Knowledge Assessment Concepts
These topics are the basis for questions on the Knowledge Assessment for the new admission policy.
You can download the Knowledge Assessment PDF here.
- Unit conversions
- Prefixes. Abbreviations, and English expression
- Rules for working with significant figures
- Using scientific notation
- Combining measurements
- Identifying and manipulating logarithmic and exponential functions
- Rewriting equations with logarithms and exponents
- Extracting the overall trend or message of a graph
- Understanding Axes, independent and dependent variables
- Types of graphs: scatterplots, lines, curves, histograms
- Multiplication rule of probability (‘both-and’ rule)
- Sum rule of probability (‘either-or’ rule)
- Dilution factors
- V1C1 = V2C2
- Molarity and formula weight
- Manipulating and calculating fractions, proportions, and percentages
- General steps of the scientific process
- Questions, hypotheses, and predictions
- Theories
- Designing experiments to test hypotheses, and the importance of controls
- Interpreting data from experiments and observations
- Drawing conclusions
- Relationships among and defining features of the domains of life
- Modes of energy and nutrient acquisition
- Origins of mitochondria and chloroplasts
- Life cycles
- Colonization of land and adaptations for terrestrial life
- Vascular vs. non-vascular plants
- Life cycles and reproduction
- Defining features of major plant groups (“Nonvascular plants” (Bryophytes: Liverworts, hornworts, and mosses) and Vascular plants (seedless and seed plants (gymnosperms and angiosperms)))
- Animal origins
- Body plans
- Development and germ layers
- Reproductive strategies
- Defining features of major animal groups (Porifera, Cnidaria, Deuterostomes and Protostomes (Lophotrochozoa and Ecdysozoa)
- Nutrient acquisition
- Life cycles and reproduction
- Body plans
- Defining characteristics of major fungal groups (Basidiomycota, Ascomycota, Zygomycota, and Chitridiomycota)
- Trophic levels and food webs
- Nutrient cycles and energy flow
- Biotic vs. abiotic ecological factors
- Major categories of interspecific interactions
- Exponential and logistic population growth
- Population size estimation
- Global climate change
- Alleles and Mendelian particulate inheritance
- Independent assortment and segregation
- Genotype vs. phenotype
- Homozygosity, heterozygosity
- Dominance, recessivity
- Use of Punnett squares to predict outcomes of monohybrid and dihybrid crosses
- Chromosomes and chromatids
- Ploidy
- Major phases of cell cycle
- Phases of mitosis and meiosis
- Mitotic spindle, microtubules and chromosome capture
- Chromosome segregation
- Origins of genetic variation
- Crossing over and independent assortment
- Evolutionary benefits of sexual reproduction
- Interpreting evolutionary relationships from phylogenies
- Homology and homoplasy
- Monophyly, paraphyly, polyphyly
- Cladistics: terminology, principle of parsimony, importance of synapomorphies
- Fitness
- Heritable variation
- Adaptation
- Directional, stabilizing, and diversifying selection
- Consequences of genetic drift and effects of population size
- Founder effect and population bottlenecks
- Gene flow: causes and consequences
- Importance of mutation for evolution
- Non-random mating: inbreeding and assortative mating
- Hardy-Weinberg as a testable null model
- Biological, phylogenetic, and morphological species concepts
- Forms of reproductive isolation
- Sympatric and allopatric speciation
- Hybridization
- Adaptive radiation
- Eukaryote organelles and their basic function; endosymbiotic theory
- Bacterium cell structure
- Free and bound ribosomes
- Cellular transport mechanisms; membrane transporters/vesicle trafficking
- Covalent and noncovalent bonds
- Atoms and atomic structure
- Chemical equations and equilibrium
- Common functional groups
- Major macromolecules of the cell; nucleic acids, proteins, carbohydrates, lipids
- Semi-conservative replication of the DNA double helix
- Mechanism of replication by DNA polymerase (priming, 5’ to 3’ synthesis)
- Replication origins, replication bubble, and progression of each replication fork
- Asymmetry of replication forks: leading and lagging strands
- Point mutations and chromosomal mutations; consequences for the phenotype
- DNA repair: correcting mistakes in DNA synthesis; repairing DNA damage
- Double helical structure of DNA and base-pairing rules
- Antiparallel arrangement of complementary strands and polarity of ends (5’ vs. 3’ ends)
- RNA structure and major types (mRNA, tRNA, rRNA)
- Enzyme catalyzed reaction curves
- Free energy changes during reactions, equilibrium
- Oxidation and reduction reactions
- Enzyme structure: active sites, inhibitors and allosteric regulation
- The lipid bilayer: phospholipids, cholesterol and membrane fluidity
- Membrane permeability
- Surface glycolipids
- Membrane proteins and asymmetry of the bilayer
- Chloroplast structure and function
- Carbon fixation: the conversion of CO2 into sugars
- Photosystems I and II: energy capture and electron transport chain
- ATP production via proton motive force
- Amino acid structure, major categories of side chains
- Protein structure: primary, secondary, tertiary, and quaternary
- Importance of protein folding for protein function
- Citric acid cycle; oxidation and reduction reactions
- Electron carriers
- ATP synthesis in glycolysis, fermentation and oxidative phosphorylation
- Mitochondria structure
- Flow of genetic information (‘Central dogma’)
- Transcription initiation, chain elongation, and termination in prokaryotes and eukaryotes
- RNA processing in the nucleus to generate mature mRNA (functional significance of capping, splicing, polyadenylation; mechanistic details not necessary)
- Transcriptional control by gene regulatory DNA (promoters) and gene regulatory proteins (transcription factors); Lac operon as an example of control of gene expression in bacteria
- The genetic code
- Ribosomes and the function of tRNA and rRNA
- Translation initiation, elongation, and termination
- Post-translational modification of polypeptides (covalent modifications, allosteric regulation)