Planet Review
... -Oxygen rich atmosphere that can sustain life -One Moon - Luna Mars -Red Planet due to iron in the soil -Atmosphere of Carbon Dioxide -Polar Ice caps but no liquid water -Immense wind/dust storms -Rovers landed and sent images back from Mars -Has volcano but they are inactive (Biggest in the solar s ...
... -Oxygen rich atmosphere that can sustain life -One Moon - Luna Mars -Red Planet due to iron in the soil -Atmosphere of Carbon Dioxide -Polar Ice caps but no liquid water -Immense wind/dust storms -Rovers landed and sent images back from Mars -Has volcano but they are inactive (Biggest in the solar s ...
Jeopardy Science Space
... Which shows the 9 planets in order, starting with the closest to the Sun. ...
... Which shows the 9 planets in order, starting with the closest to the Sun. ...
Space Unit - Questions and Answers
... A meteor is a meteoroid that is trapped by Earth’s gravity and pulled down by Earth’s atmosphere. As it falls through Earth’s atmosphere, it rubs against the molecules of the air (this rubbing is called friction), it becomes hot and vaporizes and the air glows. This produces a bright streak of light ...
... A meteor is a meteoroid that is trapped by Earth’s gravity and pulled down by Earth’s atmosphere. As it falls through Earth’s atmosphere, it rubs against the molecules of the air (this rubbing is called friction), it becomes hot and vaporizes and the air glows. This produces a bright streak of light ...
t2 images part 1
... either by expelling their outer layers or as huge super nova explosions. So much heat and energy is produced by these events that all of the heavier elements are formed. Large stars burn through their fuel faster. ...
... either by expelling their outer layers or as huge super nova explosions. So much heat and energy is produced by these events that all of the heavier elements are formed. Large stars burn through their fuel faster. ...
PH507 - University of Kent
... 6.00 x 107 m and 6.96 x 108 m, respectively. [Hint – you don’t need to know the absolute value of the solar luminosity] ...
... 6.00 x 107 m and 6.96 x 108 m, respectively. [Hint – you don’t need to know the absolute value of the solar luminosity] ...
Our Solar System I - hrsbstaff.ednet.ns.ca
... Great Dark Spot thought to be a hole, similar to the hole in the ozone layer on Earth ...
... Great Dark Spot thought to be a hole, similar to the hole in the ozone layer on Earth ...
Science Lesson
... This is a really fun lesson plan to combine with an art project. The distances between the planets become tangible and surprisingly far! The Solar System The distances between the nine planets are vast! We used Bode’s Law to determine the ratio of the distances between each planet and reduce it to a ...
... This is a really fun lesson plan to combine with an art project. The distances between the planets become tangible and surprisingly far! The Solar System The distances between the nine planets are vast! We used Bode’s Law to determine the ratio of the distances between each planet and reduce it to a ...
example 2 - space File
... Sun at around 30 kilometres per second. Earth also holds in its orbit 1 moon. Press the rocket! ...
... Sun at around 30 kilometres per second. Earth also holds in its orbit 1 moon. Press the rocket! ...
Geocentric model
... circumference of Earth • Circumference of Earth ~ 40,000 km • Actual = 40,074 km • In reality, Eratosthenes made a number of errors that tended to cancel out, producing a remarkably accurate estimate ...
... circumference of Earth • Circumference of Earth ~ 40,000 km • Actual = 40,074 km • In reality, Eratosthenes made a number of errors that tended to cancel out, producing a remarkably accurate estimate ...
The Inner Planets: A Review Sheet - bca-grade-6
... - Its day is only 37 minutes longer than ours. Its year is 687 “Earth days.” - Mars is named after the Roman god of war and is known as the “Red Planet.” - It has about as much land as all of our continents combined. - Olympus Mons, a Martian mountain is the biggest mountain in the solar system. - I ...
... - Its day is only 37 minutes longer than ours. Its year is 687 “Earth days.” - Mars is named after the Roman god of war and is known as the “Red Planet.” - It has about as much land as all of our continents combined. - Olympus Mons, a Martian mountain is the biggest mountain in the solar system. - I ...
The Size of the Planets
... parts are lighter brown with a few areas in the lower half being yellow. It has a few craters but also many smooth areas.) • Earth (Time 00:33) What can you see? (The oceans, continents and clouds.) • Neptune (Time 00:38) Describe Neptune. (Large blue ball with a band of white clouds.) • Uranus (Tim ...
... parts are lighter brown with a few areas in the lower half being yellow. It has a few craters but also many smooth areas.) • Earth (Time 00:33) What can you see? (The oceans, continents and clouds.) • Neptune (Time 00:38) Describe Neptune. (Large blue ball with a band of white clouds.) • Uranus (Tim ...
A Tour of our Solar System
... Saturn Saturn's rings are made mostly of dust and rocks the size of a baseball or smaller. There has been a lot of study done to understand why they exist. The jury is still out, but there are ideas about gravity and Saturn’s magnetic field. ...
... Saturn Saturn's rings are made mostly of dust and rocks the size of a baseball or smaller. There has been a lot of study done to understand why they exist. The jury is still out, but there are ideas about gravity and Saturn’s magnetic field. ...
Spaceship Earth
... • Small variation for Earth — about 3% • Distance does matter for some other planets, notably Mars and Pluto. • Surprisingly, seasons are more extreme in N. hemisphere, even thought Earth is closer to Sun in S. hemisphere summer (and farther in S. hemisphere winter) because of land/ocean distributio ...
... • Small variation for Earth — about 3% • Distance does matter for some other planets, notably Mars and Pluto. • Surprisingly, seasons are more extreme in N. hemisphere, even thought Earth is closer to Sun in S. hemisphere summer (and farther in S. hemisphere winter) because of land/ocean distributio ...
Topic Eleven - Science - Miami
... Has Galileo Gone Loony? Formation of our Solar System Toying with the Solar System Formation of our Solar System (Spanish Version) Compare and contrast the properties of objects in the Solar System including the Sun, planets, and moons to those of Earth, such as gravitational force, distance from th ...
... Has Galileo Gone Loony? Formation of our Solar System Toying with the Solar System Formation of our Solar System (Spanish Version) Compare and contrast the properties of objects in the Solar System including the Sun, planets, and moons to those of Earth, such as gravitational force, distance from th ...
Solar System Power Point
... • The largest planetesimals formed near the outside of the rotating solar disk, where hydrogen and helium were located. • These outer planets grew to huge sizes and became gas giants • * SOL QUESTION – Jupiter’s “Great Red Spot” is a storm system more than 400 years old and about 3x the diameter of ...
... • The largest planetesimals formed near the outside of the rotating solar disk, where hydrogen and helium were located. • These outer planets grew to huge sizes and became gas giants • * SOL QUESTION – Jupiter’s “Great Red Spot” is a storm system more than 400 years old and about 3x the diameter of ...
Solar System Study Guide
... Saturn: A planet with 100s rings (made of dust, ice & rock), takes 29.5 years to orbit the Sun. Neptune: The beautiful blue/green planet (due to methane gas), strong winds (up to 1,300 mph), and takes 165 years to orbit the Sun. Uranus: The planet that spins on its side (horizontal), has many moons ...
... Saturn: A planet with 100s rings (made of dust, ice & rock), takes 29.5 years to orbit the Sun. Neptune: The beautiful blue/green planet (due to methane gas), strong winds (up to 1,300 mph), and takes 165 years to orbit the Sun. Uranus: The planet that spins on its side (horizontal), has many moons ...
answer key
... stars by number of spectral lines. That system was alphabetical, A-Q. In 1901 stars were re-sorted by color/temp (they are connected) scrambling the letters. The Sun is a G2v (“2” indicates a 1-10 rank within a letter – an A4 is slightly hotter than an A5 star -- and “v” refers to whether a star is ...
... stars by number of spectral lines. That system was alphabetical, A-Q. In 1901 stars were re-sorted by color/temp (they are connected) scrambling the letters. The Sun is a G2v (“2” indicates a 1-10 rank within a letter – an A4 is slightly hotter than an A5 star -- and “v” refers to whether a star is ...
Mid-term Exam 3 - Practice Version
... They formed from the atmosphere of the Sun. They migrated inward after forming far from the Sun in the outer Solar System. They formed inside the radius at which ice mantles could not exist on dust grains. Ice grains are limited to highly eccentric and highly inclined orbits. Dust grains only exist ...
... They formed from the atmosphere of the Sun. They migrated inward after forming far from the Sun in the outer Solar System. They formed inside the radius at which ice mantles could not exist on dust grains. Ice grains are limited to highly eccentric and highly inclined orbits. Dust grains only exist ...
SolarSystemPowerPoint
... • Air Pressure on Mars is the same as 30 km above the Earth’s surface • Mars is in the form of ice. • Evidence that water was there at one time • Volcanic history like Earth. • It has the tallest mount of the planets (Olympus Mons) 3x’s size of Mt. Everest. ...
... • Air Pressure on Mars is the same as 30 km above the Earth’s surface • Mars is in the form of ice. • Evidence that water was there at one time • Volcanic history like Earth. • It has the tallest mount of the planets (Olympus Mons) 3x’s size of Mt. Everest. ...
Formation and evolution of the Solar System
The formation of the Solar System began 4.6 billion years ago with the gravitational collapse of a small part of a giant molecular cloud. Most of the collapsing mass collected in the center, forming the Sun, while the rest flattened into a protoplanetary disk out of which the planets, moons, asteroids, and other small Solar System bodies formed.This widely accepted model, known as the nebular hypothesis, was first developed in the 18th century by Emanuel Swedenborg, Immanuel Kant, and Pierre-Simon Laplace. Its subsequent development has interwoven a variety of scientific disciplines including astronomy, physics, geology, and planetary science. Since the dawn of the space age in the 1950s and the discovery of extrasolar planets in the 1990s, the model has been both challenged and refined to account for new observations.The Solar System has evolved considerably since its initial formation. Many moons have formed from circling discs of gas and dust around their parent planets, while other moons are thought to have formed independently and later been captured by their planets. Still others, such as the Moon, may be the result of giant collisions. Collisions between bodies have occurred continually up to the present day and have been central to the evolution of the Solar System. The positions of the planets often shifted due to gravitational interactions. This planetary migration is now thought to have been responsible for much of the Solar System's early evolution.In roughly 5 billion years, the Sun will cool and expand outward many times its current diameter (becoming a red giant), before casting off its outer layers as a planetary nebula and leaving behind a stellar remnant known as a white dwarf. In the far distant future, the gravity of passing stars will gradually reduce the Sun's retinue of planets. Some planets will be destroyed, others ejected into interstellar space. Ultimately, over the course of tens of billions of years, it is likely that the Sun will be left with none of the original bodies in orbit around it.