand” how information moves among locations based on network topology Peterson et al. 2007. Freshwater Biology 52:267-279; Peterson & Ver Hoef. 2010. Ecology 91:644-651. Stream Models are Generalizable… Distribution & abundance Response Metrics •Gaussian •Poissan •Binomial Stream Temperature Statistical stream models Genetic Attributes Water Quality Parameters Development Costs & Lineage Spatial Network Tools: $560,000 CSIRO $120,000 $17,000 EPA STAR Grant $150,000 NOAA/NCEAS $100,000 GNLCC $40,000 USFS $140,000 FLoWS (Functional Linkage of Waterbasins and Streams) Spatial Stream Statistics Working Group Isaak, D.J., E. Peterson, J. V. Hoef, S. Wenger, J. Falke, C. Torgersen, C. Sowder, A. Steel, M.J. Fortin, C. Jordan, A. Reusch, N. Som, P. Monestiez. 2014. Applications of spatial statistical network models to stream data. WIREs - Water 1:xxx. Peterson E.E. & Ver Hoef J.M. 2014. STARS: An ArcGIS toolset used to calculate the spatial information needed to fit spatial statistical models to stream network data. Journal of Statistical Software 56(2):1-17. Peterson E.E., Ver Hoef J.M., Isaak D.J., Falke J.A., Fortin M.J., Jordan C., McNyset K., Monestiez P., Ruesch A.S., Sengupta A., Som N., Steel A., Theobald D.M., Torgersen C.T. & Wenger S.J. 2013. Modeling dendritic ecological networks in space: an integrated network perspective. Ecology Letters 16:707-719. Som N.A., Monestiez P., Zimmerman D.L., Ver Hoef J.M. & Peterson E.E. In Press. Spatial sampling on streams: Principles for inference on aquatic networks. Environmetrics x:xxx. Ver Hoef J.M., Peterson E.E., Clifford D. & Shah R. 2014. SSN: An R package for spatial statistical modeling on stream networks. Journal of Statistical Software 56(3):1-45. Key Ingredient #3: Mountains of Data Could be Mined to Create Valuable “Information” Free millions! Temperature Discharge – USGS NWIS Free millions! Water Quality Free millions! Species distributions Genetic Samples Free millions! >45,000,000 hourly records >15,000 unique stream sites A BIG DATA Example = 50% of Data Stream Internet >70 agencies Technologies in Action $10,000,000 data value Regional Temperature Model + Accurate temperature models Cross-jurisdictional “maps” of stream temperatures Consistent planning datum for 500,000 kilometers of stream 50 National Forests & All Lands Between Data from New Models are More Accurate than200 Old Models… Training on left 2007 validation on right Mean Summer Temp Summer Stream Mean Summer Mean 19 Predicted (C°) 14 9 4 4 30 25 20 15 10 5 9 14 Spatial Stream MWMT Temp = – 0.0045*Elevation (m) y = 0.86x + 2.43 + 0.0085*Radiation + 0.48*AirTemp (°C) – 0.11*Flow (m3/s) 19 cted (C°) Predicted (°C) Non-spatial Stream Temp = – 0.0064*Elevation (m) y = 0.93x + 0.830 + 0.0104*Radiation + 0.39*AirTemp (°C) – 0.17*Flow (m3/s) 0.68x +RMSE 3.82 r2 y==0.68; = 1.54°C 19 14 Training on left 2007 v 9 Non-spatial Model 4 Summer Mean 4 19 30 9 14 2 ry ==0.93x 0.93; RMSE = 0.74°C + 0.830 MWMT 19 y = 0.55x + 7.79 25 14 20 9 15 Spatial Model 4 10 4 5 Isaak et al. 2010. Ecol. Apps. 20:1350-1371 9 14 19 MWMT Observed (°C) Model Interpolations Provide High-Resolution Network Status Maps Time 1 Time 2 Trend Which then facilitate trend assessments… Stream Thermalscape so Far… The BLOB…it just keeps growing… 29,593 summers of data swallowed 296,000 stream kilometers of thermal ooze BLOB Space, but BLOB time too… Where will the Coldwater Refuges Exist? 1993-2011 2080’s 2040’s A1B Composite Here they are The BLOB…it just keeps growing… 29,593 summers of data swallowed 296,000 stream kilometers of thermal ooze Strategic & Tactical Prioritization of Conservation & Restoration… •Maintaining/restoring flow… •Maintaining/restoring riparian… •Restoring channel form/function… •Prescribed burns limit wildfire risks… •Non-native species control… •Improve/impede fish passage… Low High Priority Priority The BLOB had a Dream… “What if I could eat data everywhere?” 2,500,000 stream kilometers nationally Stream Internet Project Objectives 1) Develop compatibility between spatial stream analysis tools and national hydrography layer (NHDPlus, v2) 2) Update STARS stream analysis tools to ArcMap 10.2 3) Host national workshop in 2015 to engage key researchers & leaders from aquatic programs (i.e., power-users) Projects like NorWeST done routinely & incentives exist for database aggregation Using the Stream Internet is Easy… Distribution & abundance Stream Temperature Develop a Database & DO IT! Genetic Attributes Water Quality Parameters Stream Statistical Software is Free SSN/STARS Website Spatial Stream Networks (SSN) Package for R • Software • Example Datasets • Documentation User Community is Growing Rapidly… >14,000 Visits to SSN/STARS website in first 1.5 years >500 software downloads Locations of visits to SSN/STARS website in last month 2nd Annual Stream Statistics Training Workshop in Boise May 15 – 17 >100 Participants from U.S. & 1 from Egypt! Ida ho Wa ter Center 3 day workshop 1st day: overview of spatial stream models (webinar) 2nd/3rd days: work 1-on-1 with Jay/Erin to model your data Attendees (15 people); 1st day webinar viewers (unlimited) If Interested, contact Dan Isaak (disaak@fs.fed.us) or go to the SSN/STARS website for registration details More With Less, but What If… It was Massively More? Climate Change Population growth Shrinking Budgets X C u on … stream Step 2. Link to Covariate Predictors 100’s are Available (NHDPlus, NLCD, DEMs…) Each Reach: • • • • Elevation Slope %Landuse Precipitation 100’s more… Cooter et al. 2010. A nationally consistent NHDPlus framework for identifying interstate waters: Implications for integrated assessments and interjurisdictional TMDLs. Environmental Management 46:510-524. Wang et al. 2011. A Hierarchical Spatial Framework and Database for the National River Fish Habitat Condition Assessment. Fisheries 36:436-449. Crowd-Sourcing Uses Everyone’s Data, Everyone is Engaged in the Process Landscape/ Network GCM Coordinated Management Responses Management Decisions Data Collected by Local Bios & Hydros Closing Argument for A Stream InterNet Technology exists. Statistical theory, computing horsepower, & geospatial techniques can be used to develop massive amounts of accurate information (e.g., NorWeST temperature project). Needed. Doing more with less is the “new normal” and all agencies have mandates to protect, conserve, & manage aquatic resources. Scalable. NHDPlus, BIG DATA aquatic databases, & large user-base of motivated aquatic resource stewards from hundreds of organizations across the country. Costs. Minimal, can we afford not to? Value. Priceless. How do you value better information? Integrate with… Watershed Condition Indicators Forest Plan Revisions Advantages… 1) Huge cost:benefit ratio ($10:$1 – conservatively) 2) Good Information empowers everyone to manage/conserve more effectively 3) New data are collected more efficiently All pieces are there – just need institutional & individual commitments. Aquatic Surveys Module in NRM Temperature Surveys Tool in AqS Data Entry, Uploading, Maintenance Interface 18 14 10 6 Stream Temperature (˚C) 7 Survey Types in AqS Temperature Reach Passage Characterization TimeLake-Pond Spring Amphibian Valley Segment Callie McConnell’s development team is superb Surveys/database structure can be evolved Things We Can do to Help Ourselves 1. Develop/endorse a standard set of protocols for measuring aquatic things (stream temp, flow, water chemistry, biological distributions/genetics) 2. Organize our army’s ammo (all data has to go into NRM!) USFS has ~600 fish bios/hydros. (That’s an aquatics army!) 3. Adopt/endorse the NHDPlus 1:100,000 scale national hydrography layer for use by national forest systems. Lots of data ose data…assuming we get it into a useful format and it’s archived in NRIS so n and future generations can use it… w motto should instead of “only you ires…” “DON’T MAKE SMOKEY ANDARDIZED DATA PROTOCOLS AND A Digital Information Revolution is Better Status & Trend Monitoring Happening Better Understanding & Prediction New relationships described Response Old relationships tested Predictor Refined Rejected Better Information Enables Better Decisions, Efficiency, & Resource Stewardship The 21st-Century will Be a Transitional One Pick these Not these Sorry Charlie Research/Management Synergy A Large Land-base 190 Million Acres “Boots-on-the-Ground” + The Green Team has Unique Advantages Relative to Other Resource Agencies… + Lots of data being collected + USFS has ~600 fish bios/hydros. (That’s an aquatics army!) + Research stations develop information & connect people Where do Fish Fit in a Terrestrial World? This is a Tree not a Fish “Smart” Maps Developed from Data Good Maps Significantly Reduce Uncertainty We need to make this generation’s maps showing aquatic resource status Where do Fish Fit in a Terrestrial World? This is a Tree not a Fish Data Needs to be Accessible Data In Information Out #1 Spatially referenced, corporate database 20 Status Aquatic Surveys Module Summer Mean Air (C) 22 #4 18 16 14 1970 Status & Trend Assessments 1975 1980 1985 1990 1995 2000 2005 Time #3 Spatially Continuous Resource Maps #2 #2a More data, monitoring design Analysis 2010 Key Points (quotes from LCC proposals) GNLCC NorWeST proposal…objective is not to make recommendations regarding specific management activities…only to provide tools that enable development of accurate information that is fundamental to an informed discussion about prioritizing those activities. LCC Stream Internet proposal…over time, strong communities, empowered with good information, will manage and conserve aquatic resources more effectively. …our experience in application of the Stream Internet technologies within the regional NorWeST project is that they are transformative for developing and solidifying the social networks and interagency collaborations that are needed for the most effective stewardship. Also address reviewer comments on proposal Another “app” fish genome mapping Show graphic of temp map, but pretend now that’s a species genetic diversity mapped to the landscape. Entirely possible—do overlay of Cheap protocols – collect tissues, process for $5/fish once SNPs developed, model diversity, # alleles, etc as a function of landscape characteristics “Stocking” the national stream (internet): DNA barcoding the riverscape to identify, delineate, and monitor units of conservation of aquatic species Michael Young, Kevin McKelvey, Michael Schwartz, Daniel Isaak What are conservation units? Recognizable, substantive components of the evolutionary legacy of a taxon ● ● ● ● lineage DPS ESU GMU ● ● ● ● MOTU Stock Subspecies Species Ardren et al. 2011 bull trout What builds them? ● ● ● ● Continental dynamics Climate Evolution Interact over deep time to: Build a river basin Colonize it Re-route the basin Recolonize Repeat Why know about them: ectotherms are in trouble How do we manage? Translocation Supplementation Duplication Refounding Broodstocks Williams et al. 2011 Identifying biodiversity: use genes 2003: universal DNA barcode ~95% species, 100% accurate Library of barcodes and sequences GenBank, BOLD Results: Conservation units Cryptic diversity Hybridization Adaptive traits Delineating biodiversity: address space Sample Broadly Intensively Randomly Map Conservation units Native species conservation areas Kershner et al. 2005 Al-Chokhachy et al. 2010 Westslope cutthroat trout ● State fish of Idaho, Montana ● Widely distributed across the Northern Rockies ● ~50% decline in distribution ● Repeatedly petitioned for federal listing ● “While conducting the new status review for WCT, we found no compelling evidence for recognizing DPSs of WCT. Instead, for purposes of the new status review, we recognize WCT as a single taxon in the contiguous United States.” –USFWS 2003 Phylogeography of westslope cutthroat trout ● Across five states and two Canadian provinces ● WSCT are one taxon with: ● Marked “north-south” split ● Lineages within each ● Terminal divergence = post-Ice-Age diversification Phylogeography of westslope cutthroat trout ● Ancestral ● John Day, OR ● Hotspot ● Clearwater, ID ● Stocking ● Detectable The trouble with sculpin (Cottus) ● ● ● ● ● Extraordinarily abundant Salmon/trout stream = sculpin stream Most challenging group to identify Hybridization common Taxonomy unsatisfying Young et al. 2013 Conservation units for sculpins in the Northern Rockies Range of the new species, cedar sculpin Divergent torrent sculpins are in the Palouse River In 1932, these fish were described as C. tubulatus, are confined to the Clearwater, and could be a distinct species Shorthead sculpins in the Sinks basins are morphologically and genetically distinct from those in the Salmon Building a biodiversity portfolio for the U.S. ● Use molecular methods to assess samples across space & species ● Conservation unit atlas ● Proactive ● Internationally consistent ● Locally – globally relevant ● Data universally available ● Reasonable cost ● Waiting to be done . . . ● Once conservation units are identified, how do we monitor them? Monitoring the biodiversity portfolio: eDNA ● Pioneering this approach for identification and detection ● Optimizing for local to rangewide assessments ● Developing user-driven applications ● Costs: pennies on the dollar Home across the range: range-wide eDNA assessment of bull trout ● ● ● ● Sample 1000s of sites Determine occupancy Refine the model Set the benchmark Is anybody else home: range-wide eDNA assessment of aquatic species ● All other species detectable! ● . . . after cons. units known