NYSTCE Earth Science (162) study plan
NYSTCE Earth Science (162) · Give each week a clear focus.
8 weeks · About 7 hours per week
Foundations of scientific inquiry
Distinguish independent, dependent, and controlled variables in written experimental scenarios and rewrite three flawed designs so each has a single manipulated variable
Convert a stated hypothesis into a testable prediction and identify the observation, inference, and conclusion in a short data narrative
Compute mean, median, mode, range, and identify outliers from a small data set by hand without a calculator
Interpret simple data tables and line graphs to state trends, and flag where a graph's scale exaggerates or hides a change
Your checkpoint
A one-page experimental design worksheet covering three scenarios with variables labeled, statistics computed, and one graph critique written out
Foundations of scientific inquiry
Apply the concepts of accuracy, precision, percent error, and significant figures to measurement records and decide which instrument fits a stated task
Explain how repetition, sample size, and control groups reduce error, and identify sources of random versus systematic error in a described investigation
Describe the sequence of a scientific investigation from question through peer review and revision, and explain why replication matters
Evaluate a short claim for bias, missing controls, and unsupported generalization, then write a defensible counter-conclusion
Your checkpoint
A written critique of a fictional investigation summary that names at least four specific methodological weaknesses and proposes a corrected procedure
Foundations of scientific inquiry & Space systems
Convert between scientific notation, metric prefixes, and SI units for length, mass, volume, and temperature, and select appropriate units for Earth and space quantities
Read and interpret topographic maps and cross sections by identifying contour intervals, gradients, and elevation profiles
Explain how remote sensing, seismic imaging, and satellite data are used as indirect evidence for phenomena that cannot be directly observed
Describe the scale hierarchy of the solar system and Milky Way and use scale factors to compare distances
Your checkpoint
A completed map-and-scale exercise: one topographic profile drawn from given contour values plus a scale-model calculation for solar system distances
Space systems
Explain the nebular hypothesis step by step, including accretion, differentiation, and why inner and outer planets differ in composition
Describe Earth's rotation, revolution, axial tilt, and their consequences for day length, seasons, and the apparent motion of stars
Predict seasonal and tidal patterns from given dates, latitudes, and Moon phases, and distinguish spring from neap tides
Compare terrestrial and Jovian planets and classify small bodies as asteroids, comets, or meteoroids by origin and composition
Your checkpoint
A seasons-and-tides problem set with at least ten predictions justified in writing, plus a labeled diagram of Earth-Sun-Moon geometry at solstice and equinox
Space systems & Earth systems
Sequence the life cycle of a star by mass and explain how stellar processes produced the elements found in Earth's materials
Explain the Doppler effect and redshift as evidence for an expanding universe, and summarize the Big Bang evidence set
Describe Earth's internal layers by composition and physical state and cite the seismic evidence that distinguishes them
Relate plate tectonics to mantle convection and identify boundary types from described earthquake, volcano, and topographic patterns
Your checkpoint
A two-column evidence table linking each major Earth and space theory to at least three supporting observations, with a short written explanation of one piece of evidence per theory
Earth systems
Trace the rock cycle and classify given rock descriptions as igneous, sedimentary, or metamorphic with a stated justification
Interpret a provided seismogram and locate an epicenter using differences in P-wave and S-wave arrival times
Explain weathering, erosion, deposition, and soil formation, and predict landform changes from a described climate and slope
Describe the water cycle and atmospheric circulation, and explain how oceans moderate climate and drive weather patterns
Your checkpoint
A rock-and-landform classification set of twelve items with written reasoning for each, plus one epicenter triangulation worked out step by step
Earth systems & Earth's history
Apply relative dating principles, including superposition, cross-cutting relationships, and unconformities, to order events in a described rock sequence
Explain radiometric dating, half-life, and isotope selection, and calculate the age of a sample given parent-daughter ratios
Correlate rock layers and fossil assemblages across regions and explain how index fossils establish relative ages
Summarize the major divisions of geologic time and identify which major events mark their boundaries
Your checkpoint
A geologic cross-section interpretation with an ordered event list of at least eight events and two half-life calculations shown with work
Foundations of scientific inquiry & Space systems & Earth systems & Earth's history
Integrate content across all four domains by answering mixed-format practice items under timed conditions and tagging each miss by domain
Re-teach the three weakest tagged topics in writing, using correct terminology and a worked example
Apply inquiry-process skills to an unfamiliar Earth or space data set and justify a conclusion from the evidence given
Build a one-page reference sheet of formulas, unit conversions, and dating principles to use during final review
Your checkpoint
A timed full-length practice set completed with an error log sorted by domain and a written re-teach of the three lowest-scoring topics
Milestones
Week 2: Explain and apply variables, statistics, and error concepts without notes, scoring at least 80% on a self-made 20-item inquiry quiz
Week 4: Predict seasons, Moon phases, and tides for a new set of dates and latitudes with at least 8 of 10 correct and reasons stated
Week 6: Classify ten rock and landform descriptions and complete one epicenter triangulation accurately, with reasoning written for each
Week 7: Order events in an unseen cross section correctly and compute two radiometric ages with correct units and shown work
Week 8: Score at or above 75% on a timed mixed-domain practice set with every miss logged and re-taught in writing