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Course ID: | WILD 5700/7700. 2 hours. | Course Title: | Applied Population Dynamics | Course Description: | Foundations of population dynamics from an applied perspective. Exponential and logistic population growth, life tables, multiple species interactions, and basic population models. Sampling design and analytical methods for estimating abundance and demographic parameters. Application of population models to harvest management and small population management. Integrative student project required. | Oasis Title: | Population Dynamics | Prerequisite: | (MATH 1113 or MATH 1113E) and (FANR 3200 or FANR 3200W or ECOL 3500-3500L or ECOL 3505H-3505L) | Graduate Pre or Corequisite: | FANR 6750-6750D or BIOS 7010 or BIOS 7010E | Corequisite: | WILD 5700L/7700L | Semester Course Offered: | Offered fall semester every year. | Grading System: | A-F (Traditional) |
| Course Objectives: | The objective of this course is to provide graduating seniors
and graduate students with the tools necessary for understanding
dynamics of wildlife populations. This is followed by extensive
coverage of the population management basis of wildlife harvest
and small population management. The course is designed to
allow students integrate both population theory and practice
through the use and implementation of practical field examples. | Topical Outline: | I. Introduction-Populations and wildlife management. Why do we
collect data on population density and demographics? Why is
population dynamics important?
II. Populations and population demographics-Population growth,
exponential and logistic growth, life tables, multiple species
interactions. Basics of population models. Stochastic and
deterministic models, single species and multiple species models.
III. Estimating populations and population demographics-Data
collection and analysis. Sampling, experimental design,
estimating abundance and demographics, sample counts, distance
methods, mark-recapture.
IV. Harvest Management-Theory and basis of exploitation of wild
animals. Density dependence, sustained yield theory, dynamic
pool models, and compensatory vs. additive mortality. Management
applications and harvest decisions.
V. Small Population Management-Population and genetic
implications of small populations and fragmentation. Population
genetics, bottlenecks, inbreeding depression, gene flow, pedigree
analysis, evolutionary significant units, and extinction
probability. Management applications and endangered species
management.
VI. Research Projects-Team projects, reports, and presentations. | |
Course ID: | WILD 5700L/7700L. 1 hour. 3 hours lab per week. |
Course Title: | Applied Population Dynamics Lab |
Course Description: | Foundations of population dynamics from an applied perspective.
Exponential and logistic population growth, life tables,
multiple species interactions, and basic population models.
Sampling design and analytical methods for estimating abundance
and demographic parameters. Application of population models to
harvest management and small population management. Integrative
student project required. |
Oasis Title: | Population Dynamics Lab |
Corequisite: | WILD 5700/7700 |
Semester Course Offered: | Offered fall semester every year. |
Grading System: | A-F (Traditional) |
|
Course Objectives: | The objective of this course is to provide graduating seniors
and graduate students with the tools necessary for understanding
dynamics of wildlife populations. This is followed by extensive
coverage of the population management basis of wildlife harvest
and small population management. The course is designed to
allow students to integrate both population theory and practice
through the use and implementation of practical field examples. |
Topical Outline: | I. Introduction-Populations and wildlife management. Why do we
collect data on population density and demographics? Why is
population dynamics important?
II. Populations and population demographics-Population growth,
exponential and logistic growth, life tables, multiple species
interactions. Basics of population models. Stochastic and
deterministic models, single species, and multiple species
models.
III. Estimating populations and population demographics-Data
collection and analysis. Sampling, experimental design,
estimating abundance and demographics, sample counts, distance
methods, mark-recapture.
IV. Harvest Management-Theory and basis of exploitation of wild
animals. Density dependence, sustained yield theory, dynamic
pool models, and compensatory vs. additive mortality.
Management applications and harvest decisions.
V. Small Population Management-Population and genetic
implications of small populations and fragmentation. Population
genetics, bottlenecks, inbreeding depression, gene flow,
pedigree analysis, evolutionary significant units, and
extinction probability. Management applications and endangered
species management. |
Syllabus: No Syllabus Available
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