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Using data from tables and graphs

11th grade (Year 12 in England) · 16 questions · Common Core: RI.11-12.7, RST.11-12.7 · England: SAT Reading and Writing (Command of Evidence: Quantitative), ACT Science-style reading

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  1. Question 1

    Table: Average daily screen time (hours) Age 8–10: 2.5 · Age 11–13: 4.0 · Age 14–16: 5.5 Which statement is supported by the table?

    • A. Average screen time increases with age group.
    • B. Children aged 8–10 use screens the most.
    • C. Teenagers aged 14–16 use screens less than 4 hours.
    • D. Screen time is the same for all ages.

Cooling the City (with data)

On hot summer afternoons, the centres of large cities can be several degrees warmer than the surrounding countryside. This "urban heat island" effect occurs because dark surfaces such as asphalt and roofing absorb sunlight and release it slowly as heat, while buildings trap warm air and reduce the cooling effect of wind. A lack of vegetation makes the problem worse: trees and plants cool the air by providing shade and releasing water vapour. In a recent study, researchers measured the average afternoon surface temperature in July across four neighbourhoods of one city, alongside the percentage of each area covered by trees. Their results are summarised below. Neighbourhood | Tree cover (%) | Average July afternoon surface temperature (°C) Northgate | 8 | 41 Riverside | 15 | 38 Elm Park | 27 | 34 Hillcrest | 35 | 32 The researchers caution that tree cover is not the only factor: Riverside, for instance, is next to a large river, which may have cooled it independently. Nevertheless, they conclude that expanding urban tree cover is a promising strategy for reducing extreme heat, particularly in neighbourhoods where many residents lack air conditioning.
  1. Question 2

    Read "Cooling the City (with data)". Which statement is best supported by the table?

    • A. Tree cover has no relationship with temperature.
    • B. Elm Park has the most trees.
    • C. Northgate is cooler than Riverside.
    • D. As tree cover increases across the four neighbourhoods, average temperature decreases.
  2. Question 3

    Read "Cooling the City (with data)". Which neighbourhood had both the most tree cover and the lowest temperature?

    • A. Hillcrest
    • B. Elm Park
    • C. Northgate
    • D. Riverside
  3. Question 4

    Read "Cooling the City (with data)". What is the difference in average temperature between Northgate and Hillcrest?

    • A. 3 °C
    • B. 7 °C
    • C. 27 °C
    • D. 9 °C
  1. Question 5

    Table: Average daily screen time (hours) Age 8–10: 2.5 · Age 11–13: 4.0 · Age 14–16: 5.5 Which statement is supported by the table?

    • A. Children aged 8–10 use screens the most.
    • B. Screen time is the same for all ages.
    • C. Teenagers aged 14–16 use screens less than 4 hours.
    • D. Average screen time increases with age group.

Cooling the City (with data)

On hot summer afternoons, the centres of large cities can be several degrees warmer than the surrounding countryside. This "urban heat island" effect occurs because dark surfaces such as asphalt and roofing absorb sunlight and release it slowly as heat, while buildings trap warm air and reduce the cooling effect of wind. A lack of vegetation makes the problem worse: trees and plants cool the air by providing shade and releasing water vapour. In a recent study, researchers measured the average afternoon surface temperature in July across four neighbourhoods of one city, alongside the percentage of each area covered by trees. Their results are summarised below. Neighbourhood | Tree cover (%) | Average July afternoon surface temperature (°C) Northgate | 8 | 41 Riverside | 15 | 38 Elm Park | 27 | 34 Hillcrest | 35 | 32 The researchers caution that tree cover is not the only factor: Riverside, for instance, is next to a large river, which may have cooled it independently. Nevertheless, they conclude that expanding urban tree cover is a promising strategy for reducing extreme heat, particularly in neighbourhoods where many residents lack air conditioning.
  1. Question 6

    Read "Cooling the City (with data)". Which statement is best supported by the table?

    • A. As tree cover increases across the four neighbourhoods, average temperature decreases.
    • B. Elm Park has the most trees.
    • C. Northgate is cooler than Riverside.
    • D. Tree cover has no relationship with temperature.
  2. Question 7

    Read "Cooling the City (with data)". Which neighbourhood had both the most tree cover and the lowest temperature?

    • A. Hillcrest
    • B. Riverside
    • C. Northgate
    • D. Elm Park
  3. Question 8

    Read "Cooling the City (with data)". What is the difference in average temperature between Northgate and Hillcrest?

    • A. 3 °C
    • B. 27 °C
    • C. 7 °C
    • D. 9 °C
  1. Question 9

    Table: Commuting method (% of workers) City A: car 60, bus 25, bike 15 City B: car 35, bus 40, bike 25 Which statement is supported by the data?

    • A. A larger share of workers cycle in City B than in City A.
    • B. Nobody cycles in City A.
    • C. Most workers in City B drive.
    • D. Buses are more popular in City A.

Cooling the City (with data)

On hot summer afternoons, the centres of large cities can be several degrees warmer than the surrounding countryside. This "urban heat island" effect occurs because dark surfaces such as asphalt and roofing absorb sunlight and release it slowly as heat, while buildings trap warm air and reduce the cooling effect of wind. A lack of vegetation makes the problem worse: trees and plants cool the air by providing shade and releasing water vapour. In a recent study, researchers measured the average afternoon surface temperature in July across four neighbourhoods of one city, alongside the percentage of each area covered by trees. Their results are summarised below. Neighbourhood | Tree cover (%) | Average July afternoon surface temperature (°C) Northgate | 8 | 41 Riverside | 15 | 38 Elm Park | 27 | 34 Hillcrest | 35 | 32 The researchers caution that tree cover is not the only factor: Riverside, for instance, is next to a large river, which may have cooled it independently. Nevertheless, they conclude that expanding urban tree cover is a promising strategy for reducing extreme heat, particularly in neighbourhoods where many residents lack air conditioning.
  1. Question 10

    Read "Cooling the City (with data)". Which statement is best supported by the table?

    • A. As tree cover increases across the four neighbourhoods, average temperature decreases.
    • B. Tree cover has no relationship with temperature.
    • C. Northgate is cooler than Riverside.
    • D. Elm Park has the most trees.
  2. Question 11

    Read "Cooling the City (with data)". Which neighbourhood had both the most tree cover and the lowest temperature?

    • A. Hillcrest
    • B. Riverside
    • C. Elm Park
    • D. Northgate
  3. Question 12

    Read "Cooling the City (with data)". What is the difference in average temperature between Northgate and Hillcrest?

    • A. 3 °C
    • B. 27 °C
    • C. 9 °C
    • D. 7 °C
  1. Question 13

    Table: Bird species counted in Oak Wood 2015: 42 · 2018: 39 · 2021: 31 · 2024: 28 Which choice most accurately uses the data to complete the claim? "Between 2015 and 2024, the number of bird species counted…"

    • A. stayed roughly the same.
    • B. fell by 14.
    • C. rose steadily.
    • D. fell by half.

Cooling the City (with data)

On hot summer afternoons, the centres of large cities can be several degrees warmer than the surrounding countryside. This "urban heat island" effect occurs because dark surfaces such as asphalt and roofing absorb sunlight and release it slowly as heat, while buildings trap warm air and reduce the cooling effect of wind. A lack of vegetation makes the problem worse: trees and plants cool the air by providing shade and releasing water vapour. In a recent study, researchers measured the average afternoon surface temperature in July across four neighbourhoods of one city, alongside the percentage of each area covered by trees. Their results are summarised below. Neighbourhood | Tree cover (%) | Average July afternoon surface temperature (°C) Northgate | 8 | 41 Riverside | 15 | 38 Elm Park | 27 | 34 Hillcrest | 35 | 32 The researchers caution that tree cover is not the only factor: Riverside, for instance, is next to a large river, which may have cooled it independently. Nevertheless, they conclude that expanding urban tree cover is a promising strategy for reducing extreme heat, particularly in neighbourhoods where many residents lack air conditioning.
  1. Question 14

    Read "Cooling the City (with data)". Which statement is best supported by the table?

    • A. Northgate is cooler than Riverside.
    • B. As tree cover increases across the four neighbourhoods, average temperature decreases.
    • C. Elm Park has the most trees.
    • D. Tree cover has no relationship with temperature.
  2. Question 15

    Read "Cooling the City (with data)". Which neighbourhood had both the most tree cover and the lowest temperature?

    • A. Northgate
    • B. Riverside
    • C. Hillcrest
    • D. Elm Park
  3. Question 16

    Read "Cooling the City (with data)". What is the difference in average temperature between Northgate and Hillcrest?

    • A. 3 °C
    • B. 27 °C
    • C. 7 °C
    • D. 9 °C

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Answer key: Using data from tables and graphs

  1. 1. A. Average screen time increases with age group.

  2. 2. D. As tree cover increases across the four neighbourhoods, average temperature decreases.

  3. 3. A. Hillcrest

  4. 4. D. 9 °C

  5. 5. D. Average screen time increases with age group.

  6. 6. A. As tree cover increases across the four neighbourhoods, average temperature decreases.

  7. 7. A. Hillcrest

  8. 8. D. 9 °C

  9. 9. A. A larger share of workers cycle in City B than in City A.

  10. 10. A. As tree cover increases across the four neighbourhoods, average temperature decreases.

  11. 11. A. Hillcrest

  12. 12. C. 9 °C

  13. 13. B. fell by 14.

  14. 14. B. As tree cover increases across the four neighbourhoods, average temperature decreases.

  15. 15. C. Hillcrest

  16. 16. D. 9 °C