Weather on Earth is driven by __________; weather on Jupiter is driven by __________. a. the Sun; internal energy b. the Sun; the winds c. Both are driven by the Sun. d. Both are driven by the hot core of the planet.

Short Answer

Expert verified
a. the Sun; internal energy

Step by step solution

01

Understand what drives weather on Earth

Weather on Earth is primarily driven by the Sun. The Sun heats the Earth's surface, which in turn heats the air above it. This process creates temperature differences, causing wind patterns and weather phenomena.
02

Understand what drives weather on Jupiter

Jupiter's weather, however, is driven by its internal energy. Jupiter radiates more heat than it receives from the Sun due to the slow gravitational contraction of the planet, which generates internal heat. This energy drives powerful winds and storms in Jupiter's atmosphere.
03

Match the correct answer

Given the information, the only option that matches both conditions is: a. the Sun; internal energy.

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Key Concepts

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

Earth's weather
Earth's weather is primarily driven by the energy from the Sun. When the Sun's rays reach Earth, they heat up the planet's surface. The warmed surface, in turn, heats the air above it. This process creates temperature differences across different regions. These differences in temperature cause air to move, forming wind patterns and weather phenomena such as rain, snow, and thunderstorms. Understanding that the Sun is the main driver of Earth's weather helps explain why we experience different climates and seasons. This interaction between solar energy and the Earth's atmosphere is the key to our weather patterns.
Jupiter's weather
Jupiter's weather is quite different from Earth's. Instead of being driven primarily by solar energy, Jupiter's weather is powered by its internal energy. Jupiter generates heat through a process called slow gravitational contraction. This means that the planet's own gravity is causing it to slowly compress, generating heat. This internal heat is so significant that Jupiter emits more energy than it receives from the Sun. This internal energy fuels enormous and intense weather systems, including the famous Great Red Spot, a massive storm that has persisted for centuries. Jupiter's atmosphere is dynamic with high-speed winds and powerful storms, all driven by the planet's internal energy.
Solar energy
Solar energy is the energy that comes from the Sun. It is the primary source of energy for Earth and many other planets in the solar system. For Earth, solar energy is crucial as it heats the planet's surface, driving weather patterns and supporting life. When sunlight reaches Earth, it warms the land, ocean, and atmosphere, creating the right conditions for weather phenomena like wind, rain, and snow. While solar energy is also received by other planets like Jupiter, it plays a less significant role in their weather systems. Instead, planets like Jupiter rely more on internal sources of energy to drive their weather.
Internal energy
Internal energy refers to the energy that is generated from within a planet. For Jupiter, this internal energy is mainly a result of gravitational contraction, where the planet slowly shrinks under its own gravity, producing heat. This internal heat drives powerful atmospheric movements, leading to intense weather systems. On Earth, internal energy contributes to geological activities like volcanic eruptions and tectonic movements, but it does not significantly drive the weather. However, understanding internal energy is essential for exploring the weather systems of giant planets like Jupiter, where this energy plays a dominant role.
Planetary weather phenomena
Planetary weather phenomena refer to the various weather patterns observed on different planets. On Earth, these include conditions like clear skies, clouds, rain, snow, and storms. Solar energy is the main driver of these phenomena. On planets like Jupiter, weather phenomena are driven by internal energy, leading to unique and extreme weather patterns such as massive storms, high-speed winds, and giant vortices. Studying planetary weather phenomena allows scientists to understand how different energy sources influence weather systems across our solar system and beyond. This comparative study helps to reveal insights into the nature and behavior of planetary atmospheres.

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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.

Go to the website for the Voyager 1 and 2 missions (http://voyager.jpl.nasa.gov), which collected data on all four of the giant planets more than two decades ago. a. Where are the spacecraft now? Click on "Images \& Video." These are still the only close-up images of Uranus and Neptune. What was learned about these planets? b. Click on "The Golden Record" and on the right, look at scenes, greetings, music, and sounds from Earth. Suppose you were asked to make a new version of the Golden Record, a playlist to send on an upcoming space mission. What would you include in one or more of those categories?

Neptune's existence was predicted because a. Uranus did not obey Newton's laws of motion. b. Uranus wobbled on its axis. c. Uranus became brighter and fainter in an unusual way. d. some of the solar nebula's mass was unaccounted for.

The Great Red Spot on Jupiter is a. a surface feature. b. a storm that has been raging for more than 300 years. c. caused by the interaction between the magnetosphere and Io. d. about the size of North America.

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.

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