In the Shadow of the Earth
... occurs, where the Moon will completely block out the Sun’s light for a very small portion of the Earth’s surface. In a Total Lunar Eclipse, the opposite occurs, whereby the Earth comes between the Sun and the Moon. During any one calendar year, only 2 total lunar and 2 total solar eclipses will take ...
... occurs, where the Moon will completely block out the Sun’s light for a very small portion of the Earth’s surface. In a Total Lunar Eclipse, the opposite occurs, whereby the Earth comes between the Sun and the Moon. During any one calendar year, only 2 total lunar and 2 total solar eclipses will take ...
Let`s Review! Fourth Grade Science Review Powerpoint
... puddle of water on the road. At 2 p.m. the Sun is still shining and the puddle has disappeared. What happened to the water? A) It rained. B) It condensed. C) It evaporated. D) It froze. ...
... puddle of water on the road. At 2 p.m. the Sun is still shining and the puddle has disappeared. What happened to the water? A) It rained. B) It condensed. C) It evaporated. D) It froze. ...
Essential Questions
... The solar system consists of the sun and a collection of objects, including planets, their moons, and asteroids that are held in orbit around the sun by its gravitational pull on them. (MS-ESS1-2), (MSESS1-3) The model of the solar system can explain eclipses of the sun and the moon. Earth’s spin ax ...
... The solar system consists of the sun and a collection of objects, including planets, their moons, and asteroids that are held in orbit around the sun by its gravitational pull on them. (MS-ESS1-2), (MSESS1-3) The model of the solar system can explain eclipses of the sun and the moon. Earth’s spin ax ...
The Copernican Revolution
... one moon. Both planets closer to the Sun than Earth have no moons. Comets orbit the Sun also. They are dirty icebergs (or icy dirtballs) orbiting along extremely stretched-out (meaning, highly eccentric) ellipses. Many of the comets we see as they pass near the Sun take many thousands of years to ...
... one moon. Both planets closer to the Sun than Earth have no moons. Comets orbit the Sun also. They are dirty icebergs (or icy dirtballs) orbiting along extremely stretched-out (meaning, highly eccentric) ellipses. Many of the comets we see as they pass near the Sun take many thousands of years to ...
... star, dimming the starlight temporarily. It needs to do this at least three times to confirm a planet; if an exoplanet is in an Earth-like orbit, that will take three years. Of the 342 exoplanets spotted to date, most have been found through the radial velocity method (see graphic), which picks up s ...
ASTR101 Unit 10 Assessment Answer Key 1. Mass, luminosity, size
... from about 60 solar masses to about 1/12 solar mass, in luminosity from about 1,000,000 to 1/10,000 solar luminosities, in radius from about 1,000 to 1/10 solar radii, in surface temperature from about 35,000 to 3,000 K, and in age, from about 13 billion years to stars that are just now being born. ...
... from about 60 solar masses to about 1/12 solar mass, in luminosity from about 1,000,000 to 1/10,000 solar luminosities, in radius from about 1,000 to 1/10 solar radii, in surface temperature from about 35,000 to 3,000 K, and in age, from about 13 billion years to stars that are just now being born. ...
CT9b
... Consider an asteroid in circular orbit around the Sun with radius r = 2A.U. The period of the asteroid is.. Pink: 2 years. Green: 3 years Yellow: 22/3 1.59 years ...
... Consider an asteroid in circular orbit around the Sun with radius r = 2A.U. The period of the asteroid is.. Pink: 2 years. Green: 3 years Yellow: 22/3 1.59 years ...
Document
... d) As a main sequence star. 25. What characteristic of a star cluster is used to determine its age? a) The number of red giants. b) The faintest stars seen in the cluster. c) The main sequence turnoff. d) The total number of stars in the cluster. 26. Astronomers talk about "low-mass" and "high-mass" ...
... d) As a main sequence star. 25. What characteristic of a star cluster is used to determine its age? a) The number of red giants. b) The faintest stars seen in the cluster. c) The main sequence turnoff. d) The total number of stars in the cluster. 26. Astronomers talk about "low-mass" and "high-mass" ...
The Kuiper Belt
... smaller). There are more than 800 known transNeptunian objects (as of early 2004) Many orbit in 3:2 resonance with Neptune (as does Pluto). Color measurements of some of the brightest have shown that they are unusually red. In late 2002, a Kuiper Belt object over 1000 km in diameter was discovered a ...
... smaller). There are more than 800 known transNeptunian objects (as of early 2004) Many orbit in 3:2 resonance with Neptune (as does Pluto). Color measurements of some of the brightest have shown that they are unusually red. In late 2002, a Kuiper Belt object over 1000 km in diameter was discovered a ...
class 4, S11 (ch. 2c and 3)Jan20
... “lap” another planet (or when Mercury or Venus lap us) • But very difficult to explain if you think that Earth is the center of the universe! • In fact, ancients considered but rejected the correct explanation… ...
... “lap” another planet (or when Mercury or Venus lap us) • But very difficult to explain if you think that Earth is the center of the universe! • In fact, ancients considered but rejected the correct explanation… ...
Where`s Earth 2.0? - Institute of Astronomy
... habitable zone but it doesn’t give us an idea of whether it could support life. • This definition is too simple to move from habitable zone straight to potentially habitable ...
... habitable zone but it doesn’t give us an idea of whether it could support life. • This definition is too simple to move from habitable zone straight to potentially habitable ...
Cosmic Distance Ladder
... • Edwin Hubble determined a Cepheid Variable in Andromeda Galaxy. • Used Leavitt’s method to find the distance. • Conclusion: Andromeda is much distant than the estimated size of our galaxy! ...
... • Edwin Hubble determined a Cepheid Variable in Andromeda Galaxy. • Used Leavitt’s method to find the distance. • Conclusion: Andromeda is much distant than the estimated size of our galaxy! ...
History of the Universe and Solar System
... burns to form oxygen, oxygen burns to form iron. All elements lighter than and including iron (56) formed this way. ...
... burns to form oxygen, oxygen burns to form iron. All elements lighter than and including iron (56) formed this way. ...
Sizing Up The Universe
... Small Magellanic Cloud. They were all at approximately the same distance, so their relative luminosity as a function of their period of variability could be determined. From 1923 to 1924 Edwin Hubble (1889–1953) observed the Andromeda galaxy (M31) with the 100-inch-diameter telescope on Mount Wilson ...
... Small Magellanic Cloud. They were all at approximately the same distance, so their relative luminosity as a function of their period of variability could be determined. From 1923 to 1924 Edwin Hubble (1889–1953) observed the Andromeda galaxy (M31) with the 100-inch-diameter telescope on Mount Wilson ...
powerpoint - High Energy Physics at Wayne State
... Low amount of heat because very tenuous. Known to be very hot because it contains multiply Total solar eclipse (1973) ionized atoms At very high temperatures, atoms like iron can have 9 to 13 electrons ejected - ionized. 9-times ionized iron is only produced at temperatures of 1.3 million K 13-times ...
... Low amount of heat because very tenuous. Known to be very hot because it contains multiply Total solar eclipse (1973) ionized atoms At very high temperatures, atoms like iron can have 9 to 13 electrons ejected - ionized. 9-times ionized iron is only produced at temperatures of 1.3 million K 13-times ...
PPT - McMaster Physics and Astronomy
... accumulates in core. •Produces much larger red star – Red Supergiant [500 solar radii – swallows Mars!, surface temperature 4000 K, central T 250 million K. ...
... accumulates in core. •Produces much larger red star – Red Supergiant [500 solar radii – swallows Mars!, surface temperature 4000 K, central T 250 million K. ...
Our Place in the Universe
... energy”. As our understanding of what space, time, matter and energy are changes, we may need to revisit this definition, and find one that is more appropriate. We should probably be able to tell how far away something is based upon a known geometry. 1,000 kilometers 1,000,000 kilometers 1,000,000,0 ...
... energy”. As our understanding of what space, time, matter and energy are changes, we may need to revisit this definition, and find one that is more appropriate. We should probably be able to tell how far away something is based upon a known geometry. 1,000 kilometers 1,000,000 kilometers 1,000,000,0 ...
Goal: To understand what comets are and to explore the Oort cloud.
... gas giant region and were probably tossed there by Jupiter. • They are usually a bit bigger than short period comets, and higher densities. • A bright one comes into the inner solar system every 5-10 years. • Tend to be a bit brighter than short period comets. ...
... gas giant region and were probably tossed there by Jupiter. • They are usually a bit bigger than short period comets, and higher densities. • A bright one comes into the inner solar system every 5-10 years. • Tend to be a bit brighter than short period comets. ...
Chapter 28
... the lowest layer of the Sun’s atmosphere, with an average temperature of about 5800K. • The chromosphere, which is above the photosphere and approximately 2500 km in thickness, has a temperature of nearly 30,000 K at the top. • The corona, which is the top layer of the Sun’s atmosphere, extends seve ...
... the lowest layer of the Sun’s atmosphere, with an average temperature of about 5800K. • The chromosphere, which is above the photosphere and approximately 2500 km in thickness, has a temperature of nearly 30,000 K at the top. • The corona, which is the top layer of the Sun’s atmosphere, extends seve ...
Astronomical distances and Stellar magnitudes
... 1. What is meant by a light year? 2. What is meant by an astronomical unit (AU)? 3. What is meant by a parsec (pc)? 4. What is meant by a mega parsec (Mpc)? 5. What is meant by the apparent magnitude of an astronomical object? 6. Give the approximate distance of the following in AU: (a) Sun to the E ...
... 1. What is meant by a light year? 2. What is meant by an astronomical unit (AU)? 3. What is meant by a parsec (pc)? 4. What is meant by a mega parsec (Mpc)? 5. What is meant by the apparent magnitude of an astronomical object? 6. Give the approximate distance of the following in AU: (a) Sun to the E ...
Earth Moon Sun Jeopardy (1)
... What can you tell us about the season and the solar energy received by the northern hemisphere when it is tilted away from the Sun? ...
... What can you tell us about the season and the solar energy received by the northern hemisphere when it is tilted away from the Sun? ...
Paush – Indication of Weather Here I would like to
... these simple calculation give us the exact day & time of rainfall. ...
... these simple calculation give us the exact day & time of rainfall. ...
Earth Moon Sun Jeopardy
... What can you tell us about the season and the solar energy received by the northern hemisphere when it is tilted away from the Sun? ...
... What can you tell us about the season and the solar energy received by the northern hemisphere when it is tilted away from the Sun? ...
Document
... possible because of – Quantum Mechanics: the laws of QM are inherently stochastic; QM predicts the probability of what might happen, not what will actually happen – Possibility of chaotic behavior: very small differences in the initial conditions can have vastly different effects (a butterfly’s wing ...
... possible because of – Quantum Mechanics: the laws of QM are inherently stochastic; QM predicts the probability of what might happen, not what will actually happen – Possibility of chaotic behavior: very small differences in the initial conditions can have vastly different effects (a butterfly’s wing ...
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.