Plan
| Week 1 |
Day 1
|
Day 2
|
Day 3
|
Day 4
|
Day 5
|
|---|---|---|---|---|---|
| Activities |
Kickoff Exploration - Visit a local science museum for a workshop on cell biology and genetics. Engage in hands-on experiments to understand basic cell structures and functions. (45 min)
|
Introduction to Cell Theory - Discuss the principles of cell theory and differentiate between prokaryotic and eukaryotic cells through interactive group activities. (20 min)
Cell Organelles Exploration - Use digital tools to create a visual representation of major organelles and their functions. (25 min)
|
Levels of Organization - Investigate the hierarchical organization of cells, tissues, organs, and systems through collaborative projects. (20 min)
Interactive Cell Model - Construct a 3D model of a eukaryotic cell to reinforce understanding of cell structures. (25 min)
|
Cell Functions and Processes - Conduct a guided inquiry into cellular processes like respiration and photosynthesis, using animations and simulations. (25 min)
Reflections on Cell Processes - Write a reflective journal entry to document understanding and raise questions about cellular functions. (20 min)
|
Peer-to-Peer Learning - Participate in a peer-led workshop to present findings on cell functions and receive constructive feedback. (25 min)
Reflective Journaling - Share insights and reflections from the week's activities in a group discussion, fostering academic mindset and critical thinking. (20 min)
|
| Deliverables |
1. Science journals documenting observations and insights from the museum visit.
2. Completed cell models with labeled major organelles. 3. Group presentations or skits explaining cellular functions like respiration and photosynthesis. 4. Initial entries in digital portfolios documenting reflections and learning progress related to cell biology and genetics. |
||||
| Preparation |
1. Arrange transportation and permission slips for the science museum visit.
2. Gather craft materials for cell model creation, such as clay, pipe cleaners, and colored paper. 3. Prepare digital devices for students to start their digital portfolios. 4. Coordinate with museum staff to ensure interactive and educational workshops are tailored to the project goals. 5. Develop a reflection rubric to guide self-assessment and peer feedback. |
||||
| Week 2 |
Day 6
|
Day 7
|
Day 8
|
Day 9
|
Day 10
|
|---|---|---|---|---|---|
| Activities |
Introduction to Cell Structures - Explore the basic structures of prokaryotic and eukaryotic cells using microscope images and models. Discuss the functions of each organelle. (20 min)
Cell Organelle Role-play - Students act out the functions of different organelles in a cell, focusing on key terms like mitochondria, nucleus, and chloroplasts. (25 min)
|
Interactive Cell Model Creation - Work in groups to build a 3D model of a cell using craft materials, labeling each organelle and explaining its function. (45 min)
|
Cell Systems and Homeostasis - Investigate how cells maintain homeostasis through interactive simulations and discussions. (30 min)
Reflective Journaling - Document understanding of cell structures and their functions in maintaining homeostasis, followed by a group discussion on insights gained. (15 min)
|
Visit to Science Museum - Attend a workshop on cell biology and engage in hands-on experiments to observe cell structures and functions firsthand. (45 min)
|
Peer Review Session - Present findings from the science museum visit to peers, engage in constructive feedback, and reflect on academic and socio-emotional growth. (25 min)
Digital Portfolio Development - Begin compiling observations and reflections from the museum visit into a digital portfolio, highlighting understanding of cell structures and functions. (20 min)
|
| Deliverables |
1. Completed DNA models constructed by students.
2. Video recordings of the mitosis and meiosis skits performed by student groups. 3. Digital journal entries documenting predictions made using Punnett squares and reflections on learning experiences. 4. Participation in group discussion, with shared insights recorded and feedback provided by peers and teacher. |
||||
| Preparation |
1. Coordinate with the science museum to schedule the DNA workshop and ensure all necessary materials (e.g., microscopes, fruit samples, extraction kits) are prepared.
2. Gather materials for DNA models, such as colored beads and string, and prepare instructions for students. 3. Provide props and costumes for the mitosis and meiosis skits, ensuring students have access to all necessary items. 4. Create digital templates for Punnett squares and set up student accounts on a platform for digital journaling. 5. Set up a classroom discussion space to facilitate reflective sharing and feedback sessions. |
||||
| Week 3 |
Day 11
|
Day 12
|
Day 13
|
Day 14
|
Day 15
|
|---|---|---|---|---|---|
| Activities |
Exploring DNA Structure - Dive into the complexities of DNA by constructing a model that highlights nucleotide sequences and double helix structure, fostering understanding of genetic code. (25 min)
DNA Replication Simulation - Participate in a group simulation that illustrates the process of DNA replication, emphasizing the roles of enzymes and the importance of accuracy in genetic information flow. (20 min)
|
Transcription and Translation Workshop - Work in pairs to simulate transcription and translation processes using interactive digital tools, focusing on the creation of mRNA and the synthesis of proteins. (30 min)
Reflective Journaling on Genetic Information - Document personal reflections on the complexities of transcription and translation, followed by a group discussion to enhance understanding and clarify doubts. (15 min)
|
Predicting Genetic Traits with Punnett Squares - Use Punnett squares to predict genetic traits, exploring dominant and recessive alleles through hands-on activities and group problem-solving sessions. (30 min)
Peer-Led Workshop on Genetic Prediction - Collaborate with peers to teach each other about genetic predictions, using creative methods like skits or games to reinforce understanding and communication skills. (15 min)
|
Interactive Genetics Lab - Conduct experiments to observe genetic variations and analyze how different factors affect genetic traits, enhancing scientific inquiry and data analysis skills. (30 min)
Reflective Group Discussion - Engage in a reflective group discussion to share findings from the genetics lab, focusing on academic growth and socio-emotional insights gained from the activities. (15 min)
|
Digital Portfolio Compilation - Compile observations, reflections, and data from the week’s activities into a comprehensive digital portfolio, highlighting key genetic concepts and predictions made. (25 min)
Preparation for Genetic Showcase Night - Begin planning and organizing materials for the upcoming Genetic Showcase Night, focusing on interactive displays and effective communication strategies. (20 min)
|
| Deliverables |
1. Completed digital portfolio including experiment documentation and reflections.
2. Peer-reviewed presentations on museum findings, showcasing understanding of genetic principles. 3. Interactive skits or animations demonstrating mitosis and meiosis processes. 4. Reflective journal entries predicting genetic outcomes using Punnett squares and insights from group discussions. |
||||
| Preparation |
1. Coordinate with the science museum to schedule workshops and ensure all necessary materials and equipment are available for student experiments.
2. Prepare materials for DNA model kits and guides for replication and transcription activities. 3. Develop guidelines and resources for peer-led workshops, including skit scripts and animation creation tools. 4. Organize peer review formats and reflection journaling prompts to facilitate self-assessment and feedback. 5. Set up digital tools and platforms for students to compile their portfolios, including templates for documenting experiments and reflections. |
||||
| Week 4 |
Day 16
|
Day 17
|
Day 18
|
Day 19
|
Day 20
|
|---|---|---|---|---|---|
| Activities |
Final Genetic Traits Analysis - Review and refine predictions using Punnett squares to accurately predict genetic traits, focusing on authentic examples and peer discussions. (30 min)
Digital Portfolio Enhancement - Collaborate in groups to enhance digital portfolios with detailed reflections and analyses of genetic experiments conducted at the science museum. (15 min)
|
Interactive Mitosis and Meiosis Presentation - Develop creative presentations on mitosis and meiosis, incorporating skits or animations to illustrate key concepts and differences. (25 min)
Peer Feedback Session - Present mitosis and meiosis projects to peers and receive constructive feedback to improve understanding and communication skills. (20 min)
|
Genetic Showcase Night Preparation - Finalize digital presentations and interactive displays for the Genetic Showcase Night, ensuring all components are effectively communicating genetic principles. (30 min)
Practice Presentation - Conduct mock presentations in class, focusing on effective communication and audience engagement strategies. (15 min)
|
Reflective Journaling on Genetic Diversity - Document reflections on the genetic diversity observed through asexual and sexual reproduction, prompting group discussions for deeper understanding. (25 min)
Community Partner Engagement - Prepare questions and discussion points for interacting with science museum partners during the Genetic Showcase Night. (20 min)
|
Genetic Showcase Night Execution - Host the Genetic Showcase Night, presenting projects to family members and community partners, engaging in discussions about genetic diversity and cellular functions. (45 min)
|
| Deliverables |
1. Complete and present interactive displays and digital presentations at 'Genetic Showcase Night,' demonstrating understanding of genetic traits and heredity principles.
2. Submit a comprehensive digital portfolio documenting experiments, reflections, and insights gained from science museum workshops and peer-led sessions. 3. Participate in a peer review session, presenting experimental findings, receiving feedback, and providing constructive feedback to peers. 4. Reflective journal entries documenting understanding of genetic traits, predictions using Punnett squares, and insights from group discussions. 5. Engage in peer-led workshops, creatively teaching key concepts such as mitosis and meiosis through skits, animations, or games, and assess understanding through peer feedback. |
||||
| Preparation |
1. Coordinate with the science museum to finalize logistics for hosting the 'Genetic Showcase Night.' Ensure all necessary equipment and materials are available and set up.
2. Gather materials for interactive displays and digital presentation stations, including projectors, computers/tablets, poster boards, art supplies, and presentation software. 3. Prepare feedback forms for community partners and family members to provide constructive feedback during the 'Genetic Showcase Night.' 4. Organize and print reflection journals and Punnett square prediction worksheets for students to use during the reflective journaling activity. 5. Ensure the availability of digital tools and platforms for students to compile their digital portfolios, including access to online repositories or cloud storage solutions. |
||||