Students investigate how scientists classify animals by analyzing observable structures, behaviors, adaptations, and cell-based evidence to explain patterns of unity, diversity, and relatedness in the natural world. Through a clue-based launch, collaboration with a zoo educator or museum expert, hands-on sorting challenges, interactive game design, ongoing critique and revision, and a public fair, they build scientific reasoning, communication, collaboration, and self-direction in authentic ways. The experience centers on using evidence to answer how animal structures and behaviors reveal both shared functions and important differences, while preparing students to teach others through a hands-on classification exhibit.

Students will classify animals using observable structures, behaviors, adaptations, and cell-based evidence, and use scientific vocabulary to justify their claims with evidence and reasoning. They will analyze how different structures and behaviors can serve similar functions, showing patterns of unity and diversity while building explanations about adaptation, survival, reproduction, and relatedness among species. Students will collaborate to design, test, and revise an interactive classification game, communicate their thinking clearly to visitors, and coach others using accurate evidence during the exhibition. They will strengthen self-directed learning through weekly audio reflections, learning journey notebook entries, peer critique, teacher conferences, and a final student-led discussion of academic and social growth.

Students will create evidence logs in their learning journey notebooks, comparison charts, revised classifications, taxonomy notes, vocabulary trackers, labeled diagrams, and weekly two-minute audio reflections as they investigate how animal structures, behaviors, cells, and adaptations support classification. In teams, they will design and revise an interactive classification game with animal cards, challenge cards, score sheets, and student-created clues that require players to sort by observable traits and justify choices with evidence. They will also produce exhibit labels, explanation drafts, and coaching prompts for visitors, improving these through peer critique rounds, teacher check-ins, and feedback from a community partner. By the end, each group will present its hands-on game and display at the fair, lead visitors through the challenge, and explain how the evidence shows both unity and diversity among animals.

Launch with a Creation Clues Safari in which teams rotate through hands-on stations featuring feathers, skull images, tracks, specimen photos, and short animal video clips to make quick classifications and notice patterns of unity and diversity in the natural world. Follow with a Wonder Wall Kickoff after a virtual animal showcase or live visit from a zoo educator, where students post observations and questions, then sort them as a class by shared structures, behaviors, and adaptations. Have the zoo educator reveal additional live or recorded examples that push teams to revise their first ideas using evidence about observable traits, survival, reproduction, and how living things are structured. End with a brief whole-class conversation that introduces the essential question and the challenge of designing an interactive classification game for the Connections in Nature Fair.

Host a Connections in Nature Fair where teams run hands-on classification game stations featuring sort boards, challenge cards, score sheets, revised labels, and brief mini-presentations for families, peers, and community guests. Invite the zoo educator, wildlife rehabilitation staff, or museum curator to attend in person or virtually, play the games, and question students about how animal structures, behaviors, and adaptations show unity, diversity, and relatedness. Build in a student-led rehearsal before the event and a final exhibition moment where students coach visitors using scientific vocabulary, defend tricky classification choices with evidence from their notebooks, and collect short visitor feedback on clarity and scientific accuracy. Close with a student-led discussion in which groups connect their animal evidence to the essential question and name one academic growth and one socio-emotional growth they noticed.