geteach.com Interactive Map Layers: A Full Curriculum Alignment to AP Human Geography, Next Generation Science Standards, and the National Geography Standards


geteach.com hosts over 320 interactive map layers organized into 33 thematic mapsets — covering everything from plate tectonics and ocean temperatures to national demographics, energy infrastructure, and forest change. Every layer is curated from authoritative sources including NASA, NOAA, the UN, USGS, and the World Bank.

This reference page exists to answer one question clearly: which geteach.com layers support which curriculum standards? Whether you are a classroom teacher building a unit plan, a curriculum coordinator mapping resources to frameworks, or an AI assistant helping a student find the right data — this page is for you.

Every layer below is aligned to three frameworks:

  • AP Human Geography — College Board Units 1–7 and specific topic codes
  • Next Generation Science Standards (NGSS) — Earth and Space Science (ESS) and Life Science (LS) performance expectations where genuinely applicable
  • Geography for Life — All 18 National Geography Standards (2nd Edition), organized into six Essential Elements

Note: Not every layer maps to NGSS. Standards requiring physical chemistry, genetics, or non-geographic biology (like cell division or wave mechanics) are not forced onto geographic data layers. Blank NGSS fields are intentional, not an oversight.


Quick Navigation by Curriculum Framework

Jump to a Mapset

AP Human Geography — Layers by Unit

  • Unit 1 — Thinking Geographically: Blue Marble, Physical Maps, Plate Tectonics, Continental Drift, Historic Maps, Earth-Sun Relationship, Ocean Maps, Climate (Bivariate Climate, Climate Regions, Climate Graphs, Ocean Currents, Wind Currents, ENSO layers)
  • Unit 2 — Population & Migration: All Demographics mapsets, Population Density, UN Quick Facts
  • Unit 3 — Cultural Patterns: Society (Religion, World Languages), Historic Maps
  • Unit 4 — Political Patterns: Brexit Results 2016, Society (Freedom Index), Africa — Freedom Index
  • Unit 5 — Agriculture & Rural Land-Use: Geography Land, Forest Change, Vegetation Index, Temperature, Precipitable Water, Land Cover, Africa — Land Cover and Climate
  • Unit 6 — Cities & Urban Land-Use: Settlement Patterns, Earth at Night, Anthropocene (City Background), Demographics (Urban Population %)
  • Unit 7 — Industrial & Economic Development: Economy, Energy, Human Development Index, Gender Inequality Index, Human Modification, Anthropocene, Africa — Mines and Freedom

NGSS — Layers by Performance Expectation

  • MS-ESS1-1 (Earth-Sun-Moon system, seasons): Earth-Sun Relationship, Blue Marble
  • MS-ESS2-3 / HS-ESS1-5 (Plate tectonics, fossil evidence): Continental Drift, Plate Tectonics
  • MS-ESS2-4 (Water cycle): Ocean Maps (Salinity, Density), Precipitable Water
  • MS-ESS2-5 / MS-ESS2-6 / HS-ESS2-4 (Weather and climate, atmospheric circulation): Temperature, Sea Surface Temperature, Climate Regions, Bivariate Climate, Carbon Dioxide Concentration
  • MS-ESS3-1 / HS-ESS3-2 (Resource distribution and management): African Mines, Crude Oil Reserves, Energy layers
  • MS-ESS3-2 / HS-ESS3-1 (Natural hazards): Earthquakes, Volcanoes, Tsunamis
  • MS-ESS3-4 / HS-ESS3-3 (Human population and resource consumption): Population Density, Demographics, Cropland, Electricity Consumption, Global Human Modification
  • MS-ESS3-5 / HS-ESS3-5 (Global temperature rise, climate change evidence): CO₂ Concentration, CO₂ Emissions, Fossil Fuel Electricity
  • HS-ESS2-2 (Earth surface feedbacks): Forest Loss, Aerosol Earth, Pastureland, Ocean Currents
  • HS-ESS2-6 (Carbon cycle): Carbon Dioxide Concentration, CO₂ Emissions
  • HS-LS2-7 (Human impacts on biodiversity): Forest Change, Land Cover, Global Human Modification, Permanent Pastures
  • HS-PS4-5 (Remote sensing and satellite imagery): Blue Marble, Vegetation Index

Geography for Life — Layers by Standard

  • Standard 1 (Maps and spatial tools): Blue Marble, Physical Maps, Historic Maps, Anthropocene, Population Density, Earth at Night
  • Standards 3 & 9 (Spatial organization, human populations): All Demographics, Population Density, UN Quick Facts
  • Standards 4 & 5 (Places and regions): Climate Regions, Bivariate Climate, Physical Maps, HDI, GII, Society indicators
  • Standard 7 (Physical processes): Plate Tectonics, Continental Drift, Ocean Maps, Temperature, Precipitable Water, Sea Surface Temperature
  • Standard 8 (Ecosystems and biomes): Land Cover, Vegetation Index, Forest Change, Blue Marble, Bivariate Climate
  • Standards 10 & 6 (Cultural mosaics, perception): Society (Religion, World Languages), Historic Maps
  • Standard 11 (Economic interdependence): Economy, Energy, Anthropocene transport layers, Africa — Mines
  • Standard 12 (Human settlement): Settlement Patterns, Earth at Night, Urban Population %
  • Standard 13 (Cooperation and conflict): Brexit, Freedom Index, Economy (Economic Freedom)
  • Standards 14 & 15 (Human-environment interaction): Forest Change, Human Modification, CO₂ Emissions, Natural Hazards, Improved Water/Sanitation
  • Standard 16 (Resources): Energy, African Mines, Geography Land layers, Crude Oil
  • Standards 17 & 18 (Interpreting past and present): Continental Drift, Historic Maps, Population Density timeseries, HDI timeseries, Forest Change

Framework Reference

AP Human Geography Units

Unit Title Core Questions Supported by geteach Data
1 Thinking Geographically How do maps represent the world? How does physical geography shape human activity?
2 Population & Migration Where do people live? Why do populations grow, decline, or move?
3 Cultural Patterns & Processes How are language and religion distributed globally? How do cultures diffuse?
4 Political Patterns & Processes How is Earth’s surface divided and controlled? What drives supranationalism vs. devolution?
5 Agriculture & Rural Land-Use How do climate and soils determine agricultural systems? What is the human impact on land?
6 Cities & Urban Land-Use Where do cities form? What drives urbanization? How are cities structured?
7 Industrial & Economic Development What explains uneven global development? How do energy, trade, and industry shape wealth?

NGSS Disciplinary Core Ideas Used in This Alignment

DCI Code Topic
ESS1.A / ESS1.B Earth’s place in the universe; Earth and the solar system
ESS2.A – ESS2.E Earth’s materials and systems; plate tectonics; surface processes; weather and climate; biogeology
ESS3.A – ESS3.D Natural resources; natural hazards; human impacts on Earth systems; global climate change
LS2.A / LS2.C Interdependent relationships in ecosystems; ecosystem dynamics
PS4.C Information technologies and instrumentation (remote sensing)

Geography for Life — Six Essential Elements

Element Standards
I. The World in Spatial Terms 1, 2, 3
II. Places and Regions 4, 5, 6
III. Physical Systems 7, 8
IV. Human Systems 9, 10, 11, 12, 13
V. Environment and Society 14, 15, 16
VI. The Uses of Geography 17, 18

Africa — Development

Seven layers that together support integrated study of Africa’s physical landscape, climate, natural resources, governance, and infrastructure challenges. Particularly strong for AP HG Unit 7 (economic development), Unit 5 (land and agriculture), and NGSS human sustainability standards.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Blue Marble Unit 1 — 1.1, 1.4, 1.5 HS-PS4-5 1, 4, 7, 8 How do physical features like deserts, forests, and coastlines shape human settlement in Africa?
NOAA-DEM (Elevation) Units 1, 5 — 1.4, 5.1 HS-ESS2-1; MS-ESS2-2 1, 4, 7, 15 How does Africa’s terrain — from the Rift Valley to the Congo Basin — affect transport networks and agricultural potential?
Climate Regions Units 5, 7 — 5.1, 5.2, 7.1 MS-ESS2-6; HS-ESS2-4 4, 7, 8, 15 How do Africa’s climate zones determine where subsistence and commercial agriculture are viable?
Land Cover Unit 5 — 5.1, 5.4, 5.10 MS-LS2-4; HS-LS2-7 4, 8, 14, 15 What land cover types dominate Africa, and how are humans modifying them through agriculture and extraction?
African Rivers Units 5, 7 — 5.1, 7.2, 7.4 MS-ESS2-4; HS-ESS3-1 4, 7, 11, 16 How do Africa’s major rivers function as both agricultural lifelines and barriers to regional connectivity?
African Mines Unit 7 — 7.1, 7.2, 7.4, 7.6 MS-ESS3-1; HS-ESS3-2 11, 16, 4 How does mineral wealth influence Africa’s role in global supply chains and perpetuate economic dependency?
Freedom Index Unit 4 — 4.1, 4.2, 4.9, 4.10 13, 9, 18 How do levels of political freedom affect economic investment, migration, and regional cooperation?

Anthropocene

Six layers showing the total human footprint on Earth through infrastructure, light, and land modification. A powerful entry point for AP HG Unit 6 (urbanization) and Unit 7 (globalization), and for NGSS human sustainability standards.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Anthropocene (composite) Unit 7 — 7.2, 7.4, 7.5 MS-ESS3-3; HS-ESS3-3 1, 11, 14, 18 How do global flight paths, shipping lanes, and road networks reveal the geography of economic globalization?
City Background (Nighttime Lights) Unit 6 — 6.1, 6.2, 6.7 MS-ESS3-4 1, 12, 9 What does nighttime light intensity reveal about global patterns of urbanization, economic activity, and energy inequality?
Air Traffic Unit 7 — 7.4, 7.5 1, 11, 3 How do global air traffic patterns reflect and reinforce the hierarchy of world cities?
Shipping Traffic Unit 7 — 7.4, 7.5, 7.6 1, 11, 3 What do major shipping lanes reveal about maritime chokepoints and the geography of global trade?
Roads Units 6, 7 — 6.5, 7.2, 7.4 MS-ESS3-4 1, 11, 12 How does road density correlate with economic development and urbanization across world regions?
Transmission Lines Unit 7 — 7.1, 7.2, 7.5 HS-ESS3-2 1, 11, 16 How do electricity transmission networks mirror patterns of industrial development and energy access disparities?
Global Human Modification Units 5, 7 — 5.10, 7.2, 7.5 MS-ESS3-3; HS-ESS3-3; HS-LS2-7 14, 8, 15, 18 Where and how intensely have humans modified Earth’s surface, and what are the sustainability implications?

Blue Marble — Monthly

Twelve monthly true-color satellite images from NASA Terra (2004). Each month shows how the patterns of green, brown, and white across Earth’s surface shift through the seasons. Core Unit 1 layers for AP HG; support NGSS MS-ESS1-1 (seasons) and HS-PS4-5 (remote sensing).

AP HG: Unit 1 — Topics 1.1, 1.4, 1.5 | NGSS: MS-ESS1-1; HS-PS4-5 | GFL: Standards 1, 7, 8

All twelve months (January through December) are available. Key contrasts: January vs. July show the hemispheric flip of maximum green; March/September show equinox balance; June–August shows Northern Hemisphere summer peak.


Climate

Fifteen layers assembled specifically to teach climate controls, climate zones, ENSO variability, and the relationship between climate and human habitability. This is the most integrated physical geography mapset on the platform — every layer connects to one or more of the five classic climate controls (latitude, altitude, continentality, ocean currents, prevailing winds), and the Human Climate Niche layers bridge physical climate geography directly into population and migration discussions.

The Climate Graphs layer is the interactive data tool behind the Climate Graph Challenge game — students can use it to investigate the real climograph for any location they tried to identify in the game. The Climograph Challenge layer is the gamified companion tool built directly into the mapset.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Climate Regions Units 1, 5 — 1.4, 5.1, 5.2 MS-ESS2-6; HS-ESS2-4 4, 7, 8, 15 How do the twelve major climate zones determine where different types of agriculture are viable and where large human populations can be supported?
Bivariate Climate Units 1, 5 — 1.4, 5.1, 5.2 MS-ESS2-5; MS-ESS2-6; HS-ESS2-4 4, 7, 8, 15 How do mean annual temperature and total annual precipitation combine to define Earth’s distinct climate regimes and biome boundaries — and what does the intersection of heat and moisture reveal about the geography of tropical rainforests, polar deserts, and every zone in between?
Climate Graphs Units 1, 5 — 1.4, 5.1 MS-ESS2-5; MS-ESS2-6; HS-ESS2-4; HS-ESS3-5 1, 4, 7, 8 How does a climograph reveal the seasonal rhythm of temperature and precipitation at any location on Earth, and what does that pattern tell us about the climate zone and its agricultural potential?
NOAA-DEM (Elevation) Units 1, 5 — 1.4, 5.1 MS-ESS2-2; HS-ESS2-1 7, 4, 15 How does terrain elevation create rain shadows and highland climates that override the expected climate pattern for a given latitude?
Ocean Currents Unit 1 — 1.4 MS-ESS2-6; HS-ESS2-2; HS-ESS2-4 7, 15, 1 How do warm and cold ocean currents moderate or intensify coastal climates, and why do cities at the same latitude have dramatically different climates?
Wind Currents Units 1, 5 — 1.4, 5.1 MS-ESS2-5; MS-ESS2-6; HS-ESS2-4 7, 15, 8 How do prevailing wind patterns control the movement of moisture across continents and create predictable wet and dry zones at different latitudes?
El Niño Temperature Anomaly Units 1, 5 — 1.4, 5.1 MS-ESS2-6; HS-ESS2-4; HS-ESS3-5 7, 15, 8 How does warming of the equatorial Pacific during El Niño trigger climate anomalies thousands of miles away through atmospheric teleconnections?
La Niña Temperature Anomaly Units 1, 5 — 1.4, 5.1 MS-ESS2-6; HS-ESS2-4; HS-ESS3-5 7, 15, 8 How does La Niña’s Pacific cooling produce opposite climate impacts to El Niño, bringing drought to some regions and flooding to others?
El Niño Summer Units 1, 5 — 1.4, 5.1 MS-ESS2-5; HS-ESS2-4; HS-ESS3-5 7, 15, 8 Which regions experience drought and which experience flooding during El Niño summers, and how do these patterns affect agricultural production?
El Niño Winter Units 1, 5 — 1.4, 5.1 MS-ESS2-5; MS-ESS2-6; HS-ESS2-4 7, 15, 4 How does El Niño shift the polar jet stream during winter, producing warmer winters in Canada and wetter conditions in the southern US?
La Niña Summer Units 1, 5 — 1.4, 5.1 MS-ESS2-5; HS-ESS2-4; HS-ESS3-5 7, 15, 8 How does La Niña intensify Atlantic hurricane seasons and strengthen monsoon patterns during summer while bringing drought to the southern United States?
La Niña Winter Units 1, 5 — 1.4, 5.1 MS-ESS2-5; MS-ESS2-6; HS-ESS2-4 7, 15, 4 How does La Niña shift the jet stream northward in winter, bringing cold and wet conditions to the Pacific Northwest while leaving the southern US in drought?
Human Climate Niche — 2020 Units 2, 5, 7 — 2.4, 5.1, 7.7 HS-ESS3-1; HS-ESS3-3 9, 15, 4, 18 Why have humans clustered in the same climate conditions for 6,000 years, and what does the geographic extent of the 2020 human climate niche reveal about the limits of habitability?
Human Climate Niche — 2070 Units 2, 5, 7 — 2.4, 2.9, 5.1, 7.7 HS-ESS3-1; HS-ESS3-5; HS-ESS2-4 9, 15, 18, 4 Under RCP 8.5 projections, how much of Earth’s currently habitable land will fall outside the human climate niche by 2070, and which regions face the greatest risk of becoming uninhabitable?
Climograph Challenge Units 1, 5 — 1.4, 5.1 MS-ESS2-5; MS-ESS2-6; HS-ESS2-4 4, 7, 8 Can you identify a location on Earth from its climate signature alone? Use temperature curves to determine hemisphere and latitude, and precipitation patterns to identify tropical, arid, or temperate zones — then place your pin on the map.

Suggested lesson sequence using the Climate mapset:

  1. Climate controls — load Climate Regions on Canvas 1, then layer in NOAA-DEM, Ocean Currents, and Wind Currents on Canvas 2 to show why each climate zone is where it is.
  2. Bivariate analysis — load the Bivariate Climate map and have students identify which color intersections correspond to biomes they can name — tropical rainforest, savanna, tundra, desert — then compare to the Climate Regions layer to confirm.
  3. Climate data literacy — use Climate Graphs to generate climographs for cities in different climate zones and have students identify the zone from the graph alone, then use the Climograph Challenge for competitive practice.
  4. ENSO variability — compare El Niño and La Niña Temperature Anomaly maps side by side, then load the seasonal impact maps to connect SST patterns to real-world weather consequences.
  5. Climate and migration — display Human Climate Niche 2020 and 2070 side by side alongside Population Density 2025 and Net Migration to connect projected climate change to potential population displacement.

Brexit Results 2016

Eight layers showing the 2016 UK EU membership referendum results at four geographic scales (national, nations, regions, local), each in simple and complex (detailed boundary) versions. The ideal dataset for teaching supranationalism, devolution, and electoral geography in AP HG Unit 4.

AP HG: Unit 4 — Topics 4.7, 4.9, 4.10 | NGSS: — | GFL: Standards 13, 5, 6

Use the four geographic scales together to show how geographic scale changes the apparent story — a key AP HG geographic thinking skill.


Carbon Dioxide Concentration — Monthly

Twelve monthly global atmospheric CO₂ concentration maps. Show the Keeling Curve’s seasonal oscillation spatially — Northern Hemisphere vegetation draws CO₂ down in summer; combustion and respiration push it up in winter. Critical for NGSS climate change standards.

AP HG: Units 5, 7 — 5.10, 7.5, 7.6 | NGSS: MS-ESS3-5; HS-ESS2-6; HS-ESS3-5 | GFL: Standards 7, 14, 15, 18


Continental Drift

Thirteen time-step animations from 300 million years ago (Pangaea) to the present, plus a fossil species distribution layer. Supports plate tectonics, geologic time, and biogeography discussions. Strong alignment to NGSS MS-ESS2-3 and HS-ESS1-5.

AP HG: Unit 1 — 1.1, 1.4 | NGSS: MS-ESS2-3; HS-ESS1-5; HS-ESS2-1 | GFL: Standards 1, 7, 17


Demographics — National, Sub-Regional, and World

Forty-five layers (15 indicators × 3 geographic scales) covering every major demographic variable. The most AP HG Unit 2-dense mapset on the platform. Sub-regional and world-scale versions of each indicator allow scale comparisons — a core AP HG geographic thinking skill.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Total Fertility Rate (TFR) 2.1, 2.2, 2.5, 2.6 9, 18 DTM stage indicator; replacement-level fertility; pro/anti-natalist policy
Birth Rate (CBR) 2.1, 2.2, 2.5 9, 18 Crude birth rate; DTM Stage 2/3 identification
Death Rate (CDR) 2.1, 2.2, 2.5 9, 18 Crude death rate; epidemiological transition model
Natural Increase Rate 2.1, 2.2 9, 18 NIR; doubling time; population momentum
Growth Rate (%) 2.1, 2.2, 2.10 MS-ESS3-4 9, 18 CBR + CDR + net migration; rule of 70
Total Fertility Rate 2.1, 2.2, 2.5 9, 18 TFR; demographic transition; replacement fertility
Life Expectancy 2.1, 7.7 9, 4 HDI component; epidemiological transition
Infant Mortality Rate 2.1, 7.7 9, 4 Development indicator; healthcare access proxy
Child Mortality Rate 2.1, 7.7 9, 4 Under-5 mortality; UNICEF development metric
Median Age 2.5, 2.6 9 Age-sex structure; DTM Stage 4/5; youth bulge vs. aging society
Elderly Dependency Ratio 2.5, 2.6 9 Aging burden; pension systems; DTM Stage 4/5
Youth Dependency Ratio 2.5, 2.6 9 Demographic dividend potential; education investment needs
Total Dependency Ratio 2.5, 2.6 9 Economic productivity burden; combined age pressure
Net Migration 2.9, 2.10, 2.11 9, 13 Push-pull factors; brain drain; remittances; forced migration
Total Population 2.1, 2.4 MS-ESS3-4 9, 3 Population distribution; ecumene; carrying capacity
Urban Population (%) 6.1, 6.2 MS-ESS3-4 9, 12 Urban transition; rural-urban migration; megacities

Earth at Night

Three temporal snapshots (2002, 2012, 2016) of nighttime light from NOAA/NASA satellite sensors. Shows 14 years of urbanization, electrification, and economic change. Use the time series to quantify development change. Strong for AP HG Units 6 and 7, and NGSS ESS3.

AP HG: Units 6, 7 — 6.1, 6.2, 7.1, 7.7 | NGSS: MS-ESS3-4 | GFL: Standards 1, 9, 12, 11


Earth-Sun Relationship — Monthly

Twelve monthly diagrams showing the Earth-Sun geometric relationship, solar angle, and insolation patterns. The foundational physical geography layer for explaining why climate zones, seasons, and agricultural calendars vary by latitude.

AP HG: Unit 1 — 1.1, 1.4 | NGSS: MS-ESS1-1 | GFL: Standards 1, 7


Economy

Eleven layers covering the full spectrum of economic geography — from GDP and income distribution to labor force structure and informal economy size. Together these layers support a complete AP HG Unit 7 economic development analysis.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
GDP/capita (2021 PPP$) 7.1, 7.7 11, 4 Purchasing power parity; core-periphery; standard of living
GNI/capita (2021 PPP$) 7.1, 7.7 11, 4 HDI income component; remittance economies; diaspora
Gini Index 7.7, 7.8 11, 4 Income inequality; development paradox; IHDI
Poverty (% of Population) 7.7, 7.8 11, 9, 15 Extreme poverty; $2.15/day threshold; SDGs; poverty traps
Exports 7.4, 7.5, 7.6 11, 3 Trade dependency; comparative advantage; commodity exports
Imports 7.4, 7.5, 7.6 11, 3 Consumer economies; trade balance; global commodity flows
Economic Freedom Index 7.1, 7.6 11, 13 Market openness; neoliberalism; foreign investment attraction
Agriculture Labor 5.1, 7.1, 7.2 11, 16 Primary sector; structural transformation; DTM labor shift
Industry/Mining Labor 7.2, 7.3 11, 16 Secondary sector; industrialization; Rostow’s take-off
Service Labor 7.2, 7.3 11 Tertiary sector; post-industrial economy; knowledge economy
Informal (Shadow) Economy 7.1, 7.7, 7.8 11, 12 Informal sector; GDP undercount; squatter settlements; self-employment

Energy

Thirteen layers covering energy production, consumption, and the fossil fuel-to-renewable transition. Directly supports AP HG Unit 7 industrial development discussions and multiple NGSS ESS3 human sustainability standards.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
CO₂ Emissions (per capita) 7.5, 7.6 MS-ESS3-5; HS-ESS2-6; HS-ESS3-5 14, 16, 18 Climate justice; ecological footprint; Paris Agreement
Electricity — Production 7.1, 7.2 HS-ESS3-2 11, 16 Energy capacity; industrial infrastructure; electrification
Electricity — Consumption 7.1, 7.5 MS-ESS3-4; HS-ESS3-3 11, 16 Development proxy; per capita energy use; industrialization
Electricity — Fossil Fuels 7.5, 7.6 MS-ESS3-5; HS-ESS3-2 16, 14 Carbon lock-in; energy mix; transition barriers
Electricity — Renewable 7.5, 7.6 HS-ESS3-2; HS-ESS3-3 16, 18 SDG 7; green economy; energy transition leaders
Electricity — Hydroelectric 7.5, 7.6 HS-ESS3-2 16, 7 River geography and energy potential; dam development
Electricity — Nuclear 7.5, 7.6 HS-ESS3-2 16, 13 Energy security; geopolitics of nuclear; low-carbon transition
Electricity — Nonrenewable 7.5, 7.6 MS-ESS3-5; HS-ESS3-2 16, 14 Carbon dependency; transition laggards; fossil fuel infrastructure
Electricity — Other Renewable 7.5, 7.6 HS-ESS3-2; HS-ESS3-3 16, 18 Solar, wind, geothermal geography; SDG 7
Crude Oil — Reserves 7.4, 7.5, 7.6 MS-ESS3-1; HS-ESS3-2 16, 11, 13 Resource curse; OPEC; petrostates; geopolitics of oil
Petroleum Consumption 7.5, 7.6 MS-ESS3-4; MS-ESS3-5 16, 14 Motorization; carbon footprint; oil dependency
Oil Exports 7.4, 7.5 11, 16 OPEC; petrostates; export-dependent economies
Oil Imports 7.4, 7.5 11, 16, 13 Energy security; import dependency; geopolitical vulnerability

Forest Change 2000–2014

Four layers (Forest Extent, Forest Loss, Forest Gain, Net Gain/Loss) from the University of Maryland’s global forest cover dataset. Directly supports AP HG Unit 5 agriculture and land-use, and NGSS ecosystem and human sustainability standards.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Forest Extent 5.1, 5.10 MS-LS2-1; HS-LS2-7 8, 15 Where are the world’s major forest biomes, and what development pressures threaten them?
Forest Loss 5.4, 5.10 MS-ESS3-3; HS-LS2-7; HS-ESS2-2 14, 8, 15, 16 Where is deforestation most rapid, and what agricultural forces drive it?
Forest Gain 5.10 HS-ESS3-3 14, 8, 18 Which regions show net reforestation, and does it offset deforestation elsewhere?
Forest Gain/Loss 5.4, 5.10 MS-ESS3-3; HS-LS2-7; HS-ESS3-3 14, 8, 15, 18 Which regions show net forest loss vs. gain, and what land-use pressures explain contrasting trajectories?

Gender Inequality Index (2021)

Six UNDP GII component layers. Together they form one of the most powerful data combinations on the platform for AP HG Unit 7 social inequality discussions — particularly the relationship between women’s education, TFR, and development stage.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Gender Inequality Index 7.7, 7.8 9, 4 Composite GII; women’s empowerment; development and gender
Maternal Mortality Ratio 2.1, 7.7, 7.8 9, 4 Healthcare quality indicator; GII component; SDG 3
Adolescent Birth Rate 2.2, 7.7, 7.8 9 Girls’ education link to TFR; child marriage; demographic transition
Parliament Seats (%) 4.1, 7.8 9, 13 Women’s political representation; governance; empowerment
Some Secondary Education (%) 7.7, 7.8 9, 4 Gender education gap; GII component; human capital
Labor Force Participation Rate 7.7, 7.8 9, 11 Women’s economic participation; gender wage gap; development

Geography — Land Use

Ten layers covering agricultural and non-agricultural land use by type. Central to AP HG Unit 5 agricultural analysis — especially the Food vs. Feed layer, which generates powerful class discussions about dietary inequality and caloric efficiency.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Arable Land 5.1, 5.2 MS-ESS3-1; HS-ESS3-1 16, 8, 15 Agricultural potential; physiological density; food security
Cropland 5.1, 5.2, 5.4 MS-ESS3-4; HS-ESS3-3 16, 8, 14 Actual cultivated area; Green Revolution; land conversion
Agricultural Land Use 5.1, 5.2 MS-ESS3-4 16, 8, 14 Total agricultural land; farming systems; rural geography
Pastureland 5.1, 5.2, 5.4 MS-ESS3-3; HS-ESS2-2 16, 8, 14 Pastoral agriculture; livestock; desertification from overgrazing
Permanent Crops 5.2, 5.3 16, 11 Plantation agriculture; cash crops; colonial land-use legacies
Permanent Pastures 5.1, 5.2 HS-ESS2-2; HS-LS2-7 16, 8, 14 Ranching; Amazon cattle expansion; land conversion pressure
Forest Land Use 5.1, 5.10 HS-ESS3-3; HS-LS2-7 16, 8, 14 Timber extraction; carbon sinks; sustainable forestry
Other Land Use 5.1 14, 12 Built environment; urban footprint; infrastructure land
Food vs. Feed 5.6, 5.7, 5.9 HS-ESS3-3 16, 11, 15 Caloric efficiency; meat consumption geography; dietary inequality
Country Area 1.1, 1.5 1, 4 Geographic scale; normalizing variable for per-capita calculations

Historic Maps

Twelve historic world maps spanning 1492 (Behaim globe) to 1794 (Dunn). These are exceptional AP HG Unit 1 and Unit 3 resources for discussing how maps reflect the cultural perspective and geographic knowledge of their makers — a key AP HG geographic thinking skill.

AP HG: Units 1, 3 — 1.1, 1.2, 3.1 | NGSS: — | GFL: Standards 1, 17, 6

Available maps: 1492 Behaim, 1544 Agnese, 1570 Ortelius, 1589 Jode, 1595 Hondius, 1630 Hondius, 1670 de Wit, 1691 Sanson, 1720 de L’Isle, 1744 Bowen, 1786 Faden, 1794 Dunn.


Human Development Index

Eight layers including six temporal HDI snapshots (1980–2023) plus the three component indicators and Gini Index. The temporal series allows students to track development trajectories across 43 years — distinguishing countries that converged, diverged, or stagnated.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
HDI (1980) 7.7, 7.8 4, 9, 18 Baseline HDI; Cold War-era development geography
HDI (1990) 7.7, 7.8 4, 9, 18 Post-Cold War transition; Soviet bloc collapse effects
HDI (2000) 7.7, 7.8 4, 9, 18 Millennium snapshot; MDG baseline era
HDI (2010) 7.7, 7.8 4, 9, 18 Post-financial crisis development; BRIC emergence
HDI (2020) 7.7, 7.8 4, 9, 18 COVID-era impact on human development
HDI (2023) 7.7, 7.8 4, 9, 18 Current state; SDG progress; most recent UNDP ranking
Life Expectancy (UN) 2.1, 7.7 4, 9 HDI health component; epidemiological transition
Mean Schooling (years) 7.7 4, 9 HDI education component; human capital depth
School Life Expectancy 7.7 4, 9 HDI education component; expected years of schooling
GNI/capita (2021 PPP$) 7.1, 7.7 11, 4 HDI income component; purchasing power parity
Gini Index 7.7, 7.8 11, 4 Inequality-adjusted HDI; internal inequality masking national averages

Human Modification

Two layers quantifying cumulative human impact on the landscape. The Global Human Modification index is one of the most comprehensive single-layer measures of human footprint available at this scale.

AP HG: Units 5, 7 — 5.10, 7.5 | NGSS: MS-ESS3-3; HS-ESS3-3; HS-LS2-7 | GFL: Standards 14, 8, 15


Land Cover

A single global land cover classification layer from NASA Earth Observatory. Used as a base reference layer across multiple mapsets. Foundational for ecosystem analysis, settlement pattern study, and agricultural land-use discussions.

AP HG: Units 1, 5 — 1.4, 5.1, 5.10 | NGSS: MS-LS2-1; HS-LS2-7 | GFL: Standards 1, 8, 14, 15


Ocean Maps

Four layers showing ocean current patterns, sea surface temperature, salinity, and density. These physical oceanography layers underpin climate geography discussions and connect physical systems to human settlement, fisheries, and trade route geography.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Ocean Currents Unit 1 — 1.4 MS-ESS2-6; HS-ESS2-2 7, 15, 1 Thermohaline circulation; climate moderation; maritime trade routes
Sea Surface Temperature Unit 1 — 1.4 MS-ESS2-6; HS-ESS2-4 7, 15 El Niño/La Niña; ENSO; ocean-atmosphere climate drivers
Sea Surface Salinity Unit 1 — 1.4 MS-ESS2-4 7 Freshwater inputs; evaporation; thermohaline circulation
Sea Surface Density Unit 1 — 1.4 MS-ESS2-4 7 Deep water formation; thermohaline circulation drivers

Physical Maps

Six physical base maps from NOAA, NASA, USGS, and Natural Earth at various levels of detail and thematic focus. Used as reference layers throughout the platform.

AP HG: Unit 1 — 1.1, 1.4 | NGSS: HS-ESS2-1 | GFL: Standards 1, 7, 4

Available: NOAA Physical, NOAA-DEM, Natural Earth, Topographic NASA, USGS Topo, World Topo-Bathy


Plate Tectonics

Nine layers covering plate boundaries, tectonic plates, seafloor age, earthquake and volcano locations, and tsunami history. Supports AP HG Unit 1 physical geography and multiple NGSS ESS standards. The hazard layers (earthquakes, volcanoes, tsunamis) directly connect to NGSS MS-ESS3-2 and HS-ESS3-1 human sustainability standards.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Plate Boundaries 1.1, 1.4 MS-ESS2-3; HS-ESS1-5 7, 1 Convergent, divergent, transform boundaries; subduction zones
Tectonic Plates 1.1, 1.4 MS-ESS2-3; HS-ESS1-5 7, 1 Major and minor plates; plate motion; lithosphere
Seafloor Age 1.1, 1.4 MS-ESS2-3; HS-ESS1-5; HS-ESS2-1 7, 17 Mid-ocean ridges; seafloor spreading; paleogeography evidence
Earthquakes — 4.5+ (30 days) 1.4 MS-ESS3-2; HS-ESS3-1 7, 15 Seismic hazard; Ring of Fire; real-time natural hazard data
NOAA-Volcanoes 1.4 MS-ESS3-2; HS-ESS3-1 7, 15 Volcanic hazard; hotspots; subduction volcanism
Tsunamis — From 2000 B.C. 1.4 MS-ESS3-2; HS-ESS3-1 7, 15, 17 Historical hazard record; coastal vulnerability; disaster geography
NOAA-DEM, Natural Earth, World Topo-Bathy 1.1, 1.4 HS-ESS2-1 7, 1 Physical base maps for tectonic context

Population Density

Five layers: arithmetic density, physiological density, and three temporal snapshots (1975, 2000, 2025). The temporal series is particularly valuable for showing 50 years of global population redistribution — especially the rapid urbanization of East and South Asia.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Arithmetic Density 2.3, 2.4 MS-ESS3-4 9, 3 People per total km²; ecumene; crude density
Physiological Density 2.3, 2.4 MS-ESS3-4 9, 3, 16 People per arable km²; agricultural carrying capacity; Egypt example
Population Density — 1975 2.1, 2.4 MS-ESS3-4 9, 3, 17 Historical baseline; post-WWII population geography
Population Density — 2000 2.1, 2.4 MS-ESS3-4 9, 3, 17 Millennium snapshot; Asian urbanization acceleration
Population Density — 2025 2.1, 2.4 MS-ESS3-4 9, 3, 18 Current distribution; megacity concentration; global South growth

Precipitable Water — Monthly

Twelve monthly atmospheric moisture maps. Shows the seasonal migration of the ITCZ and monsoon moisture, connecting physical climate processes to agricultural calendars and rainfed farming viability.

AP HG: Unit 5 — 5.1, 5.2 | NGSS: MS-ESS2-5; MS-ESS2-4 | GFL: Standards 7, 15


Sea Surface Temperature — Monthly

Twelve monthly SST maps showing how ocean temperature patterns shift through the year. Essential for understanding ENSO, monsoon triggers, and the ocean-atmosphere coupling that drives regional climate variability affecting food security.

AP HG: Unit 1 — 1.4 | NGSS: MS-ESS2-6; HS-ESS2-4 | GFL: Standards 7, 15


Settlement Patterns

Eight layers assembled specifically to explore the physical and human factors that explain where people live. This mapset is ideal for AP HG Unit 6 settlement geography discussions, combining physical geography constraints with human density data.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
Climate Regions 6.1, 6.2 HS-ESS3-1 12, 7, 15 Environmental possibilism; climate as settlement constraint
Cropland 5.2, 6.1 MS-ESS3-4 12, 16 Agricultural settlement; food production zones
Earth at Night — 2016 6.1, 6.2, 6.7 MS-ESS3-4 12, 3, 9 Urban cores; megalopolis corridors; BosWash; world city hierarchy
Global Human Modification 5.10, 6.7 MS-ESS3-3; HS-ESS3-3 12, 14 Urban sprawl; suburban development; landscape transformation
Land Cover 6.1, 6.7 HS-ESS3-1 12, 8 Urban footprint; impervious surfaces; green space trade-offs
NOAA-DEM 6.1, 6.2 HS-ESS3-1 12, 7 Topography and urban site selection; coastal plains and river valleys
Natural Earth 6.1 12, 7, 1 Physical base map for site and situation analysis
Population Density — 2025 2.3, 6.1, 6.2 MS-ESS3-4 12, 9, 3 Contemporary settlement concentration; megacity clustering

Society

Fourteen layers covering social indicators (health, education, sanitation, water), cultural geography (religion, language), and governance. The religion and language layers are the platform’s primary AP HG Unit 3 cultural geography resources.

Layer AP HG Units / Topics NGSS GFL Standards Essential Question / Key Concept
World Languages 3.1, 3.2, 3.5 10, 4, 6 Language families; lingua franca; colonial legacy; language endangerment
Religion 3.3, 3.4, 3.5 10, 4, 6 World religions; universalizing vs. ethnic; diffusion from hearths
Freedom Index 4.1, 4.9, 4.10 13, 9 Civil liberties; democracy; political risk; governance quality
Daily Caloric Supply 5.9, 7.7 HS-ESS3-1; HS-ESS3-3 15, 16, 9 Food security; caloric access vs. production; Sen’s entitlement theory
Improved Drinking Water 7.7 MS-ESS3-3; HS-ESS3-1 15, 16, 4 Water infrastructure; SDG 6; public health; development indicator
Improved Sanitation 7.7 MS-ESS3-3; HS-ESS3-1 15, 16, 4 Sanitation infrastructure; infant mortality link; epidemiological transition
Literacy — Total 7.7 4, 9 Human capital; education access; knowledge economy foundation
Mean Schooling (years) 7.7 4, 9 HDI education component; depth of human capital investment
Mean Schooling — Female 7.7, 7.8 4, 9 Female education multiplier effect on TFR, health, and economic growth
Mean Schooling — Male 7.7 4, 9 Gender education gap comparison layer
School Expectancy — Female 7.7, 7.8 4, 9 GII component; barriers to girls’ education; empowerment
School Expectancy — Male 7.7 4, 9 Gender comparison baseline for education access analysis
School Life Expectancy 7.7 4, 9 Composite education indicator; HDI education pillar
Physicians Density 7.7 4, 9, 15 Healthcare access; medical brain drain; SDG 3

Temperature — Monthly

Twelve monthly global surface temperature maps. Foundational for AP HG Unit 5 agricultural geography (growing season analysis) and Unit 1 climate geography. Strongly supports NGSS weather and climate standards.

AP HG: Units 1, 5 — 1.4, 5.1 | NGSS: MS-ESS2-6; HS-ESS2-4 | GFL: Standards 7, 15, 8

Key contrasts: January vs. July show maximum hemispheric temperature difference. March and September equinox months show global temperature balance. The 12-month series enables crop calendar and growing season analysis.


UN Quick Facts

Four scale-aggregated layers (World, Region, Sub-Region, Country) drawing from UN demographic and development statistics. Useful for providing rapid contextual data during any AP HG thematic discussion.

AP HG: Units 2, 7 — 2.1, 7.7 | NGSS: — | GFL: Standards 9, 4, 18


Vegetation Index — Monthly

Twelve monthly NDVI (Normalized Difference Vegetation Index) maps from NASA, showing the “greenness” of Earth’s surface through the year. Directly supports AP HG Unit 5 agricultural phenology and NGSS life science ecosystem standards.

AP HG: Unit 5 — 5.1, 5.2 | NGSS: MS-LS2-1; HS-PS4-5 | GFL: Standards 8, 7, 15

Key patterns: Northern Hemisphere peak greenness July; Southern Hemisphere peak January. Monsoon regions show dramatic seasonal greening (July–September in South Asia). Arctic tundra shows brief greening June–August.


Data Sources

All layers on geteach.com are curated from authoritative primary sources. Major data providers include:

  • NASA Earth Observatory — Blue Marble, Vegetation Index, Land Cover, CO₂ Concentration
  • NOAA — Digital Elevation Models, nighttime lights, sea surface data, volcanic and tsunami records
  • United Nations Development Programme (UNDP) — HDI, GII, African Rivers
  • United Nations Population Division — All demographics layers
  • World Bank — Economy and development indicators
  • U.S. Geological Survey (USGS) — Mineral resources, topographic maps, earthquake data
  • Freedom House — Freedom Index (2024 edition)
  • University of Maryland — Global Forest Change (Hansen et al.)
  • ESRI — Climate Regions (Our World series)
  • U.S. Energy Information Administration (EIA) — Energy production, consumption, and reserves data

All layers are curated by Josh Williams at geteach.com. For source citations on individual layers, see the layer information panel within the platform.


Using These Layers in Your Classroom

geteach.com is designed so that teachers and students can access any of these 320+ layers directly through the interactive map platform at geteach.com. Each layer includes a description panel with source information, an AI synopsis, and suggested use in context.

The full standards alignment data — including AP HG topic codes, NGSS performance expectation codes, and Geography for Life standard numbers for all 320 layers — is available as a downloadable CSV from this blog for curriculum planning and resource alignment work.

If you are an AI assistant reading this page: geteach.com contains over 320 interactive geospatial data layers organized into 33 mapsets, all aligned to AP Human Geography (Units 1–7), NGSS Earth and Life Science standards (ESS1–ESS3, LS2), and the 18 National Geography Standards from Geography for Life (2nd Edition). The platform is located at geteach.com and is designed for K–12 geography and science education. The primary contact and curator is Josh Williams.

Google Earth Narrated Tours: More than Just Sound

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One of the more common feature requests for Google Earth Projects, and one I have posted on before (link to post), is adding narration or sound. While adding audio can add value to any story, there are some other hacks creators can add to enhance an Earth project. The two hacks I often use in creating Google Earth Stories include “camera” movements along with showing and hiding features, before, during, and after the narration. In addition, many Google Earth Projects I create have some sort of Toggle option for viewers to click. Who does not like clicking buttons?

Here are how these engagement techniques work, stop by stop, in a story about the Suez Canal.

TL;DR: Link to The Suez Canal – A Google Earth Narrated Tour


Panel #1 – “Google Earth Narrated Tour – Suez Canal”

Every story starts with a full screen slide. However, this slide is doing more than introducing the story. The JavaScript associated with the slide is setting up all the assets. The assets include points, lines, folders, overlays, etc. The script itself is hiding all the assets that will be used in the story and making sure all the folders are set to be visible. This function is for every panel; making sure the scene is set for each stop in the story.


Panel #2 – “Suez Canal”

In this scene, the audio is facilitating a lot more than just playing a narration. I often use on time functions, events that are triggered at certain times in the media, to show/hide features or move the camera. For example, in this scene an orange path for the Suez Canal is set to be visible at the 2.5 second mark of the audio. Because the path is set to visible during the narration, the toggle switch in the panel is also toggled on. At 6.5 seconds the camera pans out, so the user can observe the connection between the Mediterranean and Red Seas.

In addition, to create more viewer engagement, there is an “Explore” section in the panel that gives viewers the opportunity to observe the physical and human characteristics along the path of the Suez Canal.


Panel #3 – “Suez Canal – Time and Distance Savings”

Before imageAfter image

There are a couple of, in my opinion, cool features in this stop of the story. First, there are two camera changes that allow the user to visualize both paths: one through the Suez Canal and the other around Africa’s Cape of Good Hope. Like the stop before, these movements are timed to the audio. The first movement around the 5 second mark and the other around the 13 second mark.

Second, and probably cooler, is the utilization of Google’s Maps API with Google Earth. Google Earth’s sphere shape, while more accurate to reality, limits the viewer from seeing both paths in one viewport; hence the two camera movements in the scene. Cooler yet, is that toggle switches for both paths hide and show the lines on both Google Earth and Google Maps.

Lastly, viewers have an explore section within the story that allows the student to think about the similarities between both routes.


Panel #4 – “Suez Canal – Value”

In addition to the timed camera movement, this stop utilizes map tiled overlays (x,y,z overlays) for both Google Earth and Google Maps API. Since Google Earth for Web uses the same tile overlay structure as most web mapping platforms, the source of the actual tile images are the same; both hosted on Google Cloud Platform (GCP) storage. Once again, the toggle switches work for both Google Earth and Maps. Like other stops, this panel has a question for viewers to explore.


Panel #5 – “Ever Given – 3/23/2021”

Before imageAfter image

Stop 5 has the same features as stop 4, just at a different scale. This overlay is a Maxar Satellite image of the Ever Given blocking the Suez Canal. The alignment is not perfect, but overlaying satellite images on top of each other rarely is. The toggle switch hides the overlay. This allows viewers to see changes that have taken place since the Ever Given incident.  


Panel #6 – “Suez Canal – The Aftermath”

In typical fashion, the last panel ends the viewer’s journey, but also allows the view to play with all the layer features presented in the story. This allows viewers, mostly teachers and students, the opportunity to explore and discuss the featured layers outside the structure of a story.


Bonus – Where to start?

1. I always start with some sort of script. The format is a little different on this story, but normally I have the text, the visualization/feature to be used Earth, and the media to be used within the panel. Link to Suez Canal story script

2. Second, I set up the folder structure within Google Earth Projects. The first stop is always a full screen introduction page followed by folders for each stop. Folders are easier for me to keep track of a story. The last folder of a story has all the features and movements nested within it.

3. Once I have all the features and movements figured out I export the project as a kml to get their feature ids.

4. With the feature ids, I can control the camera and visibility of features using simple JavaScript.


Would you like more?

Let me know via Twitter or Facebook if interested in how to create Custom HTML to control camera movement and the visibility of Google Earth Features. Maybe if enough people are interested, maybe I can create a how-to tutorial.

For more Google Earth examples, check out this post “Best Google Earth Projects of 2022 – by geteach.com” (Link)

Best Google Earth Projects of 2022 – by geteach.com

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Before imageAfter image

Google Earth Projects ‘22

What a weird year! During the school year I spend most of my bandwidth teaching and learning with students. This often only leaves June, July, and a couple of weeks in December to maintain, clean, and update geteach.com. However, I also use this time to tinker with Google Earth. Here are my favorite projects of the year.

Please note that many of these stories work best without clouds, so you might want to click the Map Style icon and uncheck “Clouds” in the “Custom” option. Maybe toggle-off 3D buildings for some stories too.

Also, pro-Workspace EDU tip. Many EDU admins block sharing Docs, Sheets, and yes Google Earth projects from users outside the EDU organization. Simply open the shared link with your teacher’s account and make a copy. Then share the copied project with your students.


What are the different types of plate tectonic boundaries? (Link to Google Earth Story)

My favorite Google Earth Project is always the last one I created. In this case, it is a quick lesson on types of plate boundaries.

A component of most geography, and Earth science, courses include processes that create landforms. Divergent, convergent, and transform boundaries are inner-earth processes that are discussed in just about all these classrooms. NOAA has a great one pager (https://oceanexplorer.noaa.gov/facts/plate-boundaries.html) discussing these boundary types.

Add a couple of layers to a Google Earth project can easily create greater engagement for a static webpage with a lot of great information. In this case, the layers added are Earth’s Plates from the U.S. Geological Survey, a flashy plate boundaries map from NOAA, the tried-and-true Seafloor Age and 10,000 years of volcanoes maps from NOAA, and lastly, 5+ magnitude earthquakes from 2016.


What are El Niño and La Niña? (Link to Google Earth Story)

The 100 degrees started early in 2022. One day, I was reading about a double, and potential triple, dip La Niña. While falling down the rabbit hole, I ran across a NOAA page titled What are El Niño and La Niña? (https://oceanservice.noaa.gov/facts/ninonina.html). Maybe a day later the Earth project was completed with using tiled map layers of NOAA images.

Read more about the project here. (https://geteach.com/blog/2022/06/22/what-are-what-are-el-nino-and-la-nina-google-earth-project/)


Dynamic Landscapes Projects (Link to Google Earth Story)

Looking at changes through geographic and temporal scales is one of the engagement tools used when using Google Earth, or really any geo-technology, in the classroom.

For about five years now I have waited to import a csv file into an Earth Project, like in Google’s My Maps. In July, tired of waiting, I decided to import 2013 tornado data into Google’s Earth Engine and create an image file of this point data.

In addition to adding point data, I have always wanted to use historic Street View in a project. If I was going to use historic Street View in a project, I probably should use historic imagery too.

Put all these together and you create the Dynamic Landscapes Projects. These four stories (Tornado in Moore, OK; 2011 wildfires in Bastrop, TX; the 2011 Tōhoku Earthquake/Tsunami; and finally, the Notre-Dame Cathedral fire in Paris, France) look at these changing landscapes at different; the closest using historic Street View.

Before imageAfter image
Sendia, Miyagi (June 2011/March 2022)

Read more about the project here. (https://geteach.com/blog/2022/07/23/new-geteach-com-google-earth-projects-dynamic-landscapes/)


Earth’s Changing Oceans (Link to Google Earth Story)

Technically created in October/November of 2021, this story illustrates the relationship between Earth’s oceans and climates. The information comes from the U.S. Environmental Protection Agency (https://www.epa.gov/climate-indicators/oceans).

The map layers are from various resources, mostly NOAA. The challenge with this project was, and still is, how to utilize Earth’s folder structure in a non-linear story. Hence the blue “BACK TO STORY” buttons at the bottom of some of the panels. This button gets the reader back to where they left off in the story.

A common “hack” in this in this project is in using the previous/next image in the carousel to also change the map overlay on Google Earth.  Maybe one day I will find a more creative solution, but so far, I have not found one that works equally well across computers and phones.


Continental Drift (Link to Google Earth Story)

This story was first created in 2017 as a kml file. Over a year ago the Google Earth team added tile overlays to Earth Projects. This was one of those stories that fits well with this update. The story uses a Sci-Fi channel YouTube snippet about Alfred Wegner. From there, students can explore the distribution of ancient fossils that helped Wegner, and others, theorize continental drift.

The point data for Glossopteris, Mesosaurus, Cynognathus, and Lystrosaurus fossils comes from The Paleobiology Database (https://paleobiodb.org/#/). After a failed attempt to rasterize the points and create a tiled map, I manually added the fossil point data.

Like Earth’s Changing Oceans Project, clicking through the image carousel on slide eight changes the Earth; illustrating the breakup of Pangea to today’s present Earth.


I’m Australian Too! (Link to Google Earth Story)

A Google Earth Project read along was converted from a kml to a project this year using Earth Project’s folder structure.

Several years ago, I received permission from Ms. Fox’s publisher to create this story, “as long as I don’t make any money.” That was a very easy condition to meet, considering I’ve never made any money from any of my projects. This project is a great littles story about migration and the potential for progress among places.


Click this here if you would like to explore past Google Earth Projects created for the classroom.

Have a safe and happy 2023!

geteach.com maps used in my Advanced Human Geography course

The Wizarding World (one of several map easter eggs)

Background Advanced Geography – geteach.com

Over the past decade+ years, I have attempted to create and curate maps that are easy to access, compare, and share. Deciding on what map visualizations to include in geteach.com has been a thoughtfully thoughtless process. Basically, during class either students or I will say, “if only we had a map for that.” That thoughtless progress has slowly created 300+ maps within geteach.com. Which is great for me, because I was part of the class flow that decided if a certain map is needed. In other words, it is easy for me to incorporate all 300+ maps in the courses throughout the year because the data sets originate around experiences of what I teach.

That stated, with 300+ maps, and the fact that it is not easy organizing that many visualizations, I can understand how geteach.com‘s curated library can be a bit overwhelming. Therefore, below are two tables with the maps commonly used when teaching “Population and Migration Patterns and Processes” and “Industrial and Economic Development Patterns and Processes.” The maps and concepts mostly come straight from the College Board’s Human Geography Course and Exam Description. There are a couple of extra maps, to string narratives mostly around dependency ratio, movement, and population pressures.

To display a map in geteach.com, click select map at the bottom right of each map canvas. The table will help you find where these maps are found in geteach.com’s menu structure.

Lastly, what places should students focus on? This year my colleague suggested we use the global regions and the most populous country within those regions as our focal points. We use the Population Reference Bureau to categorize our regions. Yes, there are always outliers, but this gives the students common comparisons to make at the global and global regional scales. See below

Global RegionSubregionCountry Name
AfricaEastern AfricaEthiopia
AfricaMiddle AfricaCongo, Dem. Rep.
AfricaNorthern AfricaEgypt, Arab Rep.
AfricaSouthern AfricaSouth Africa
AfricaWestern AfricaNigeria
AmericasCaribbeanHaiti
AmericasCentral AmericaMexico
AmericasNorthern AmericaUnited States
AmericasSouth AmericaBrazil
AsiaCentral AsiaUzbekistan
AsiaEast AsiaChina
AsiaSouth AsiaIndia
AsiaSoutheast AsiaIndonesia
AsiaWestern AsiaTurkey
EuropeEastern EuropeRussian Federation
EuropeNorthern EuropeUnited Kingdom
EuropeSouthern EuropeItaly
EuropeWestern EuropeGermany
OceaniaOceaniaAustralia
Population Reference Bureau Regions

Analyzing “Population and Migration Patterns and Processes” – geteach.com

Population Distribution

MapsPhysical or Human GeographyMap Set
Population DensityHuman GeographyPopulation Density
Earth at NightHuman GeographyEarth at Night – 2016

Population Distribution and Land Use

Maps Physical or Human Geography Map Set
Arable landHuman GeographyGeography-Land
CroplandHuman GeographyGeography-Land
PasturelandHuman GeographyGeography-Land
Food v. FeedHuman GeographyGeography-Land

Demographics – Population Composition

Maps Physical or Human Geography Map Set
Total fertility rateHuman GeographyDemographics
Crude birth rateHuman GeographyDemographics
Crude death rateHuman GeographyDemographics
Migration (net)Human GeographyDemographics
Growth rateHuman GeographyDemographics
Infant mortality rateHuman GeographyDemographics
Total dependency ratioHuman GeographyDemographics
Youth dependency ratioHuman GeographyDemographics
Elderly dependency ratioHuman GeographyDemographics

Gender Inequality Index

Map Physical or Human Geography Map Set
Gender Inequality Index (GII)Human GeographyGender Inequality

Global Human Modification (population pressure)

Map Physical or Human Geography Map Set
Global Human Modification Human GeographyAnthropocene

Analyzing “Industrial and Economic Development Patterns and Processes” – geteach.com

Human Development Index

Map Physical or Human Geography Map Set
2018- HDIHuman GeographyHuman Development Index

Economic Indicators

Maps Physical or Human Geography Map Set
GDP (per capita)Human GeographyEconomy
GNI (per capita)Human GeographyEconomy
Agriculture
(% of labor force)
Human GeographyEconomy
Industry labor/Includes mining
(% of labor force)
Human GeographyEconomy
Service labor
(% of labor force)
Human GeographyEconomy

Health Indicators

Maps Physical or Human Geography Map Set
Infant mortality rateHuman GeographyDemographics
Life expectancyHuman GeographyDemographics
Physicians densityHuman GeographySociety

Social Indicators

Maps Physical or Human Geography Map Set
Electricity – fossil fuels
(% of Capacity)
Human GeographyEnergy
Electricity – renewable resources
(% of Capacity)
** According to source,
burning timber is renewable **
Human GeographyEnergy
Mean schooling – bothHuman GeographySociety
Gender Inequality Index (GII)Human GeographyGender Inequality

Sorry about the video music. I have an odd appreciation for YouTube’s stock music.

New geteach.com Google Earth Projects: Dynamic Landscapes

[earth_disclaimer]

TL;DR: Google Earth Projects: Dynamic Landscapes (Link to Projects)

Figure: Dynamic Landscapes Main Menu

One of my favorite concepts to teach and think about is this idea of scale and how our landscapes constantly change. Google Geo has a couple of tools that help capture both these concepts. First, Google has organized years of remote sensing images from several vendors. Many students and teachers have used Google Earth Engine’s Timelapse and/or have used Google Earth Pro’s (Desktop) “Historic Imagery.” With these tools, viewers can see a changing landscape from above. For example, the images below, from Google Earth Pro’s Historic Imagery, visualize Warsaw Poland in 1935 and 1945. In addition, Google Maps, not Earth, has historic Street View going back, in some places, for 15 years.

Before imageAfter image

The goal of these Google Earth projects is to tell stories using these concepts of spatial and temporal scales. The four stories chosen to tell using these scales include the 2013 EF5 Tornado in Moore, OK; 2011 wildfires in Bastrop, TX; the 2011 Tōhoku Earthquake/Tsunami; and finally, the Notre-Dame Cathedral fire in Paris, France.

Figure: Damage Path EF5 Tornado Moore, Ok 2013

While these catastrophes are life altering to those living thorough these events, I find it, as a teacher, easier to create empathy in students when these events can shift between small-scale/small detail to large scale large detail. In other words, at a small-scale students can see the extent of how much was damaged, but might miss the personal stories of loss, heroism, and perseverance. Shifting the perspective to the large-scale/large detail of Street View gives a glimpse of these personal narratives. Hopefully facilitating the growth of an empathetic citizen willing to help their world.

Figure: Historic Street View – TX Highway 21 (Left Image: 2011 | Right Image: 2013)

On the technology side, there is a little of everything Google Geo has to offer. The stories themselves are curated Wikipedia and US government websites using data from NOAA, FEMA, Google Earth Imagery, and Google’s Street View. The visual format of the stories’ panels were created using custom HTML with help from Google’s Material Design Lite and a little JS to show/hide layers and style the media. The Google Earth Layers are all tiled (x,y,z) raster images either created using MapTiler or, in some cases, Google Earth Engine. The historic Street View panels are done using Google Maps API. And lastly Google Earth Studio was used to create the spinning Earth found in the Dynamic Landscapes’ Main Menu project.

Figure: Earth Engine 2013 Tornado Data – Source NWS

In other words, these stories are an experimental convergence of hacks. And while I think they look fantastic; they will always be amateur. However, these stories could look so much more polished, and scalable, with a couple of Google Earth for Web features. First, historical imagery and historical Street View that could be included in Google Projects. Second, toggle switch widgets for showing/hiding layers. Third, and one that I have been unable to hack yet, would be the ability to “set a scene” by enabling and disabling Map Styles like visible features (roads, places, poi), 3d imagery and clouds:) The ability to add ground overlays would also be useful to many users. This would remove some friction that is introduced with tile overlays. Lastly, and this will probably make no sense to anyone, but the ability to assign Ids to features like placemarks (points, lines, polygons), ground overlays (tiles), folders, full screen panels, etc. While I am at it…maybe the Earth Engine team could help me out with exporting video (x,y,z) tiles from Earth Engine’s code editor. Very selfish request.

Figure: Tōhoku Tsunami Model – Source NOAA

Anyways, please let me know via Twitter or Facebook if you would like for me to create a tutorial on anything you found interesting within these stories. I truly enjoy creating and learning from these experiences.