Small mammals in young forests: implications for management for sustainability

By A. B. Carey, C. Harrington. 2001

177 citations recorded by the source corpus.

Subfields: Global and Planetary Change, Insect Science, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/d564709013136b4b36e080ec931b44a9271dea0a

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Global and Planetary Change

1. J. Hagar
2. R. Zwolak
3. A. B. Carey
4. S. Wilson
5. J. Pearce
6. James A. Wilson
7. D. Kelt
8. D. R. Thysell

In Insect Science

1. J. Hagar
2. A. B. Carey
3. S. Wilson
4. R. Zwolak
5. MJ. Mazurek
6. W. Zielinski

In Nature and Landscape Conservation

1. J. Hagar
2. A. B. Carey
3. L. Venier
4. S. Wilson
5. R. Zwolak
6. MJ. Mazurek
7. W. Zielinski
8. J. Pearce

Citations in the corpus

• A meta-analysis of the effects of wildfire, clearcutting, and partial harvest on the abundance of North American small mammals (2009, background): “, 2003), and are considered indicators of forest-floor function (Carey and Harrington, 2001).”
• HABITAT ASSOCIATIONS OF SMALL MAMMALS AT TWO SPATIAL SCALES IN THE NORTHERN SIERRA NEVADA (2006, background): “…in sympatric small mammals (Price and Kramer 1984), and responses to microhabitat variability have been confirmed in numerous studies (Bellows et al. 2001; Bowman et al. 2001; Butts and McComb 2000; Carey and Harrington 2001; Castleberry et al. 2002; Jorgensen 2004; Martin and McComb 2002).”
• Induced spatial heterogeneity in forest canopies : Responses of small mammals (2001, background): “…indicates that the presence of several particular species of trees, especially western hemlock, vine maple (Acer circinatum), and bigleaf maple (A. macrophyllum), not only adds to biocomplexity but also is an important determinant of the abundance of Keen’s mouse (Carey and Harrington 2001).”
• Biocomplexity and restoration of biodiversity in temperate coniferous forest: inducing spatial heterogeneity with variable‐density thinning (2003, background): “…1999a, b), enabled invasion by exotic species (Hobbs and Humphries 1995; Halpern et al., 1999; Thysell and Carey 2001), imbalanced biotic communities (Aubry 2000; Carey, 2000b; Haveri and Carey, 2000 Wilson and Carey, 2000; Carey and Harrington 2001), reduced prey biomass for predator (Carey et”
• Individual legacy trees influence vertebrate wildlife diversity in commercial forests (2004, background): “Homogenous young stands lacking structural and compositional complexity reduce the habitat value for species associated with old-growth forests (McComb et al., 1993; Carey and Harrington, 2001 ).”
• Manipulation of density of Pseudotsuga menziesii canopies: preliminary effects on understory vegetation (2001, background): “…to increased community stability and resilience (Tilman 1999) and increased vegetation site type diversity that contributes to niche diversification and taxonomic diversity in birds and mammals ( Carey et al. 1999b, 1999c; Haveri and Carey 2000; Wilson and Carey 2000; Carey and Harrington 2001).”
• Small mammals as bioindicators of sustainable boreal forest management (2005, background): “They have an important functional role in forests, as they disseminate seeds, spores and propagules of vascular plants, bryophytes, fungi, and lichens, they mix the soil, decompose organic matter and litter, they regulate invertebrate populations and they provide prey for terrestrial and avian preda”
• Wildlife species associated with non-coniferous vegetation in Pacific Northwest conifer forests: A review (2007, background): “Positively associated with herbaceous cover and red alder Carey and Harrington (2001) and Martin and McComb (2002) TNC: S4 (OR), S5 (WA) Squirrel, Douglas’ Tamiasciurus douglasii X Seeds of woody plants and fungus important in diet; Cal.”