📊 Dataset: Global Earthquake Patterns (2020-2024)
This dataset shows the relationship between earthquake depth and magnitude for major seismic events worldwide. Data represents significant earthquakes (M>4.0) from tectonic plate boundaries.
Location | Depth (km) | Magnitude | Plate Boundary Type |
---|---|---|---|
Japan Trench | 35 | 7.1 | Convergent |
Chile Subduction | 125 | 6.2 | Convergent |
Mid-Atlantic Ridge | 10 | 5.8 | Divergent |
San Andreas | 15 | 6.4 | Transform |
Tonga Trench | 580 | 5.2 | Convergent |
Peru-Chile | 200 | 5.9 | Convergent |
📝 Build Your CER Argument
Claim:
State your answer to the question. What pattern do you observe?
Evidence:
Describe specific data points from the graph. Include numbers and comparisons.
Reasoning:
Explain the Earth science principle. Why does this pattern occur? Consider plate tectonics.
📊 Dataset: Global Temperature Anomaly (1880-2024)
Temperature deviation from the 1951-1980 average. Data from NASA GISS Surface Temperature Analysis.
📝 Build Your CER Argument
Claim:
State the temperature trend you observe.
Evidence:
Cite specific years and temperature values. Compare different time periods.
Reasoning:
Explain the greenhouse effect and climate science principles.
📊 Dataset: Global Sea Level Change (1993-2024)
Satellite measurements of global mean sea level from NASA. Values show change relative to 1993 baseline.
📝 Build Your CER Argument
Claim:
State what's happening to sea level.
Evidence:
Calculate the rate of change. Compare early vs recent years.
Reasoning:
Explain thermal expansion and ice melt contributions.
📊 Dataset: Atmospheric CO₂ Concentration (1960-2024)
Monthly measurements from Mauna Loa Observatory, Hawaii. Data shows parts per million (ppm) of CO₂.
📝 Build Your CER Argument
Claim:
Describe the CO₂ trend and any patterns.
Evidence:
Compare values from different decades. Note seasonal patterns.
Reasoning:
Explain carbon cycle and human impacts.
📊 Dataset: Solar System Data from NYS Reference Tables
This dataset from the NYS Earth Science Reference Tables shows relationships between planetary characteristics including distance from the Sun, revolution period, and diameter.
Planet | Distance from Sun (million km) | Period of Revolution | Diameter (km) |
---|---|---|---|
Mercury | 57.9 | 88 days | 4,879 |
Venus | 108.2 | 224.7 days | 12,104 |
Earth | 149.6 | 365.26 days | 12,756 |
Mars | 228.0 | 1.9 years | 6,792 |
Jupiter | 778.5 | 11.9 years | 142,984 |
Saturn | 1432.0 | 29.5 years | 120,536 |
Uranus | 2867.0 | 83.7 years | 51,118 |
Neptune | 4515.0 | 163.7 years | 49,528 |
📝 Build Your CER Argument
Claim:
State the relationship between distance and revolution period.
Evidence:
Compare specific planets. Include actual distances and periods.
Reasoning:
Explain using Kepler's Laws and gravitational principles.
📊 Dataset: Atlantic Hurricane Categories (2000-2024)
Distribution of Atlantic hurricanes by category. Data from National Hurricane Center.
📝 Build Your CER Argument
Claim:
State the pattern in hurricane intensity distribution.
Evidence:
Compare different categories. Note any changes between time periods.
Reasoning:
Explain hurricane formation and factors affecting intensity.