Questions? Text us.

Biodiversity and interdependence: Chickenology (high school)

How does biodiversity impact traits in chickens? How might we protect flocks from disease?
These lessons resulted from a desire to continue the animal science interest that began many years ago when 4H extension created the ChickQuest program. Since then, Chickenology: Explore genetics to breed the best brood [https://extensionpubs.osu.edu/chickenology/] for middle school science has been published. These lessons extend to high school. See teacher background →

Lessons

# Biosecurity

How do we use biosecurity to keep chickens safe? Students learn through this simulation how to recognize the early signs of disease and how to prevent them from spreading using biosecurity measures.

Files

# Biodiversity

Students observe how inherited traits impact survival through a simulation and use Simpson’s Index of Diversity to quantify the change of diversity within an ecosystem.

Files

Teacher background

Middle school Science and high school Biology teachers often use exotic animals as examples when discussing natural selection, biodiversity and threats to biodiversity. However, our food supply is subject to many of the same issues. Consumers, farmers, and other agriculture workers have a large impact on the food supply, and they use the same science and biology concepts to make sure they can produce food to feed a large population. Discussing livestock helps students learn about the many jobs and careers in the food production industries.

This set of lessons encompass the basics of biodiversity and biosecurity, using chickens as a model. Chickens are the number one consumer of soybeans. Ohio ranks number two in egg production and sixteenth in chicken meat production in the United States. Students who participate in these lessons and activities will discover how many people are at work to provide us with healthy food from poultry and how this gets done.

Read more

Next gen science standards

Science and engineering practices

  • Developing and using models
  • Analyzing and interpreting data
  • Using mathematics and computational thinking
  • Obtaining, evaluating, and communicating information

Crosscutting concepts

  • Cause and effect
  • Systems and system models
  • Structure and function
  • Stability and change

Disciplinary core ideas/content

  • ESS3C Human impacts on Earth systems
  • LS1B Growth and development of organisms
  • LS2A Interdependent relationships in ecosystems
  • LS2C Ecosystem dynamics, functioning and resilience
  • LS3A Inheritance of traits
  • LS3B Variations of traits
  • LS4B Natural selection
  • LS4A Evidence of common ancestry and diversity
  • LS4C Adaptation

Curriculum authors



Tagged