a. Jupiter is farther from the sun so the force of gravity on it is weaker.
b. A great deal of Jupiter’s volume is in the gas phase.
c. Most of Jupiter's mass is found in its rings and moons.
d. Jupiter’s internal heat serves as an outward force which counters gravity.
Answer:
A great deal of Jupiter’s volume is in the gas phase.
explaination???:
as we all know gas is less dense than solid, it would scatter more and u would see it bigger.
The total amount of mass in a system remains constant regardless of the changes that take place in that system.
Energy is neither created or destroyed; it only changes form.
Half-way down the ramp, PE = 50J and KE = 50J.
In this energy pyramid, all the energy from level is transferred to the next level.
In a closed system, i.e., a system that isolated from its surroundings, the total energy of the system is conserved.
All the statements regarding law of conservation of energy are true except for statement 2 stating energy changes half way down the ramp.
According to law of conservation of energy, it is evident that energy is neither created nor destroyed rather it is restored at the end of a chemical reaction .
Law of conservation of mass and energy are related as mass and energy are directly proportional which is indicated by the equation E=mc².Concept of conservation of mass is widely used in field of chemistry, fluid dynamics.
Law needs to be modified in accordance with laws of quantum mechanics under the principle of mass and energy equivalence.This law was proposed by Julius Robert Mayer in the year 1842.Energy of an isolated and closed system remains constant.
Learn more about law of conservation of energy,here:
#SPJ2
Answer:energy
Halfway
In a closed system..3
Explanation:
Answer:
The First One (On Odyssey Ware)
Explanation:
Well, if we've been paying attention in class, we already KNOW that the electrostatic force changes as the inverse square of the distance, and the top graph is conveniently labeled "Electrostatic Force".
But if we didn't already know that, we'd have to examine the graphs, and find the one where 'y' changes like 1/x² .
The top graph does that. After 1 unit of time, the force is 350. Double the time to 2 units, and the force should drop to 1/4 of 350 ... sure enough, it's a little less than 90. Double the time again, to 4 units, and it should drop to 1/4 of a little less than 90 ... by golly, it's down below 30.
The first graph is what an inverse square looks like. Now that you've worked out this graph, you'll know an inverse square relationship whenever you see it.