As distance from the Sun increases, the composition of planets changes primarily due to temperature variations in the early solar system. Closer to the Sun, the high temperatures favor the formation of rocky planets like Mercury, Venus, Earth, and Mars, which are composed mainly of metals and silicates. In contrast, the outer planets—Jupiter, Saturn, Uranus, and Neptune—are gas giants or ice giants, composed largely of lighter elements and compounds such as hydrogen, helium, and ices (water, ammonia, methane) that can condense at lower temperatures. This gradient creates a distinct division between terrestrial and jovian planets based on their distance from the Sun.
The number of dwarf planets constantly changes because new objects in the solar system are being discovered and classified. These objects need to meet certain criteria to be considered dwarf planets, so as our technology and understanding of the universe improve, the number of known dwarf planets can increase or decrease.
Depends on which gravitational force you're talking about. If the object is moving from Earth toward the sun then the sun's gravitational force of attraction on the object will become larger but the Earth's gravitational attraction on the object will become smaller. The net gravitational force, due to both Sun & Earth will at first be large, directed toward the Earth. Then decrease to zero somewhere out in space (as the two forces become equal & opposte). Then get very large near the Sun and directed toward the Sun.
It depends on the distance between the Earth and Jupiter. Since Jupiter is much further away from the sun than the Earth, it takes longer for it to make a rotation around the sun. This difference in the speed at which the two planets orbit the sun leads to differences in their distance to one another over the span of months and years. Generally of course the closer the two planets are from one another, the greater brightness that Jupiter appears to us.
The outer planets take longer to orbit the Sun, because they are farther away from the Sun. It make its gravitational pull weaker to the farther planets. That means that the outer planets take longer to orbit the Sun.
Planets that are farther from the sun have longer orbital periods due to the influence of gravity. The gravitational force between the sun and a planet decreases with distance, so planets farther out experience weaker gravitational pulls, resulting in slower orbital speeds. This explains why outer planets like Neptune have longer orbital periods compared to inner planets like Mercury.
To make the peak or crest of a wave higher, you can increase the amplitude of the wave. Amplitude refers to the maximum distance a particle moves from its rest position. By increasing the energy or force behind the wave, you can increase its amplitude, resulting in a higher peak or crest.
The number of dwarf planets constantly changes because new objects in the solar system are being discovered and classified. These objects need to meet certain criteria to be considered dwarf planets, so as our technology and understanding of the universe improve, the number of known dwarf planets can increase or decrease.
Depends on which gravitational force you're talking about. If the object is moving from Earth toward the sun then the sun's gravitational force of attraction on the object will become larger but the Earth's gravitational attraction on the object will become smaller. The net gravitational force, due to both Sun & Earth will at first be large, directed toward the Earth. Then decrease to zero somewhere out in space (as the two forces become equal & opposte). Then get very large near the Sun and directed toward the Sun.
Levers are used to multiply force, change the direction of force, or increase the distance through which a force acts. They allow us to lift heavy objects with less effort, change the direction of force to make tasks easier, or increase the speed of movement by reducing the effort needed. Levers are fundamental tools in many mechanical systems, from simple tools to complex machinery.
It depends on the distance between the Earth and Jupiter. Since Jupiter is much further away from the sun than the Earth, it takes longer for it to make a rotation around the sun. This difference in the speed at which the two planets orbit the sun leads to differences in their distance to one another over the span of months and years. Generally of course the closer the two planets are from one another, the greater brightness that Jupiter appears to us.
To adjust the distance of a sprinkler head, locate the screw on the top of the sprinkler head and turn it clockwise to decrease the distance or counterclockwise to increase the distance. Make small adjustments and test the spray pattern until you reach the desired distance.
Planets do not make up the Earth's crust.
Planets do not make up the Earth's crust.
distance from a source of light and how long it takes to orbit that source
To create a concept map with the terms "work," "force," "distance," "machine," and "mechanical advantage," you can start by connecting "force" and "distance" to represent the concept of work. Then, you can link "machine" to show how it can change the amount of force needed to do work. Finally, you can connect "mechanical advantage" to demonstrate how machines can increase force or distance to make work easier.
The outer planets.
This question doesn't make sense to me.