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Transcript
BIOL 30200 RESEARCH IN BIOLOGY
Leann Kanda
My work is in mammalian behavioral ecology and population dynamics. My main fieldwork is on spatial ecology, that
is, how and why animals use their space and move from one space to another. While my experience is in mammals, I
am also interested in movement ecology of other organisms, particularly dispersal at the edge of species’ ranges and
migratory movements, and how these movements influence the population dynamics and distributions of the species.
Student interests will help drive what research facets I emphasize. Please note that in many cases, fieldwork on
mammals in Ithaca cannot begin each year until late spring (April or May), so it may not be appropriate for spring-term
302 research.
Personality in dwarf hamsters
As a complement to examining space use in wild animals, I keep a captive group of dwarf hamsters for
behavioral tests in the laboratory. One theory linking social and movement behaviors is referred to as the “proactive” or
“boldness” syndrome. It suggests that individuals who tend to be socially dominant are also more “bold” in the face of
predation risk and more willing to explore novel areas. We will be testing to see if these three behaviors do correlate
across individuals. We will test individuals at different times in their lives to see if they are consistent (is a bold animal
at weaning still bold when it is an adult?). By breeding individuals based upon their exploratory behavior, we will be
looking for heritability in the behaviors. Opportunities on this project will include scoring and analyzing variability
among individual’s behaviors, testing individual repeatability of behaviors, and designing and implementing a test for
dispersal behavior.
Effects of recreation trails on wildlife movement
One major influence on the movement of wildlife is the presence of humans and human features on the
landscape. At large scales, roads have been documented to have a significant impact on the movement of animals: some
species will use the roads as movement corridors, while others find it a barrier. I am examining this at a smaller scale,
to see if even human recreation trails without vehicle traffic influence wildlife movement. We have been comparing
different trail substrates (gravel, dirt) at the same path width, and I intend to expand to consider effect of other
substrates and other path widths. Large animal activity is monitored using remote cameras, and we have used markrecapture to look at the effects on wild mice.
Amphibian migration: conservation and population monitoring
Every spring, many amphibian species migrate from their wintering habitat in the forest downhill to wetlands
for breeding. Local roads now cross paths with the amphibians' journey, and many animals get hit on the road. In a
long-term conservation and population monitoring effort, we census the population while helping the animals across the
road. We tag and remotely monitor for spotted salamanders in a mark-recapture study that may permit us to see the
survivorship as well as population size of this normally long-lived species.
ICNL deer density and impacts
The ecological impact of deer in the Northeast is of serious management concern. In order to understand
where, when, and how deer are impacting the vegetation on Ithaca College Natural Lands, we are combining a
experimental exposure of oak seedlings with remote camera data. We are trying to index where the deer are most
densely located at different times of year, and link that to the extent of browse in experimental plots. This can also be
linked to a broader examination of vegetation structure and herbivory damage in these areas.