Chapter 1:
1. Steps of scientific method (Scenario based questions)
2. Variables of experiment (Independent variable, dependent variable)
3. Properties of living organisms.
Chapter 2:
1. What are the major elements of life?
2. Atoms, what is it made of? Atomic number, Isotopes
3. Properties of water
4. Different types of chemical bonds (how are they formed)
Chapter 3:
1. What are the four major groups of biological molecules? (monomers, polymers, their key functions)
2. Dehydration synthesis
3. Hydrolysis
Chapter 4:
1. Differences between prokaryotic and eukaryotic cells.
2. Plasma membrane (Structure, different membrane proteins)
3. Endomembrane system (cellular organelles of this system and their functions)
4. Nucleus
Chapter 5:
1. Energy, Potential energy vs Kinetic energy
2. Thermodynamics laws: law of conservation of energy, Entropy
3. Enzymes: What are these molecules, how do they function?
4. Passive transport: diffusion, facilitated diffusion.
Chapter 6:
1. Cellular respiration: Location and equation (reactants and products)
2. Differences and similarities of aerobic respiration and anaerobic respiration
3. Stages of cellular respiration: Glycolysis, Krebs cycle, oxidative phosphorylation
Chapter 7:
1. Photosynthesis equation: Location and equation (Reactants and Products)
2. Photosystem, pigments
3. Stages of photosystem: Light reactions and Calvin cycle. (Starting and end molecules)
Chapter 8
Chromosomes, chromatids
Mitosis: Stages of Mitosis (What events happens in each stage)
Human chromosome number and composition.
Meiosis: Stages of Meiosis (What events happens in each stage)
What causes genetic recombination in gametes / cells? (Hint :What happens in Prophase I and Metaphase I of meiosis)
Nondisjunction
Chapter 9
Genes, alleles, Homozygous, Heterozygous, genotype and phenotype
Mendel's laws
Genetic cross, patterns of inheritance, probability rules
Sex linked inheritance
Epigenetics
Chapter 10
DNA and RNA structure (what are they made of)
Complementary base pairing
Transcription (location, stages)
Translation (Location, stages)
RNA processing
Chapter 11
Restriction enzyme
Gel electrophoresis, DNA fragment separation on gel
Chapter 12
Gene expression
Eukaryotic gene regulation
Cancer (genes, inherited cancer)
Chapter 13
Taxonomy
Linnaean system
Natural selection
Homology
Homologous structures
Vestigial structures
Gene pool
Allele frequency
Hardy-Weinberg equation
Microevolution
evolutionary fitness
Reproductive success
Sexual selection
Sexual dimorphism
Stabilizing selection
Outcomes of natural selection
Common ancestry
What were the earlier ideas about evolution of species? And what evidence contradicted these ideas?
What was Lamarck’s idea about evolution?
What observations were made by Charles Darwin on his voyage? Based on these observations, what mechanism did Darwin propose for evolution?
What are the different types of evidence that support Darwin’s idea of evolution?
What are fossils? What are the different types of fossils? Describe how they help us understand that life forms change?
What is an evolutionary tree? What does it show? Can you interpret it?
Define population and describe the three mechanisms by which populations can evolve (or change) over a period of time?
What are the different mechanisms that cause genetic variation among individuals?
How do analysis of gene pools show populations evolve?
What are allele frequencies?
What is hardy Weinberg equation? What do we use it for?
What is microevolution? What mechanisms cause microevolution?
What is genetic drift? What are the two ways by which genetic drift can happen?
What is gene flow? How does it change allele frequencies?
How do sexual selection cause evolution?
What are the three outcomes of natural selection? How are they different from each other?
Chapter 14
homology vs. analogy
Convergent evolution
Reproductive barrier
Allopatric speciation
Sympatric speciation
Exaptations
Analogous structures
Cladistics
Clades
Phylogenetic tree
How do mass extinctions cause species to evolve and diversify?
What are the different underlying biological mechanisms by which macroevolution occurs? (Changes in genes, simple structures become complex, exaptation)
How are phylogenetic trees created using the cladistics approach?
Chapter 15
Heterotroph
Mixotroph
Protozoans
Amoeba
Ciliates
Flagellates
Apicomplexans
Slime molds (cellular slime mold, plasmodial slime mold)
Unicellular Algae (Dinoflagellate, Diatoms, Euglena)
Multicellular Algae (Sea weeds)
Precell
Binary fission
Exotoxins
Endotoxins
What is the four-stage hypothesis about the origin of life?
What were the first genes like?
Chapter 16
Charophytes
Plants vs. algae
Stomata
Cuticle
Vascular tissue
Xylem, Phloem
Lignin
Alternation of generations
Sporophyte
Gametophyte
Pollen grain
Ovules
Ovary
Seed
Fruit
Pollination
Fertilization
Hyphae
Mycelium
Symbiosis
Mutualism
Lichen
Mycorrhizae
fungi
What are the major characteristics of the Bryophytes, Ferns (pterophytes), Gymnosperms and Angiosperms?
Chapter 17
Body symmetry
Bilateral symmetry
Radial symmetry
Body cavity
Cnidocytes
Polyp and medusa
Radula
Exoskeleton
Metamorphosis
Ectothermic
Endothermic
Amniotic egg
Tetrapod evolution
Hominins
What are the major features of each animal phylum?
Colonial flagellated protist
3 groups of mammals
Primates & evolution
Chapter 18
Ecology
Organismal Ecology
Population Ecology
Community Ecology
Ecosystem Ecology
Biomes
Wetlands
Estuaries
Pelagic realm
Benthic realm
Intertidal zone
Continental zone
Phytoplankton
Zooplankton
Climate change
Global warming
Different organisms responses to environmental changes
Aquatic zones
Terrestrial biomes
Chapter 19
What are the three types of survivorship curves? And how are they different from each other?
What are the different life history traits that affect an organism's survival and reproduction?
Differentiate the two life history patterns: opportunistic pattern and equilibrial pattern.
Be familiar with the two growth models use to show change in population size
How do density dependent factors affect population size?
Population Ecology
Survivorship curve
Logistic growth model
Carrying capacity
Mutualism
Parasitism
Commensalism
Chapter 20
Biodiversity
Community
Community ecology
Ecological niche
Mutualism
Predation
Herbivory
Pathogen
Parasite
Commensalism
Food chain
Trophic structure/level
Food web
Keystone species
Conservation biology
Restoration biology
Biomass
Biogeochemical cycles
Carbon cycle
Nitrogen cycle
Phosphorus cycle
Primary production
How does energy flow through ecosystems