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Chapter 10: Problem 14

T/F: Storms on giant planets last much longer than do storms on Earth.

Short Answer

Expert verified
True. Storms on giant planets last much longer than storms on Earth.

Step by step solution

01

Understand the Question

The question is asking whether storms on giant planets (like Jupiter, Saturn, Uranus, and Neptune) last longer than storms on Earth.
02

Recall Earth Storm Duration

Consider the typical duration of storms on Earth. For example, hurricanes can last for a few days but generally weaken and dissipate within a week.
03

Research Giant Planet Storms

Look into the duration of storms on giant planets. For instance, Jupiter's Great Red Spot has been observed for over 300 years, indicating that storms on these planets can last significantly longer than those on Earth.
04

Compare Durations

Compare the observed durations: Earth's storms (lasting days to weeks) vs. storms on giant planets (lasting from years to centuries).
05

Conclude

Based on the comparison, conclude that storms on giant planets last much longer than storms on Earth, making the statement true.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

giant planets
The concept of giant planets refers to the largest planets in our solar system: Jupiter, Saturn, Uranus, and Neptune. These planets are also known as gas giants because they are composed mostly of hydrogen and helium, with dense atmospheres and potentially small rocky cores deep inside. Unlike Earth and other terrestrial planets, giant planets have no solid surface; their atmospheres gradually transition into their interiors.

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Most popular questions from this chapter

Deep in the interiors of the giant planets, water is still a liquid, even though the temperatures are tens of thousands of degrees above the boiling point of water. Water can exist in liquid form here because a. the density inside the giant planets is so high. b. the pressure inside the giant planets is so high. c. the outer Solar System is so cold. d. space has very low pressure.

Describe how the giant planets differ from the terrestrial planets.

The following steps lead to convection in the atmospheres of giant planets. Place (b)-(f) in order, following (a). a. Gravity pulls particles toward the center. b. Warm material rises and expands. c. Particles fall toward the center, converting gravitational energy to kinetic energy. d. Expanding material cools. e. Thermal energy heats the material. f. Friction converts kinetic energy to thermal energy.

Uranus occults a star at a time when the relative motion between Uranus and Earth is \(23.0 \mathrm{km} / \mathrm{s}\). An observer on Earth sees the star disappear for 37 minutes and 2 seconds and notes that the center of Uranus passed directly in front of the star. a. On the basis of these observations, what value would the observer calculate for the diameter of Uranus? b. What could you conclude about the planet's diameter if its center did not pass directly in front of the star?

Metallic hydrogen is not a. a metal that acts like hydrogen. b. hydrogen that acts like a metal c. common in the core of giant planets. d. a result of high temperatures and pressures.
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