This is a Biochemistry Pre-test or Review, matching exercise. In the form of a one page Word document. It is the first unit in AP Biology with these terms being used throughout the rest of the year, so it is essential learning for that course.

Students will use key features (such as cell type, DNA, and structural similarities) to classify organisms into modern domains . They will also create and read model representations of classification to organize and demonstrate their understanding of evolutionary history. This module was developed by Liz Ashby as part of a Virginia Commonwealth University STEM initiative sponsored by the Virginia Department of Education.

In a 15 minute video, Paul Andersen describes the four major biological molecules found in living things. There are links to two worksheets and a transcript of the videoso you can create your own guided notes for students to complete while watching the video.

Students first collect information about the different biomes before working in small groups (2-3 students) to discuss the pros and cons for each category (climate, location, flora, and fauna). This guides them in choosing a biome to recommend to a travel agency for promotion. They present and defend their choices during a board session.

This lesson will be used to help students explore the bioethics of biotechnology. With a team, students choose a renewable alternative energy source such as cloning, stem cell research, DNA fingerprinting, or others and research the pros and cons of that biotechnology.

The team then splits into debate teams and draws straws to determine whether they are on the "pro" or "con" side. They will debate in front of the class allowing others in the class to learn about both sides.

Learn about migration, the seasonal movement of animals from one location to another. Join the Center staff and migratory bird experts as they explain why birds migrate, and the dangers that they may face along their journeys. Learn how to help migrating birds and why we should be concerned about more than just our own backyards.

Learn about Black Bears in this episode of UNTAMED. The Wildlife Center staff members illustrate what it's like to care for Black Bear cubs, explain how we're working to understand and treat mange in wild bear populations and demonstrate what you should do if you encounter a Black Bear in need of help.

Two-day 5E lesson plan covering the basics of the dichotomous key using different types of candy.  The lesson begins with a whole group activity and then moves into student exploration using a key to identify "mystery candy."  On the second day, students create their own dichotomous key to help students identify random buttons.

Learn the reasons why keeping cats—domestic pets—indoors is better for wildlife, the cats themselves, and human health. Outdoor cats cause significant problems for wildlife and the environment; these cats also have shorter lifespans and are subjected to many more dangers than their indoor counterparts. Join Center staff, health experts, and a cat behaviorist to learn how we can fix this human-caused issue and keep wildlife, cats, and the environment safer.

It is often difficult for students to remember the functions of the cellular organelles because they cannot see, feel, or touch them. Presenting the analogy of the "Cell As A City" helps them realize that each organelle has an essential function. There is also a small section at the bottom of the resource asking the students to recall which cell parts are in a eukaryote, prokaryote, or both.

This worksheet will help your students demonstrate understanding of the concept after a lecture. It could also be used after a traditional organelles lecture, but before you have presented the analogy as a non-graded exercise.

In this 10 minute video Paul Andersen discusses cell communication. He begins by explaining how he communicates with other individuals using various forms of electronic communication. Included in this resource are a worksheet and full transcript of the video.

Transcript added from YouTube subtitles. You can use this to write your own worksheet or quiz.

In this 10 minute video Paul Andersen discusses cell communication. He begins by explaining how he communicates with other individuals using various forms of electronic communication. Included in this resource are a worksheet and full transcript of the video.

Transcript added from YouTube subtitles. You can use this to write your own worksheet or quiz.

This is a remix of the Exploratorium Teacher Institute's Agar Cell Diffusion resource. It offers an alternate recipe for the cell blocks using plain gelatin instead of agarose gel.

Link to original resource: https://goopenva.org/courses/agar-cell-diffusion

The cell is vitally important to all living things. Students will choose ONE of the following projects to reinforce their study of cell structure and function. Be sure to look at the rubric on page 2 for grading criteria.

This activity includes two simple hands-on experiments and numerous analysis and discussion questions which will help students understand how the molecular composition and organization of a cell membrane result in its selective permeability. Specific topics covered include ions, polar molecules and nonpolar molecules; simple diffusion through the phospholipid bilayer; facilitated diffusion through ion channels or carrier proteins; active transport; exocytosis and endocytosis. This activity helps students meet the Next Generation Science Standards.

This overview presents key concepts that students often do not learn from standard textbook presentations and suggests a sequence of learning activities to help students understand how the parts of a cell work together to accomplish the multiple functions of a dynamic living cell. Suggested activities also reinforce student understanding of the relationships between molecules, organelles and cells, the diversity of cell structure and function, and the importance and limitations of diffusion. This overview provides links to Web resources, hands-on activities and discussion activities.

This game helps students to enjoy reviewing vocabulary related to cells, organelles, and the plasma membrane. Each card in the deck has a target vocabulary word and two related taboo words that the student may not use when giving clues so the other students in his or her small group can guess the target word. Many students have trouble learning the substantial new vocabulary required for biology, and this game lets students have fun while reinforcing their understanding of key terms.

In this unit, students will be given a chance to study and view different types of cells, compare and contrast the features of the major cell types, learn about the function of specialization and differentiation in multicellular organisms, and review/learn the major organelles that will become the foundation of later units.This module was developed by Liz Ashby as part of a Virginia Commonwealth University STEM initiative sponsored by the Virginia Department of Education.

This overview of energy, cellular respiration and photosynthesis summarizes important concepts and common misconceptions. It also suggests a sequence of learning activities to overcome misconceptions, develop student understanding of important concepts, and relate these concepts to familiar topics such as breathing, food, body weight, and plant growth.

Students will participate in a 5E lesson. To ENGAGE, students will connect their understanding of similarities between parent and offspring to the fundamental molecule of life: DNA. To EXPLORE, students will participate in interactives to observe, analyze and summarize how genes are used to create proteins and traits. In the EXPLAIN section, students will take notes on DNA replication and the Central Dogma. To ELABORATE on their understanding of DNA, students will participate in a protein synthesis race (game) to practice transcription and translation. Formative evaluations of students's ability to explain the process of protein synthesis include (1) a protein synthesis and codon practice sheet, (2) a labeling activity, and (3) making a recording that models and explain the process. As an extension, students can apply their understanding of mRNA to explain how the Pfizer and Moderna COVID-19 vaccines work. Finally, int summative EVALUATE, students model replication, transcription, and translation as they build an organism!