Gene flow in forest trees.

By J. Hamrick, J. Nason. 2000

86 citations recorded by the source corpus.

Subfields: Endocrinology, Genetics, Plant Science

View Paper: https://www.semanticscholar.org/paper/8392780e5e134356eb2f289e970e9988d76fe8d2

How researchers see this paper

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

In Endocrinology

1. W. Adams
2. D. Jacobs
3. J. Burczyk
4. S. DiFazio

In Genetics

1. W. Adams
2. Peter E. Smouse
3. N. Wheeler
4. David B. Neale
5. J. Bradley St. Clair
6. J. Burczyk
7. S. DiFazio
8. G. Howe

In Plant Science

1. W. Adams
2. N. Wheeler
3. D. Jacobs
4. David B. Neale
5. Murphy Westwood
6. J. Burczyk
7. T. Chen
8. S. DiFazio

Citations in the corpus

• From genotype to phenotype: unraveling the complexities of cold adaptation in forest trees (2003, background): “This may reflect heterogeneity of natural selection, both spatially and temporally, or high levels of gene flow (Campbell 1979; Hamrick et al. 1992; Hamrick and Nason 2000).”
• GENE FLOW IN FOREST TREES: HOW FAR DO GENES REALLY TRAVEL? 1 (2004, methodology): “The methods of SMITH and ADAMS (1983) and DEVLIN and ELLSTRAND (1990) are quite commonly used for the estimation of gene flow in forest trees, especially when coupled with isozymes as genetic markers (see references in Table 1, and also cited in ADAMS and BURCZYK 2000; HAMRICK and NASON 2000).”
• Genetic analysis of landscape connectivity in tree populations (2006, background): “First, many tropical canopy species have immigrant pollen dispersal distances from other areas greater than 100–200 m away (see papers cited in Hamrick and Nason 2000), and, in the case of species with specialized pollinators, such as tropical figs (Ficus spp.), the pollen immigration is over…”
• Banking on the future: progress, challenges and opportunities for the genetic conservation of forest trees (2017, background): “…gymnosperms should experience more gene flow than angiosperms because of their modes of pollination and seed dispersal, and trees with wind-dispersed pollen tend to have greater gene flow and less among-population differentiation than those with other breeding systems (Hamrick and Nason 2000).”
• Genetic maladaptation of coastal Douglas‐fir seedlings to future climates (2007, background): “In conifers such as Douglas-fir, most gene flow occurs via pollen, and substantial amounts of long-distance, pollen-mediated gene flow (e.g. 4500 m) are not uncommon (Hamrick & Nason, 2000).”