10th grade

 

10th grade

Activities:
  • Examine key mammalian traits such as warm-bloodedness, mammary glands, and skin coverings
  • Investigate evolutionary adaptations like jawbone transformation and respiratory systems
  • Compare heart structure and birth methods across different mammal groups
  • Sort species on a phylogenetic tree and classify them as monotremes, marsupials, or placentals
  • Analyze historical descriptions to identify mammals based on clues and context
  • Practice scientific reasoning through elimination, deduction, and classification

 
Activities:
  • Identify plant, animal, and bacterial viruses using hints (drag & drop)
  • Explore the structure of the tobacco mosaic virus
  • Find all the ways plant viruses can enter through wounds or openings
  • Examine common symptoms of plant viral infections
  • Hover over the HIV model to study animal virus structure
  • Compare two main entry pathways: membrane fusion and endocytosis
  • Observe how viruses replicate, assemble, and exit the host cell
  • Match human viral symptoms with the correct virus and transmission method
  • Study bacteriophages and how they inject DNA into bacteria
  • See plaques (holes) on Petri dishes as signs of phage infection
  • Answer the big question: how do viruses enter the cell? (Olympiad-style challenge)
  • Learn about viroids (naked RNA) and prions (infectious proteins)
  • Compare DNA vs RNA, and how viruses use genetic information
  • Classify viruses in a table based on descriptions
  • Contrast lytic vs lysogenic cycles and their role in gene transfer
  • Discover beneficial viruses in symbiosis with parasitoid wasps

Activities:
  • Explore the major fungal groups, including Basidiomycota, Ascomycota, Chytridiomycota, Mucoromycota, Zoopagomycota, and Fungi Imperfecti.
  • Watch simple animations that show how different types of spores form, such as ascospores, basidiospores, zygospores, and zoospores.
  • Build a growing mind map of fungal systematics to understand classification step by step.
  • Complete interactive diagrams of spore formation by dragging illustrations into the correct places.
  • Identify the zoospore of chytrids and place it in the correct position.
  • Match each fungal group with either its representative organisms or the traces they leave behind.
  • Read a short piece of online pseudoscience called “Beware the Yeast” and decide which paragraphs contain scientific inaccuracies. Compare their choices with expert feedback.

Fungal Diversity Explained: From Chytrids to Basidiomycetes on YouTube.

Activities:
  • Reconstruct the nitrogen, sulfur, and phosphorus cycles step by step — using hints, visual prompts, and logical reasoning to complete each process.

Activities:
  • Understand the basics of biological systematics
  • Distinguish between gram-positive and gram-negative bacteria
  • Explore prokaryotes without cell walls and archaeal cell walls
  • Model cell wall structures through interactive tasks

Activities:
  • Discover the unique structure of bacterial genomes, including the nucleoid and plasmids
  • Explore horizontal gene transfer via transformation, transduction, and conjugation
  • Learn how gene transfer shapes bacterial evolution and impacts all life on Earth
  • Debunk common myths about GMOs and understand their real-life benefits
  • Analyze misleading claims about genetic modification and defend scientific facts

Activities:
  • Discover different bacterial reproduction methods: binary fission, budding, fragmentation, and spore formation
  • Understand the roles of endospores, exospores, myxospores, and akinetes in survival and reproduction
  • Explore how bacterial colonies form on solid and liquid media
  • Learn why bacteria reproduce so rapidly thanks to their surface-area-to-volume ratio
  • Reinforce their knowledge with an engaging interactive exercise

Microbial Survival Strategies
Activities:
  • Explore why high salinity poses a danger and how prokaryotes resist osmotic stress
  • Analyze how heat affects proteins and how microbes cope with extreme temperatures
  • Discover why too much light is toxic for photosynthetic organisms
  • Identify survival strategies of deep-sea barophiles under extreme pressure
  • Examine microbial tactics to survive antibiotic exposure and slow resistance
  • Learn how microbes handle deadly pH levels in acidic or alkaline environments
  • Investigate radiation resistance in Deinococcus radiodurans and rank common sources
  • Uncover adaptations for surviving desert heat, cold, dryness, and starvation