MTEL Earth and Space Science (74) study plan

Map the full MTEL Earth and Space Science (74) subarea outline into a personal checklist, tagging each subarea as strong, shaky, or unknown before studying anything

Diagnose baseline knowledge by completing a timed 50-question mixed practice set drawn from astronomy, geology, meteorology, and oceanography, then score each subarea separately

Build a one-page reference sheet of SI units, unit conversions, and the formulas most likely to appear (density, Kepler's third law, radiative equilibrium, half-life, porosity, Darcy's law)

Rank your three weakest subareas and schedule them into weeks 2 through 5 so the heaviest content gets the most repetitions

Explain stellar evolution from nebular collapse through main sequence, red giant, and end states (white dwarf, neutron star, black hole), writing the sequence from memory twice

Derive and apply Kepler's third law and the inverse-square law to compare orbital periods and received flux for hypothetical planets

Interpret Hertzsprung-Russell diagram positions to classify stars by luminosity, temperature, and spectral class

Distinguish the evidence for the Big Bang (redshift, cosmic microwave background, light-element abundances) and describe how each observation supports the model

Sketch and label the solar system's structure and explain how the nebular hypothesis accounts for the terrestrial/gas giant divide

Sequence Earth's geologic history using relative dating principles (superposition, cross-cutting relationships, inclusions, faunal succession) on unfamiliar outcrop descriptions

Apply radiometric dating, including half-life calculations and parent-daughter ratios, to determine ages of synthetic rock samples

Construct and interpret a simple geologic time scale, placing the major eons, eras, and periods with their signature events

Explain plate tectonic driving mechanisms and predict the geologic features expected at divergent, convergent, and transform boundaries

Classify the three rock types and trace a rock through the rock cycle given a starting material and process

Identify common minerals by hardness, cleavage, luster, and streak using a properties table rather than memorized names alone

Interpret topographic and geologic maps to infer elevation change, gradient, strike and dip, and structural features

Explain weathering, erosion, and deposition processes and predict the landforms each produces

Analyze earthquake and volcano data (seismic wave behavior, epicenter triangulation, magma viscosity) to explain hazards and plate settings

Describe the water and carbon cycles including reservoirs, fluxes, and human perturbations

Explain atmospheric structure, composition, and the greenhouse effect using an energy budget diagram

Predict weather outcomes from air mass types, fronts, pressure systems, and station model data

Interpret weather maps, radar, and satellite imagery to forecast short-term conditions

Explain the Coriolis effect, global wind belts, and how they drive surface ocean currents

Describe El Nino/Southern Oscillation and its documented effects on global precipitation and temperature patterns

Explain ocean basin structure, seafloor spreading evidence, and the formation of mid-ocean ridges and trenches

Analyze salinity, temperature, and density profiles to explain thermohaline circulation and deep water formation

Describe wave generation, propagation, and coastal impacts including erosion, longshore drift, and storm surge

Explain tides using the gravitational interactions of Earth, Moon, and Sun, distinguishing spring and neap tides

Connect ocean processes to climate regulation and to the carbon cycle

Apply Earth-Moon-Sun geometry to explain moon phases, eclipses, and eclipse prediction conditions

Compare rotation and revolution effects on day length, seasons, and apparent stellar motion

Explain precession, nutation, and orbital eccentricity as long-term climate influences

Describe the tools and methods of space exploration (telescopes, spectroscopy, remote sensing, sample return) and what each reveals

Summarize major space missions and their contributions to understanding planets, moons, and small bodies

Complete two full-length timed practice tests under exam conditions and log every missed item by subarea and error type

Re-teach the three lowest-scoring subareas from week 1 using corrected notes and fresh practice items

Drill the highest-frequency calculation types (density, half-life, Kepler, unit conversions) to automaticity

Build a one-page final review sheet of the 20 facts you most often missed

Rehearse test-day pacing and strategy, including how to handle multi-step calculation items under time pressure