Analyze and interpret the data in the table that shows the average temperature of the planets and their distance from the sun. How does your data explain the temperature of the planets? Are there any planets that do not follow the trend? What is one possible reason the planets might not fit the trend that you observed in the simulation? Table 2. Average Temperatures of Planets and Their Distance from the Sun PlanetDistance from the sun (mi)Average temperature (°C) Mercury35,900,000167 Venus67,200,000457 Earth92,600,00015 Mars141,600,000-55 Jupiter483,600,000-108 Saturn886,700,000-133 Uranus1,783,000,000-209 Neptune2,794,000,000-163 Type your answer here:
The Correct Answer and Explanation is:
To analyze the relationship between the average temperatures of the planets and their distances from the Sun, we can refer to the data presented in Table 2:
| Planet | Distance from the Sun (miles) | Average Temperature (°C) |
|---|---|---|
| Mercury | 35,900,000 | 167 |
| Venus | 67,200,000 | 457 |
| Earth | 92,600,000 | 15 |
| Mars | 141,600,000 | -55 |
| Jupiter | 483,600,000 | -108 |
| Saturn | 886,700,000 | -133 |
| Uranus | 1,783,000,000 | -209 |
| Neptune | 2,794,000,000 | -163 |
Data Interpretation
Upon reviewing the data, a clear trend emerges where, generally, as the distance from the Sun increases, the average temperature of the planets decreases. For instance, Mercury, being the closest planet to the Sun, has the highest average temperature at 167°C. Conversely, Uranus and Neptune, being significantly further away, have much lower temperatures, -209°C and -163°C, respectively.
Exceptions to the Trend
Venus, however, stands out as an exception. Despite being the second planet from the Sun, it has an exceptionally high average temperature of 457°C, which is higher than that of Mercury. This phenomenon can be attributed to Venus’s thick atmosphere, composed mainly of carbon dioxide, which creates a strong greenhouse effect. This effect traps heat effectively, leading to a surface temperature that is hotter than that of Mercury, even though Mercury is closer to the Sun.
Explanation for Deviations from the Trend
One possible reason why some planets do not fit the expected trend based on distance from the Sun is their atmospheric composition and pressure. For example, Venus’s thick atmosphere not only contains greenhouse gases but also exerts a high atmospheric pressure, which contributes to its extreme surface temperatures. In contrast, Mars, despite being further from the Sun, has a very thin atmosphere that is unable to retain heat, resulting in its low average temperature of -55°C.
In conclusion, while there is a general correlation between distance from the Sun and average temperature, exceptions like Venus illustrate the complexity of planetary climates, influenced significantly by atmospheric conditions. This highlights the importance of considering various factors beyond just distance when analyzing planetary temperatures.