Young Stand Thinning & Diversity Study: Songbird Response Joan Hagar USGS – Forest & Rangeland Ecosystem Science Center.

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Presentation transcript:

Young Stand Thinning & Diversity Study: Songbird Response Joan Hagar USGS – Forest & Rangeland Ecosystem Science Center

Conifer Canopy Shrubs Forest Floor Deciduous Canopy

Structural Features of Songbird Habitat Conifer foliage Large trees Deciduous shrubs and trees Vertical diversity Snags

Expected Effects of Thinning Short term : Increase structural diversity Long term : –Accelerate development of late-seral habitat –Maintain structural diversity

Questions of Interest Short-term –What is the effect of thinning on songbird communities? –What is the effect of different patterns and intensities of thinning? Long-term –Will response direction change over time? – How soon will thinned stands support old-forest assemblage?

YSTDS: Replicated Study With Controls 4 replicates of each treatment Data collected before and after harvest Controls track baseline changes in bird density

Sampling Timeline for Songbirds Pre-trt: Thinning occurred: Post 1: (0 – 3 years post- treatment) Post 2: (2 – 6 years post) Post 3: (9 – 12 years post)

RESULTS

Positive Responses Rufous Hummingbird Hairy Woodpecker* Red-breasted Sapsucker* Hammonds Flycatcher Gray Jay Townsends Solitaire* American Robin MacGillivrays Warbler Western Tanager Dark-eyed Junco

Negative Responses Hermit Warbler Golden-crowned Kinglet Hermit Thrush Varied Thrush Winter Wren

Pre-thinning ( ) Post-Harvest (Phase I&II: , 2001; Phase III: ) All Stands (N*=32) Controls (all Phases) (N=24) Thinned Phase I & II (N=48) Thinned Phase III (N = 32) Common Nighthawk6% (3)4% (4)19% (17)9% (3) Western Wood- pewee3% (1)021% (17)6% (2) Olive-sided Flycatcher0010% (13)25% (10) Spotted Towhee0017% (26)19% (15) Frequency of Uncommon Species

Summary: 15 Years Post-Thin Species richness still greater in thinned than in unthinned stands Initial positive response persisted for many species

Summary: 15 Years Post-Thin (contd) Negative effects of thinning no longer indicated for 3 species Negative effects of thinning persisted for 3 species

Precautions Thinning adjacent to pasture land Landscape-level considerations : Cumulative negative effects Refugia for dense forest species

Conclusions Long-term studies needed to capture interactions of time and thinning Effects on forest structure were still evident at one decade after thinning Importance of directly measuring wildlife response to management

Wildlife Use of Created Snags in Young Conifer Stands Joan Hagar - USGS-FRESC Barry Schreiber – Fauna & Flora Cheryl Friesen and Penny Harris – USFS Willamette NF

Cavity-Nesting Birds Positive response to thinning Inconsistent with decreased snag density

Snags Rare in thinned stands Decrease in density- dependent mortality

Thinning in Young Stands Used for increasing structural diversity But may decrease snag density Create snags to make up for deficit?

Do snags created from trees in young stands (14 to 18 dbh) provide habitat for wildlife?

Goals and Objectives Compare occurrence of decay agents between 2 methods of snag creation Compare the proportion of trees used for foraging and nesting between 2 methods of snag creation Assess the interaction of thinning intensity and snag-creation method on use of snags by cavity-nesting species. Long-term: how long do snags remain useful? Assess usefulness to CNBs of snags created from trees in young stands

Snags in Young Stands: METHODS YSS: 4 thinning treatments: Light thin, Heavy thin, Light with Gaps, Control 2 mortality treatments: Saw-Top and Saw-Top + Inoculation Target density: 1 snag/acre Trees treated winter Surveyed for condition and wildlife use

Results Snag density increased approx. 50%

RESULTS: Average snag DBH increased by approx. 5 inches

% Created Snags with Decay Agents No thin effect Wood-boring beetles: 70% of trees; no treat. effects Infrequently detected fungi: Indian paint Red heart Red belt

Results: Foraging and Nesting Use 43% of created snags were used for foraging 11% of created snags had nest cavities

Percent of used snags by mortality treatment

Created snags with nest cavities by thinning treatment

CNB Nest Surveys 2007 & active nests found 2 RBSA in 20 dbh created snag 1 CBCH in 23 dbh created snag 1 RBNU in 23 dbh created snag 2 RBSA in natural snag and 1 in live tree 2 CBCH in remnant snag/stump

Conclusions Created snags were used for foraging and nesting More nest cavities in thinned stands Snags < 20 dbh: marginal nesting habitat?

1 o cavity excavators created more nest cavities than they used Cover for small mammals Winter roost habitat

Questions? Matt Lee