The light signal would reach Earth first because light travels faster than radio waves in a vacuum. In space, light travels at the speed of approximately 186,000 miles per second, while radio signals travel at the speed of light.
At the moment - according to the Wikipedia article (see related link) it takes about 16 hours for signals sent from Voyager to reach Earth. At least that's what it says in the section titled 'Current Status'
You can calculate the time it takes for a radio wave to reach a star using the speed of light, which is approximately 186,282 miles per second. Since the star is 5 light years away, you would multiply 5 by the number of seconds, minutes, or hours in a year (31,536,000 seconds, 525,600 minutes, or 8,760 hours) to find the time it takes for the radio wave to reach the star.
It takes about 1 hour and 24 minutes for a radio signal to travel from Earth to Saturn when the two planets are at their closest point. This distance can vary depending on the positions of the two planets in their orbits.
To calculate the time it takes for a radio signal to travel from a space probe near Pluto to Earth, we can use the speed of light, which is approximately 299,792 km/s. Given the distance of 6,000 km, the time can be calculated using the formula: time = distance/speed. Thus, time = 6,000 km / 299,792 km/s, which is approximately 0.020 seconds. Therefore, it takes about 0.020 seconds for the radio signal to reach Earth.
The light signal would reach Earth first because light travels faster than radio waves in a vacuum. In space, light travels at the speed of approximately 186,000 miles per second, while radio signals travel at the speed of light.
It would take approximately 2.5 million years for a radio signal to travel from Earth to the Andromeda galaxy, which is about 2.5 million light-years away.
The time it takes for a radio signal to travel from Earth to the moon and back can be calculated using the formula: Time = Distance / Speed of Light. The speed of light is about 299,792 kilometers per second. So, Time = (382,000,000 * 2) / 299,792 = 508.8 seconds. Therefore, it takes approximately 508.8 seconds for a radio signal to reach the moon and return to Earth.
0.301 seconds
At the moment - according to the Wikipedia article (see related link) it takes about 16 hours for signals sent from Voyager to reach Earth. At least that's what it says in the section titled 'Current Status'
Radiation can move through space because it is made up of light. Unlike sound, it doesn't need a medium (something it can go through) and it can travel through the vacuum. Only light can do this, and radiation can also move through air, obviously.
You can calculate the time it takes for a radio wave to reach a star using the speed of light, which is approximately 186,282 miles per second. Since the star is 5 light years away, you would multiply 5 by the number of seconds, minutes, or hours in a year (31,536,000 seconds, 525,600 minutes, or 8,760 hours) to find the time it takes for the radio wave to reach the star.
If a volume knob has a high resistance, then the radio's volume would be low because more of the electrical signal would be resisted and not reach the amplifier and thus not reach the speakers.
It would take 100 Earth years for a signal to travel from a star located 100 light years away to reach Earth.
The radio signal can travel to the moon, bounce off its face, and reach an operator on the other side of the world. You can even talk to the International Space Station!
It takes about 1 hour and 24 minutes for a radio signal to travel from Earth to Saturn when the two planets are at their closest point. This distance can vary depending on the positions of the two planets in their orbits.
It's the time it takes a radio signal to travel from one place to another, the time it takes a light beam to travel from one end of the fiberoptic cable to the other end, the time it takes an electrical signal to travel from one side of a circuit board to the other side, etc., things like that. If you're listening to the baseball game on the radio, it doesn't much matter how long it took the signal to reach you from the transmitting tower. But if the radio signal is being used to control a high-speed passenger train, or a drone aircraft on a counter-insurgency mission, or a robotic rover digging in the dirt on Mars, then the time it takes the radio signal to get there does make a difference.