What shapes a place's climate: latitude, height, distance from the sea
Grade 6 Science Worksheet - Challenge Me

Circle the best answer.
Mount Washington is only about 2° farther north than Boston, yet its July is 13 °C cooler. Which clue explains most of the gap, Ari?
- The Sun: the summit is closer to it
- Its latitude: 2° farther north
- The sea: the summit is right on the coast
- Its height: 1,910 m above sea level
Spokane is higher than Seattle, yet Spokane's July is warmer. Which clue explains the warmer July, Bo?
Map with a key and a climate table (NOAA NCEI 1991–2020 normals), columns place, where it is, January average, July average: Seattle, Washington, 47.4° N, near the sea (Puget Sound), 113 m above sea level, 6 °C (43 °F), 19 °C (67 °F); Spokane, Washington, 47.6° N, inland, 717 m above sea level, −1 °C, below zero (30 °F), 22 °C (71 °F). Map with a key and a climate table (NOAA NCEI 1991–2020 normals), columns place, where it is, January average, July average: Seattle, Washington, 47.4° N, near the sea (Puget Sound), 113 m above sea level, 6 °C (43 °F), 19 °C (67 °F); Spokane, Washington, 47.6° N, inland, 717 m above sea level, −1 °C, below zero (30 °F), 22 °C (71 °F). Climate table (NOAA NCEI 1991-2020 normals) place where it is January average July average Seattle, Washington 47.4° N, near the sea (Puget Sound), 113 m above sea level 6 degC (43 degF) 19 degC (67 degF) Spokane, Washington 47.6° N, inland, 717 m above sea level -1 degC, below zero (30 degF) 22 degC (71 degF) - Spokane is much nearer the equator
- Higher places are warmer in summer
- Spokane is far from the sea, so summers get hotter
- The sea makes Seattle's summers hotter
Denver's July is 5 °C cooler than Fresno's. Which explanation uses both clues in the table, Esme?
Map with a key and a climate table (NOAA NCEI 1991–2020 normals), columns place, where it is, January average, July average: Denver, Colorado, 39.8° N, far inland, 1,650 m above sea level, 0 °C (32 °F), 24 °C (75 °F); Fresno, California, 36.8° N, inland, 102 m above sea level, 9 °C (48 °F), 29 °C (84 °F). Map with a key and a climate table (NOAA NCEI 1991–2020 normals), columns place, where it is, January average, July average: Denver, Colorado, 39.8° N, far inland, 1,650 m above sea level, 0 °C (32 °F), 24 °C (75 °F); Fresno, California, 36.8° N, inland, 102 m above sea level, 9 °C (48 °F), 29 °C (84 °F). Map with a key and a climate table (NOAA NCEI 1991-2020 normals) place where it is January average July average Denver, Colorado 39.8° N, far inland, 1,650 m above sea level 0 degC (32 degF) 24 degC (75 degF) Fresno, California 36.8° N, inland, 102 m above sea level 9 degC (48 degF) 29 degC (84 degF) - Denver is farther south
- Denver is higher, so it is nearer the Sun
- Denver is both higher and farther north
- Denver is nearer the sea
Imagine a town moved from the coast to 1,000 km inland, at the same latitude and height. How would its climate change, Jun?
- Hotter summers and colder winters
- No change: latitude alone sets climate
- Warmer year-round, as land holds heat longer than water
- Milder summers and winters, as inland air changes slowly
A road climbs from a valley at 500 m to a pass at 2,500 m. What should Kira's trip guide say about the pass?
- Warmer: heat rises and collects up high
- Cooler: air gets colder with height
- The same: height does not change temperature
- Warmer: it is nearer the Sun
A model town moves from 20° N to 50° N, keeping its height and its spot on the coast. What happens to its climate, Luz?
- Warmer: the Sun is nearer to 50° N
- Colder: the sunlight hits at a lower slant
- Warmer: far from the equator, light is more direct
- Colder: the sea chills northern coasts
Read this first
Use this
Side view of a mountain (example data, not to scale). Note: NWS normal lapse rate, 3.5 degF cooler per 1,000 ft.
A trail starts at 2,000 ft, where it is 75 °F. The summit is 54 °F. Using 3.5 °F per 1,000 ft, about how high is the summit, Milo?
Side view of a mountain (example data, not to scale): a trailhead at 2,000 ft at the bottom, 75 °F; the summit higher up, 54 °F. Note: NWS normal lapse rate, 3.5 °F cooler per 1,000 ft. Side view of a mountain (example data, not to scale): a trailhead at 2,000 ft at the bottom, 75 °F; the summit higher up, 54 °F. Note: NWS normal lapse rate, 3.5 °F cooler per 1,000 ft. trailhead 2,000 ft 75 degF summit 54 degF - About 21,000 ft
- About 6,000 ft
- Lower than 2,000 ft, since it is colder
- About 8,000 ft
“example data, not to scale” A lower town at 1,500 ft is 70 °F; an upper town on the same slope is 63 °F. Using 3.5 °F per 1,000 ft, about how high is the upper town, Noah?
Side view of a mountain (example data, not to scale): a lower town at 1,500 ft at the bottom, 70 °F; an upper town higher up, 63 °F. Note: NWS normal lapse rate, 3.5 °F cooler per 1,000 ft. Side view of a mountain (example data, not to scale): a lower town at 1,500 ft at the bottom, 70 °F; an upper town higher up, 63 °F. Note: NWS normal lapse rate, 3.5 °F cooler per 1,000 ft. lower town 1,500 ft, 70 degF upper town 63 degF NWS normal lapse rate: 3.5 degF cooler per 1,000 ft - About 3,500 ft
- About 2,000 ft
- About 8,500 ft
- Below 1,500 ft, since it is cooler
Ren's friend says the equator is hot because it is closer to the Sun. Agree or disagree?
- Disagree: sunlight hits the equator more directly
- Agree: the equator is nearer the Sun
- Agree: the equator's sunlight is more slanted
- Disagree: the equator gets the most slanted light
Tala's friend says mountaintops should be warmer, since heat rises. Agree or disagree?
- Agree: peaks are nearer the Sun
- Disagree: air gets colder higher up
- Agree: heat rises and collects up high
- Disagree: peaks are cold because the sea is near