uid=AND,o=lter,dc=ecoinformatics,dc=org all public read SP036 Karla Jarecke jareckek@gmail.com Steven M. Wondzell

Pacific Northwest Research Station; Corvallis Forestry Sciences Lab; 3200 SW Jefferson Way Corvallis OR 97331 USA

541-758-8753 steve.wondzell@usda.gov https://www.fs.fed.us/pnw/lwm/aem/people/wondzell.html Kevin Bladon kevin.bladon@oregonstate.edu http://fews.forestry.oregonstate.edu/ Steven M. Wondzell

Pacific Northwest Research Station; Corvallis Forestry Sciences Lab; 3200 SW Jefferson Way Corvallis OR 97331 USA

541-758-8753 steve.wondzell@usda.gov https://www.fs.fed.us/pnw/lwm/aem/people/wondzell.html Principal Investigator Kevin Bladon kevin.bladon@oregonstate.edu http://fews.forestry.oregonstate.edu/ Other Researcher Karla Jarecke jareckek@gmail.com Creator Steven M. Wondzell

Pacific Northwest Research Station; Corvallis Forestry Sciences Lab; 3200 SW Jefferson Way Corvallis OR 97331 USA

541-758-8753 steve.wondzell@usda.gov https://www.fs.fed.us/pnw/lwm/aem/people/wondzell.html Creator Kevin Bladon kevin.bladon@oregonstate.edu http://fews.forestry.oregonstate.edu/ Creator 2021-04-01 Soil water content was measured at 0–30 cm and 0–60 cm depth at 54 sites within a 10-ha north-facing forested slope of Watershed 1 on 14 dates from August 2016–October 2017. Soil properties were measured at 13 soil moisture sites during the summer of 2017. Soil properties include bulk density, percent sand, percent clay, percent silt, gravimetric rock content, volumetric water content at field capacity, volumetric water content at turgor loss point, and saturated hydraulic conductivity at 15 and 45 cm depth. Total soil depth and resistance to penetration were also measured at 38 sites using a dynamic cone penetrometer. Volumetric water content (VWC) and soil water potential were recorded every 30 min at 9 locations in Watershed 1. VWC sensors were installed at 5, 50, and 100 cm and soil water potential were installed at 50 cm at each location. soil water content time domain reflectometry soil forest ecosystems LTER controlled vocabulary Related FilesTitle: Site Location MapDescription: Site location map categorized using the Topographic Position IndexURL: https://andrewsforest.oregonstate.edu/data/studies/sp036/sp036_site_location_map.pdf Data Use Agreement: The re-use of scientific data has the potential to greatly increase communication, collaboration and synthesis within and among disciplines, and thus is fostered, supported and encouraged. This Data Set is released under the Creative Commons license CC BY "Attribution" (see: https://creativecommons.org/licenses/by/4.0/). Creative Commons license CC BY - Attribution is a license that allows others to distribute, remix, tweak, and build upon your work (even commercially), as long as you are credited for the original creation. This license accommodates maximum dissemination and use of licensed materials. It is considered professional conduct and an ethical obligation to acknowledge the work of other scientists. The Data User is asked to provide attribution of the original work if this data package is shared in whole or by individual parts or used in the derivation of other products. A recommended citation is provided for each Data Set in the Andrews LTER data catalog (see: http://andlter.forestry.oregonstate.edu/data/catalog/datacatalog.aspx). A generic citation is also provided for this Data Set on the website https://portal.edirepository.org in the summary metadata page. Data Users are thus strongly encouraged to consider consultation, collaboration and/or co-authorship with the Data Set Creator. While substantial efforts are made to ensure the accuracy of data and associated documentation, complete accuracy of data sets cannot be guaranteed and all data are made available "as is." The Data User should be aware, however, that data are updated periodically and it is the responsibility of the Data User to check for new versions of the data. The data authors and the repository where these data were obtained shall not be liable for damages resulting from any use or misinterpretation of the data. General acknowledgement: Data were provided by the HJ Andrews Experimental Forest research program, funded by the National Science Foundation's Long-Term Ecological Research Program (DEB 2025755), US Forest Service Pacific Northwest Research Station, and Oregon State University. http://andlter.forestry.oregonstate.edu/data/abstract.aspx?dbcode=SP036 Watershed 1, H.J. Andrews Experimental Forest -122.25563380 -122.25089480 44.20546220 44.20357538 515 668 meter 2016-08-16 2017-10-15 We designed our study to test if the redistribution of water, following surface topography, controlled the spatial patterns of soil moisture across a steep forested hillslope with well-drained soils.

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Andrews Forest LTER Program US Forest Service Pacific Northwest Research Station 3200 SW Jefferson Way Corvallis OR 97331

hjaweb@fsl.orst.edu http://andrewsforest.oregonstate.edu/ Andrews Forest LTER Site

Forest Ecosystems and Society Department in Forestry Oregon State University 201K Richardson Hall Corvallis OR 97331-5752

(541) 737-8480 lterweb@fsl.orst.edu http://andrewsforest.oregonstate.edu/ Field Methods - SP036 Soil volumetric water content (VWC) was measured at 54 sites using time domain reflectometry (TDR; model No. 1502C, Tektronix Inc., Beaverton, OR). VWC was measured over two mineral soil layers, 0–30 and 0–60 cm. Measurements points were replicated at each site so there were two VWC measurements for each depth. A measurement point consisted of a pair of TDR rods installed vertically, 5 cm apart, in mineral soil. The replicate measurement points were, on average, 2.5 m apart and the measurement volume of each point was 30 cm or 60 cm deep and 10 cm in diameter (Topp et al. 1980). The reflection trace was converted from TDR to VWC using a calibration equation developed in a nearby watershed (Gray & Spies, 1995). VWC was estimated at 30-60 cm using the VWC from adjacent 0-30 and 0-60 cm probes after accounting for differences in volume sampled: VWC(30-60cm) =2 × VWC(0-60cm) - VWC(0-30cm). The sensitivity of the instrument was 0.01 cm3/cm3 as determined from repeat measurements less than one minute apart. Soils were collected by digging a shallow pit and exposing an undisturbed soil face. Soils overlying each sampling depth, 15 and 45 cm, were removed and a 250 cm3 metal cylinder (5 cm tall and 8 cm diameter) was pounded vertically into the soil. Saturated hydraulic conductivity (Ks) was measured in the laboratory using the falling head method on the KSAT device (METER Group Inc.). The Ks was averaged from five repeated measurements from each soil core. Soils from individual cores were subsequently dried at 105 deg C for 24 hours and the oven-dried weight was divided by the sample volume to determine the bulk density. The dried soil sample was used to quantify gravimetric coarse content and particle size. Coarse material consisted of 2-5 mm rock fragments, weathered saprolite fragments, roots, and wood. The sample was placed in a mortar and lightly tapped with a pestle to break soil aggregates but preserve saprolite fragments. The sample was then passed through a 2 mm sieve to remove coarse material, including saprolite fragments. The sieved soil was mixed, a 5-7 g subsample was collected, and then organic carbon was removed from the subsample using the hydrogen peroxide method (Mikutta et al., 2005). The subsample was sent to the Critical Zone Lab at Virginia Tech for particle size analysis using laser diffractometry on a CILAS 1190 laser particle size analyzer (Miller & Schaetzl, 2012). Depth to bedrock was measured at 38 sites using a dynamic cone penetrometer, which is also known as a knocking pole (Shanley et al., 2003; Yoshinaga & Ohnuki, 1995). The pole consisted of 0.5 m graduated steel rod segments and a 20 mm long and 24 mm diameter cone tip, which was driven into the soil by repeated drops of a 5 kg weight onto a platform threaded on the upper segment of the pole. When the resistance to penetration became large (moving less than 1 cm in 15 or more knocks), it was assumed the cone tip had reached bedrock. Soil depth to bedrock was calculated at each site from the average of 2-3 repeat measurements taken approximately 5-10 m apart. All soil sensors were purchased from METER Environment. Dielectric permittivity was measured at 5 and 50 cm using the 5TM water content and temperature sensor and at 100 cm using the TEROS 12 water content, temperature, and conductivity sensor. VWC was calculated from dielectric permittivity using the manufacturer’s equation, which follows Topp et al. (1980). Soil water potential was measured at 50 cm using the TEROS 21 water potential and temperature sensor. A small soil pit was dug to expose an undisturbed soil profile and sensors installed horizontally at 5 and 50 cm. To install the VWC sensor at 100 cm, a hole was augured and the TEROS borehole installation tool (METER Environment) used to insert the sensor probes horizontally into undisturbed soil at 100 cm. Our study was located in Watershed 1, a 96-ha catchment at the H. J. Andrews Experimental Forest on the west slope of the central Cascade Mountains of Oregon, USA (44°12’18.8” N, 122°15’16.2” W). The average elevation of the study area is 576 m and the average slope is 37 degrees. The study catchment was 100 % clearcut from 1962–1966 and logging residues were burned in 1966 to expose a mineral soil seedbed. There were several efforts to re-establish vegetation in the watershed. The watershed was aerially seeded with Douglas-fir (Pseudotsuga menziesii) in 1967 and 10 ha were re-seeded in 1968. In 1969, 2-yr-old Douglas-fir trees were planted across the entire watershed, and in 1971, 40 ha were re-planted with 2- and 3-yr-old trees (Halpern, 1988). Forty to fifty-year-old Douglas-fir trees dominate the overstory. While much less common, both bigleaf maple (Acer macrophyllum) and western hemlock (Tsuga heterophylla) are also present. The understory includes vine maple (Acer circinatum), Oregon grape (Mahonia aquifolium), and sword fern (Polystichum munitum). The average depth of the forest floor and organic horizon was 5 cm at our soil measurement points. Mineral soil in the top 100 cm was generally gravelly, silty clay loam with developed A and B horizons, which had gradual and poorly defined boundaries. Soils were underlain by unconsolidated, highly weathered saprolite and fractured bedrock (Gabrielli et al. 2012). Soil thickness ranged from 20 cm to more than 5 m. Parent materials primarily include tuffs and breccias, but basalts and andesites are also present (Halpern, 1988). The regional climate is characterized by cool, wet winters and warm, dry summers. During the period of study, from August 2016 to October 2017, the site received 2,833 mm of rainfall, which was slightly more than the long-term average. The average rainfall total during the 15-month period from August to October during 1979–2015 was 2,450 mm, the maximum total rainfall was 3,512 mm and minimum was 1,607 mm (Daly et al., 2019). The spatial variability of rainfall interception can create differences in VWC if measured under the canopy or under gaps in the canopy (Gray et al., 2002). Thus, we avoided locations under large canopy gaps when establishing soil moisture monitoring sites to minimize differences in VWC associated with interception. Fifty-four permanent monitoring sites were established in July 2016 along alternating convergent and divergent hillslopes within a 10-ha north-facing forested slope of Watershed 1 of the HJ Andrews Experimental Forest. A map of classified Topographic Position Index (TPI) was used to guide the placement of soil monitoring sites. TPI was estimated from a 1x1 m digital elevation model by subtracting the elevation of a grid cell from the mean elevation of all cells within a 30 m radius (Jenness, 2006). Positive TPI values represented divergent slope positions where the elevation of a pixel was high relative to the average surrounding locations. Conversely, negative TPI values represented convergent slope positions where the elevation of a pixel was low relative to surroundings. Locations where TPI was close to zero were relatively planar. Individual hillslopes were distinguished by a switch between negative and positive TPI along the same elevation contour. Fourteen surveys were conducted to investigate the effect of topography on soil water content using time domain reflectometry at 0–30 cm and 0–60 cm depth. Soil moisture surveys were preformed from August–October 2016 and April–October 2017. These data include volumetric water content and date. Soil properties (bulk density, percent sand, percent clay, percent silt, gravimetric rock content, water retention, and saturated hydraulic conductivity) were measured at 15 and 45 cm depth at 13 sites during the summer of 2017. Total soil depth and resistance to penetration were measured at 38 sites using a dynamic cone penetrometer. Citation: Jenness, J. (2006). Topographic Position Index (tpi_jen.avx) Extension for ArcView. Jenness Enterprises. Andrews Experimental Forest (HJA) -122.26172200 -122.10084700 44.28196400 44.19770400 1631 1631 meter Andrews Watershed 1 -122.25683100 -122.23581300 44.20851700 44.19901700 1027 1027 meter Watershed 1 soil moisture network sites -122.25563380 -122.25089480 44.20546220 44.20357538 668 668 meter Watershed 1 soil moisture network transect A, ridge, plot 2 -122.25543770 -122.25543770 44.20531840 44.20531840 533 533 meter Watershed 1 soil moisture network transect A, ridge, plot 3 -122.25563380 -122.25563380 44.20511051 44.20511051 552 552 meter Watershed 1 soil moisture network transect C, ridge, plot 1 -122.25496520 -122.25496520 44.20509200 44.20509200 543 543 meter Watershed 1 soil moisture network transect C, ridge, plot 2 -122.25497240 -122.25497240 44.20489314 44.20489314 560 560 meter Watershed 1 soil moisture network transect C, ridge, plot 3 -122.25486210 -122.25486210 44.20469173 44.20469173 578 578 meter Watershed 1 soil moisture network transect D, hollow, plot 0 -122.25472450 -122.25472450 44.20513408 44.20513408 539 539 meter Watershed 1 soil moisture network transect D, hollow, plot 1 -122.25466040 -122.25466040 44.20497332 44.20497332 551 551 meter Watershed 1 soil moisture network transect D, hollow, plot 2 -122.25460350 -122.25460350 44.20465565 44.20465565 574 574 meter Watershed 1 soil moisture network transect E, ridge, plot 1 -122.25452300 -122.25452300 44.20508635 44.20508635 547 547 meter Watershed 1 soil moisture network transect E, ridge, plot 2 -122.25439560 -122.25439560 44.20488424 44.20488424 563 563 meter Watershed 1 soil moisture network transect E, ridge, plot 3 -122.25428180 -122.25428180 44.20461458 44.20461458 584 584 meter Watershed 1 soil moisture network transect F, hollow, plot 0 -122.25394990 -122.25394990 44.20504015 44.20504015 550 550 meter Watershed 1 soil moisture network transect F, hollow, plot 1 -122.25381940 -122.25381940 44.20487475 44.20487475 565 565 meter Watershed 1 soil moisture network transect F, hollow, plot Z1 -122.25400860 -122.25400860 44.20542317 44.20542317 518 518 meter Watershed 1 soil moisture network transect F, hollow, tree plot Z1 -122.25399570 -122.25399570 44.20544816 44.20544816 515 515 meter Watershed 1 soil moisture network transect F, hollow, plot Z2 -122.25400540 -122.25400540 44.20514136 44.20514136 542 542 meter Watershed 1 soil moisture network transect F, hollow, tree plot Z2 -122.25405930 -122.25405930 44.20505612 44.20505612 548 548 meter Watershed 1 soil moisture network transect F, hollow, plot Z3 -122.25393670 -122.25393670 44.20494363 44.20494363 557 557 meter Watershed 1 soil moisture network transect F, hollow, tree plot Z3 -122.25394640 -122.25394640 44.20488890 44.20488890 561 561 meter Watershed 1 soil moisture network transect F, hollow, plot Z4 -122.25387940 -122.25387940 44.20544566 44.20544566 518 518 meter Watershed 1 soil moisture network transect F, hollow, plot Z5 -122.25392920 -122.25392920 44.20506780 44.20506780 549 549 meter Watershed 1 soil moisture network transect F, hollow, plot Z6 -122.25380070 -122.25380070 44.20485586 44.20485586 566 566 meter Watershed 1 soil moisture network transect G, ridge, plot 2 -122.25366150 -122.25366150 44.20485699 44.20485699 570 570 meter Watershed 1 soil moisture network transect G, ridge, plot 3 -122.25352340 -122.25352340 44.20453186 44.20453186 591 591 meter Watershed 1 soil moisture network transect G, hollow, plot Z1 -122.25380550 -122.25380550 44.20546225 44.20546225 520 520 meter Watershed 1 soil moisture network transect G, hollow, plot Z2 -122.25382000 -122.25382000 44.20508997 44.20508997 549 549 meter Watershed 1 soil moisture network transect G, hollow, plot Z3 -122.25367790 -122.25367790 44.20472974 44.20472974 578 578 meter Watershed 1 soil moisture network transect H, hollow, plot 1 -122.25316930 -122.25316930 44.20473914 44.20473914 568 568 meter Watershed 1 soil moisture network transect H, hollow, plot 2 -122.25320600 -122.25320600 44.20455258 44.20455258 581 581 meter Watershed 1 soil moisture network transect H, hollow, plot 3 -122.25322320 -122.25322320 44.20421521 44.20421521 605 605 meter Watershed 1 soil moisture network transect H, hollow, plot 4 -122.25289910 -122.25289910 44.20392892 44.20392892 629 629 meter Watershed 1 soil moisture network transect H, hollow, plot 5 -122.25296170 -122.25296170 44.20357538 44.20357538 653 653 meter Watershed 1 soil moisture network transect I, ridge, plot 1 -122.25289520 -122.25289520 44.20495823 44.20495823 556 556 meter Watershed 1 soil moisture network transect I, ridge, plot 2 -122.25279540 -122.25279540 44.20483171 44.20483171 567 567 meter Watershed 1 soil moisture network transect I, ridge, plot 3 -122.25285280 -122.25285280 44.20428202 44.20428202 611 611 meter Watershed 1 soil moisture network transect I, ridge, plot 4 -122.25242370 -122.25242370 44.20375735 44.20375735 657 657 meter Watershed 1 soil moisture network transect J, hollow, plot 0 -122.25236520 -122.25236520 44.20477472 44.20477472 570 570 meter Watershed 1 soil moisture network transect J, hollow, plot 1 -122.25231750 -122.25231750 44.20394273 44.20394273 642 642 meter Watershed 1 soil moisture network transect J, hollow, plot 2 -122.25189940 -122.25189940 44.20365471 44.20365471 668 668 meter Watershed 1 soil moisture network transect L, hollow, plot 1 -122.25173050 -122.25173050 44.20483075 44.20483075 569 569 meter Watershed 1 soil moisture network transect L, hollow, plot 2 -122.25169840 -122.25169840 44.20470937 44.20470937 578 578 meter Watershed 1 soil moisture network transect L, hollow, plot 3 -122.25165580 -122.25165580 44.20461056 44.20461056 586 586 meter Watershed 1 soil moisture network transect L, hollow, plot 4 -122.25157530 -122.25157530 44.20434847 44.20434847 610 610 meter Watershed 1 soil moisture network transect L, hollow, plot 5 -122.25145130 -122.25145130 44.20403766 44.20403766 640 640 meter Watershed 1 soil moisture network transect L, hollow, plot Z1 -122.25179390 -122.25179390 44.20521483 44.20521483 538 538 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z1 -122.25179980 -122.25179980 44.20521725 44.20521725 538 538 meter Watershed 1 soil moisture network transect L, hollow, plot Z2 -122.25176870 -122.25176870 44.20499699 44.20499699 556 556 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z2 -122.25170430 -122.25170430 44.20495763 44.20495763 559 559 meter Watershed 1 soil moisture network transect L, hollow, plot Z3 -122.25162530 -122.25162530 44.20473925 44.20473925 576 576 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z3 -122.25159230 -122.25159230 44.20472466 44.20472466 578 578 meter Watershed 1 soil moisture network transect L, hollow, plot Z4 -122.25157580 -122.25157580 44.20457119 44.20457119 591 591 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z4 -122.25157260 -122.25157260 44.20436711 44.20436711 609 609 meter Watershed 1 soil moisture network transect L, hollow, plot Z5 -122.25159660 -122.25159660 44.20505721 44.20505721 556 556 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z5 -122.25151810 -122.25151810 44.20505955 44.20505955 559 559 meter Watershed 1 soil moisture network transect L, hollow, plot Z6 -122.25143770 -122.25143770 44.20479659 44.20479659 579 579 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z6 -122.25143590 -122.25143590 44.20479940 44.20479940 579 579 meter Watershed 1 soil moisture network transect L, hollow, plot Z7 -122.25143400 -122.25143400 44.20456879 44.20456879 596 596 meter Watershed 1 soil moisture network transect L, hollow, tree plot Z7 -122.25142230 -122.25142230 44.20456402 44.20456402 596 596 meter Watershed 1 soil moisture network transect M, ridge, plot 1 -122.25109770 -122.25109770 44.20483707 44.20483707 580 580 meter Watershed 1 soil moisture network transect M, ridge, plot 2 -122.25089480 -122.25089480 44.20437010 44.20437010 617 617 meter Watershed 1 soil moisture network transect M, ridge, plot 3 -122.25106100 -122.25106100 44.20398694 44.20398694 649 649 meter Watershed 1 soil moisture network transect M, hollow, plot Z1 -122.25119360 -122.25119360 44.20498482 44.20498482 568 568 meter Watershed 1 soil moisture network transect M, hollow, plot Z2 -122.25123570 -122.25123570 44.20469670 44.20469670 589 589 meter Watershed 1 soil moisture network transect M, hollow, plot Z3 -122.25108440 -122.25108440 44.20452152 44.20452152 605 605 meter Sherri L. Johnson

US Forest Service ;Pacific NW Research Station ;3200 SW Jefferson Way Corvallis OR 97331 USA

541-758-7771 sherri.johnson2@usda.gov sherri.johnson@oregonstate.edu https://www.fs.fed.us/research/people/profile.php?alias=sherrijohnson Principal Investigator Julia A. Jones

Oregon State University;Department of Geosciences; Wilkinson Hall 104 Corvallis OR 97331-5506 USA

(541) 737-1224 Julia.Jones@oregonstate.edu geojulia@comcast.net http://ceoas.oregonstate.edu/profile/jones/ http://orcid.org/0000-0001-9429-8925 Principal Investigator Matthew G Betts

Department of Forest Ecosystems and Society; 201E Richardson Hall; College of Forestry; Oregon State University Corvallis OR 97331

(541) 737-3841 matt.betts@oregonstate.edu http://www.fsl.orst.edu/flel/index.htm Principal Investigator Michael P. Nelson

Department of Forest Ecosystems and Society; 201K Richarson Hall; College of Forestry; Oregon State University Corvallis OR 97331

541-737-9221 mpnelson@oregonstate.edu http://www.michaelpnelson.com http://orcid.org/0000-0001-6917-4752 Principal Investigator David Bell david.bell@usda.gov david.bell@oregonstate.edu https://lemma.forestry.oregonstate.edu/about/david-bell Principal Investigator The H.J. Andrews Experimental Forest is a living laboratory that provides unparalleled opportunities for the study of forest and stream ecosystems in the central Cascade Range of Oregon. Since 1980, as a part of the National Science Foundation Long Term Ecological Research (NSF-LTER) program, the Andrews Experimental Forest has become a leader in the analysis of forest and stream ecosystem dynamics. Long-term field experiments and measurement programs have focused on climate dynamics, streamflow, water quality, and vegetation succession. Currently researchers are working to develop concepts and tools needed to predict effects of natural disturbance, land use, and climate change on ecosystem structure, function, and species composition. The Andrews Experimental Forest is administered cooperatively by the USDA Forest Service Pacific Northwest Research Station, Oregon State University and the Willamette National Forest. Funding for the research program comes from the National Science Foundation (NSF), US Forest Service Pacific Northwest Research Station, Oregon State University, and other sources. Data were provided by the HJ Andrews Experimental Forest research program, funded by the National Science Foundation's Long-Term Ecological Research Program (DEB 2025755), US Forest Service Pacific Northwest Research Station, and Oregon State University. National Science Foundation: DEB1440409 The Andrews Forest is situated in the western Cascade Range of Oregon, and covers the entire 15,800-acre (6400-ha) drainage basin of Lookout Creek. Elevation ranges from 1350 to 5340 feet (410 to 1630 m). Broadly representative of the rugged mountainous landscape of the Pacific Northwest, the Andrews Forest contains excellent examples of the region's conifer forests and associated wildlife and stream ecosystems. These forests are among the tallest and most productive in the world, with tree heights of often greater than 250 ft (75 m). Streams are steep, cold and clean, providing habitat for numerous aquatic organisms. 1 sp03601 Soil moisture (coarse temporal resolution): sp03601.csv 115067 bc5550d8d9ea7f5b1599edc677a7a622 1 \r\n column , " http://andlter.forestry.oregonstate.edu/data/register/dataaccess.aspx?docid=sp03601_v1.csv 2016-08-16 2017-10-15 DBCODE FSDB Database Code char(5) SP036 FSDB Database Study Code ENTITY Entity number numeric(2,0) number 1 natural 1.0000 1.0000 SITE site name char(4) AR2 Watershed 1 soil moisture network transect A, ridge, plot 2 AR3 Watershed 1 soil moisture network transect A, ridge, plot 3 CR1 Watershed 1 soil moisture network transect C, ridge, plot 1 CR2 Watershed 1 soil moisture network transect C, ridge, plot 2 CR3 Watershed 1 soil moisture network transect C, ridge, plot 3 DH0 Watershed 1 soil moisture network transect D, hollow, plot 0 DH1 Watershed 1 soil moisture network transect D, hollow, plot 1 DH2 Watershed 1 soil moisture network transect D, hollow, plot 2 ER1 Watershed 1 soil moisture network transect E, ridge, plot 1 ER2 Watershed 1 soil moisture network transect E, ridge, plot 2 ER3 Watershed 1 soil moisture network transect E, ridge, plot 3 FH0 Watershed 1 soil moisture network transect F, hollow, plot 0 FH1 Watershed 1 soil moisture network transect F, hollow, plot 1 FZ1 Watershed 1 soil moisture network transect F, hollow, plot Z1 FZ1T Watershed 1 soil moisture network transect F, hollow, tree plot Z1 FZ2 Watershed 1 soil moisture network transect F, hollow, plot Z2 FZ2T Watershed 1 soil moisture network transect F, hollow, tree plot Z2 FZ3 Watershed 1 soil moisture network transect F, hollow, plot Z3 FZ3T Watershed 1 soil moisture network transect F, hollow, tree plot Z3 FZ4 Watershed 1 soil moisture network transect F, hollow, plot Z4 FZ5 Watershed 1 soil moisture network transect F, hollow, plot Z5 FZ6 Watershed 1 soil moisture network transect F, hollow, plot Z6 GR2 Watershed 1 soil moisture network transect G, ridge, plot 2 GR3 Watershed 1 soil moisture network transect G, ridge, plot 3 GZ1 Watershed 1 soil moisture network transect G, hollow, plot Z1 GZ2 Watershed 1 soil moisture network transect G, hollow, plot Z2 GZ3 Watershed 1 soil moisture network transect G, hollow, plot Z3 HH1 Watershed 1 soil moisture network transect H, hollow, plot 1 HH2 Watershed 1 soil moisture network transect H, hollow, plot 2 HH3 Watershed 1 soil moisture network transect H, hollow, plot 3 HH4 Watershed 1 soil moisture network transect H, hollow, plot 4 HH5 Watershed 1 soil moisture network transect H, hollow, plot 5 IR1 Watershed 1 soil moisture network transect I, ridge, plot 1 IR2 Watershed 1 soil moisture network transect I, ridge, plot 2 IR3 Watershed 1 soil moisture network transect I, ridge, plot 3 IR4 Watershed 1 soil moisture network transect I, ridge, plot 4 JH0 Watershed 1 soil moisture network transect J, hollow, plot 0 JH1 Watershed 1 soil moisture network transect J, hollow, plot 1 JH2 Watershed 1 soil moisture network transect J, hollow, plot 2 LH1 Watershed 1 soil moisture network transect L, hollow, plot 1 LH2 Watershed 1 soil moisture network transect L, hollow, plot 2 LH3 Watershed 1 soil moisture network transect L, hollow, plot 3 LH4 Watershed 1 soil moisture network transect L, hollow, plot 4 LH5 Watershed 1 soil moisture network transect L, hollow, plot 5 LZ1 Watershed 1 soil moisture network transect L, hollow, plot Z1 LZ1T Watershed 1 soil moisture network transect L, hollow, tree plot Z1 LZ2 Watershed 1 soil moisture network transect L, hollow, plot Z2 LZ2T Watershed 1 soil moisture network transect L, hollow, tree plot Z2 LZ3 Watershed 1 soil moisture network transect L, hollow, plot Z3 LZ3T Watershed 1 soil moisture network transect L, hollow, tree plot Z3 LZ4 Watershed 1 soil moisture network transect L, hollow, plot Z4 LZ4T Watershed 1 soil moisture network transect L, hollow, tree plot Z4 LZ5 Watershed 1 soil moisture network transect L, hollow, plot Z5 LZ5T Watershed 1 soil moisture network transect L, hollow, tree plot Z5 LZ6 Watershed 1 soil moisture network transect L, hollow, plot Z6 LZ6T Watershed 1 soil moisture network transect L, hollow, tree plot Z6 LZ7 Watershed 1 soil moisture network transect L, hollow, plot Z7 LZ7T Watershed 1 soil moisture network transect L, hollow, tree plot Z7 MR1 Watershed 1 soil moisture network transect M, ridge, plot 1 MR2 Watershed 1 soil moisture network transect M, ridge, plot 2 MR3 Watershed 1 soil moisture network transect M, ridge, plot 3 MZ1 Watershed 1 soil moisture network transect M, hollow, plot Z1 MZ2 Watershed 1 soil moisture network transect M, hollow, plot Z2 MZ3 Watershed 1 soil moisture network transect M, hollow, plot Z3 REP replicate char(2) 1 first replicate 2 second replicate 3 third replicate 4 fourth replicate LAYER mineral soil layer char(10) 0-30 cm mineral soil layer 0 to 30 cm depth 30-60 cm mineral soil layer 30 to 60 cm depth DATE measurement date datetime YYYY-MM-DD 8/16/2016 12:00:00 AM 10/15/2017 12:00:00 AM VWC volumetric water content numeric(5,3) cubic centimeters per cubic centimeter 1 real 0.0950 0.6120 PRIMARY sp03601.DATE sp03601.LAYER sp03601.REP sp03601.SITE NOTNULL sp03601.DATE sp03601.DBCODE sp03601.ENTITY sp03601.LAYER sp03601.REP sp03601.SITE sp03601.VWC 2710 2 sp03602 Soil physical properties: sp03602.csv 1712 52382af14ba6c5a71f758f87e304278c 1 \r\n column , " http://andlter.forestry.oregonstate.edu/data/register/dataaccess.aspx?docid=sp03602_v1.csv 2017-07-18 2017-09-13 DBCODE FSDB Database Code char(5) SP036 FSDB Database Study Code ENTITY Entity number numeric(2,0) number 1 natural 2.0000 2.0000 SITE site name char(4) AR2 Watershed 1 soil moisture network transect A, ridge, plot 2 AR3 Watershed 1 soil moisture network transect A, ridge, plot 3 CR1 Watershed 1 soil moisture network transect C, ridge, plot 1 CR2 Watershed 1 soil moisture network transect C, ridge, plot 2 CR3 Watershed 1 soil moisture network transect C, ridge, plot 3 DH0 Watershed 1 soil moisture network transect D, hollow, plot 0 DH1 Watershed 1 soil moisture network transect D, hollow, plot 1 DH2 Watershed 1 soil moisture network transect D, hollow, plot 2 ER1 Watershed 1 soil moisture network transect E, ridge, plot 1 ER2 Watershed 1 soil moisture network transect E, ridge, plot 2 ER3 Watershed 1 soil moisture network transect E, ridge, plot 3 FH0 Watershed 1 soil moisture network transect F, hollow, plot 0 FH1 Watershed 1 soil moisture network transect F, hollow, plot 1 FZ1 Watershed 1 soil moisture network transect F, hollow, plot Z1 FZ1T Watershed 1 soil moisture network transect F, hollow, tree plot Z1 FZ2 Watershed 1 soil moisture network transect F, hollow, plot Z2 FZ2T Watershed 1 soil moisture network transect F, hollow, tree plot Z2 FZ3 Watershed 1 soil moisture network transect F, hollow, plot Z3 FZ3T Watershed 1 soil moisture network transect F, hollow, tree plot Z3 FZ4 Watershed 1 soil moisture network transect F, hollow, plot Z4 FZ5 Watershed 1 soil moisture network transect F, hollow, plot Z5 FZ6 Watershed 1 soil moisture network transect F, hollow, plot Z6 GR2 Watershed 1 soil moisture network transect G, ridge, plot 2 GR3 Watershed 1 soil moisture network transect G, ridge, plot 3 GZ1 Watershed 1 soil moisture network transect G, hollow, plot Z1 GZ2 Watershed 1 soil moisture network transect G, hollow, plot Z2 GZ3 Watershed 1 soil moisture network transect G, hollow, plot Z3 HH1 Watershed 1 soil moisture network transect H, hollow, plot 1 HH2 Watershed 1 soil moisture network transect H, hollow, plot 2 HH3 Watershed 1 soil moisture network transect H, hollow, plot 3 HH4 Watershed 1 soil moisture network transect H, hollow, plot 4 HH5 Watershed 1 soil moisture network transect H, hollow, plot 5 IR1 Watershed 1 soil moisture network transect I, ridge, plot 1 IR2 Watershed 1 soil moisture network transect I, ridge, plot 2 IR3 Watershed 1 soil moisture network transect I, ridge, plot 3 IR4 Watershed 1 soil moisture network transect I, ridge, plot 4 JH0 Watershed 1 soil moisture network transect J, hollow, plot 0 JH1 Watershed 1 soil moisture network transect J, hollow, plot 1 JH2 Watershed 1 soil moisture network transect J, hollow, plot 2 LH1 Watershed 1 soil moisture network transect L, hollow, plot 1 LH2 Watershed 1 soil moisture network transect L, hollow, plot 2 LH3 Watershed 1 soil moisture network transect L, hollow, plot 3 LH4 Watershed 1 soil moisture network transect L, hollow, plot 4 LH5 Watershed 1 soil moisture network transect L, hollow, plot 5 LZ1 Watershed 1 soil moisture network transect L, hollow, plot Z1 LZ1T Watershed 1 soil moisture network transect L, hollow, tree plot Z1 LZ2 Watershed 1 soil moisture network transect L, hollow, plot Z2 LZ2T Watershed 1 soil moisture network transect L, hollow, tree plot Z2 LZ3 Watershed 1 soil moisture network transect L, hollow, plot Z3 LZ3T Watershed 1 soil moisture network transect L, hollow, tree plot Z3 LZ4 Watershed 1 soil moisture network transect L, hollow, plot Z4 LZ4T Watershed 1 soil moisture network transect L, hollow, tree plot Z4 LZ5 Watershed 1 soil moisture network transect L, hollow, plot Z5 LZ5T Watershed 1 soil moisture network transect L, hollow, tree plot Z5 LZ6 Watershed 1 soil moisture network transect L, hollow, plot Z6 LZ6T Watershed 1 soil moisture network transect L, hollow, tree plot Z6 LZ7 Watershed 1 soil moisture network transect L, hollow, plot Z7 LZ7T Watershed 1 soil moisture network transect L, hollow, tree plot Z7 MR1 Watershed 1 soil moisture network transect M, ridge, plot 1 MR2 Watershed 1 soil moisture network transect M, ridge, plot 2 MR3 Watershed 1 soil moisture network transect M, ridge, plot 3 MZ1 Watershed 1 soil moisture network transect M, hollow, plot Z1 MZ2 Watershed 1 soil moisture network transect M, hollow, plot Z2 MZ3 Watershed 1 soil moisture network transect M, hollow, plot Z3 DEPTH mineral soil depth char(4) 15cm soil core taken at 15 to 20 cm depth 45cm soil core taken at 45 to 50 cm depth BULK_DENSITY bulk density numeric(4,2) cubic centimeters per cubic centimeter 1 real 0.8800 1.2900 COARSE gravimetric coarse content numeric(5,2) percent 1 real 35.6700 80.3300 SAND sand content numeric(5,2) percent 1 real 1.9600 26.2000 SILT silt content numeric(5,2) percent 1 real 43.5400 56.9700 CLAY clay content numeric(5,2) percent 1 real 29.3400 45.0900 VWC_FC volumetric water content at -33 kPa numeric(4,2) cubic centimeters per cubic centimeter 1 real 0.1600 0.3000 VWC_TURGORLOSS volumetric water content at -2500 kPa numeric(4,2) cubic centimeters per cubic centimeter 1 real 0.1000 0.2100 KSAT saturated hydraulic conductivity numeric(5,1) centimeters per hour 1 real 46.6000 509.0000 PRIMARY sp03602.DEPTH sp03602.SITE NOTNULL sp03602.BULK_DENSITY sp03602.CLAY sp03602.COARSE sp03602.DBCODE sp03602.DEPTH sp03602.ENTITY sp03602.KSAT sp03602.SAND sp03602.SILT sp03602.SITE sp03602.VWC_FC sp03602.VWC_TURGORLOSS 26 3 sp03603 Total soil depth to bedrock: sp03603.csv 2488 75aae0912f4a52f19a48a21763135850 1 \r\n column , " http://andlter.forestry.oregonstate.edu/data/register/dataaccess.aspx?docid=sp03603_v1.csv 2017-07-18 2017-09-13 DBCODE FSDB Database Code char(5) SP036 FSDB Database Study Code ENTITY Entity number numeric(2,0) number 1 natural 3.0000 3.0000 SITE site name char(4) AR2 Watershed 1 soil moisture network transect A, ridge, plot 2 AR3 Watershed 1 soil moisture network transect A, ridge, plot 3 CR1 Watershed 1 soil moisture network transect C, ridge, plot 1 CR2 Watershed 1 soil moisture network transect C, ridge, plot 2 CR3 Watershed 1 soil moisture network transect C, ridge, plot 3 DH0 Watershed 1 soil moisture network transect D, hollow, plot 0 DH1 Watershed 1 soil moisture network transect D, hollow, plot 1 DH2 Watershed 1 soil moisture network transect D, hollow, plot 2 ER1 Watershed 1 soil moisture network transect E, ridge, plot 1 ER2 Watershed 1 soil moisture network transect E, ridge, plot 2 ER3 Watershed 1 soil moisture network transect E, ridge, plot 3 FH0 Watershed 1 soil moisture network transect F, hollow, plot 0 FH1 Watershed 1 soil moisture network transect F, hollow, plot 1 FZ1 Watershed 1 soil moisture network transect F, hollow, plot Z1 FZ1T Watershed 1 soil moisture network transect F, hollow, tree plot Z1 FZ2 Watershed 1 soil moisture network transect F, hollow, plot Z2 FZ2T Watershed 1 soil moisture network transect F, hollow, tree plot Z2 FZ3 Watershed 1 soil moisture network transect F, hollow, plot Z3 FZ3T Watershed 1 soil moisture network transect F, hollow, tree plot Z3 FZ4 Watershed 1 soil moisture network transect F, hollow, plot Z4 FZ5 Watershed 1 soil moisture network transect F, hollow, plot Z5 FZ6 Watershed 1 soil moisture network transect F, hollow, plot Z6 GR2 Watershed 1 soil moisture network transect G, ridge, plot 2 GR3 Watershed 1 soil moisture network transect G, ridge, plot 3 GZ1 Watershed 1 soil moisture network transect G, hollow, plot Z1 GZ2 Watershed 1 soil moisture network transect G, hollow, plot Z2 GZ3 Watershed 1 soil moisture network transect G, hollow, plot Z3 HH1 Watershed 1 soil moisture network transect H, hollow, plot 1 HH2 Watershed 1 soil moisture network transect H, hollow, plot 2 HH3 Watershed 1 soil moisture network transect H, hollow, plot 3 HH4 Watershed 1 soil moisture network transect H, hollow, plot 4 HH5 Watershed 1 soil moisture network transect H, hollow, plot 5 IR1 Watershed 1 soil moisture network transect I, ridge, plot 1 IR2 Watershed 1 soil moisture network transect I, ridge, plot 2 IR3 Watershed 1 soil moisture network transect I, ridge, plot 3 IR4 Watershed 1 soil moisture network transect I, ridge, plot 4 JH0 Watershed 1 soil moisture network transect J, hollow, plot 0 JH1 Watershed 1 soil moisture network transect J, hollow, plot 1 JH2 Watershed 1 soil moisture network transect J, hollow, plot 2 LH1 Watershed 1 soil moisture network transect L, hollow, plot 1 LH2 Watershed 1 soil moisture network transect L, hollow, plot 2 LH3 Watershed 1 soil moisture network transect L, hollow, plot 3 LH4 Watershed 1 soil moisture network transect L, hollow, plot 4 LH5 Watershed 1 soil moisture network transect L, hollow, plot 5 LZ1 Watershed 1 soil moisture network transect L, hollow, plot Z1 LZ1T Watershed 1 soil moisture network transect L, hollow, tree plot Z1 LZ2 Watershed 1 soil moisture network transect L, hollow, plot Z2 LZ2T Watershed 1 soil moisture network transect L, hollow, tree plot Z2 LZ3 Watershed 1 soil moisture network transect L, hollow, plot Z3 LZ3T Watershed 1 soil moisture network transect L, hollow, tree plot Z3 LZ4 Watershed 1 soil moisture network transect L, hollow, plot Z4 LZ4T Watershed 1 soil moisture network transect L, hollow, tree plot Z4 LZ5 Watershed 1 soil moisture network transect L, hollow, plot Z5 LZ5T Watershed 1 soil moisture network transect L, hollow, tree plot Z5 LZ6 Watershed 1 soil moisture network transect L, hollow, plot Z6 LZ6T Watershed 1 soil moisture network transect L, hollow, tree plot Z6 LZ7 Watershed 1 soil moisture network transect L, hollow, plot Z7 LZ7T Watershed 1 soil moisture network transect L, hollow, tree plot Z7 MR1 Watershed 1 soil moisture network transect M, ridge, plot 1 MR2 Watershed 1 soil moisture network transect M, ridge, plot 2 MR3 Watershed 1 soil moisture network transect M, ridge, plot 3 MZ1 Watershed 1 soil moisture network transect M, hollow, plot Z1 MZ2 Watershed 1 soil moisture network transect M, hollow, plot Z2 MZ3 Watershed 1 soil moisture network transect M, hollow, plot Z3 REP replicate char(2) 1 first replicate 2 second replicate 3 third replicate 4 fourth replicate DATE measurement date datetime YYYY-MM-DD 7/18/2017 12:00:00 AM 9/13/2017 12:00:00 AM MAX_DEPTH total depth to bedrock if less than 5.15 m numeric(4,2) meters 1 real 0.1000 5.1500 PRIMARY sp03603.DATE sp03603.REP sp03603.SITE NOTNULL sp03603.DATE sp03603.DBCODE sp03603.ENTITY sp03603.MAX_DEPTH sp03603.REP sp03603.SITE 79 centimeters per hour percent; a number cubic centimeters per cubic centimeter meter; SI unit of length dimensionless number, i.e., ratio, count