T = 2pi*sqrt(l/g)
Therefore Tm/TE = (2pi*sqrt(l/gm))/(2pi*sqrt(l/gE))
Further simplify: Tm/TE = sqrt(gE/gm)
Tm = sqrt(gE/gm) * TE
Tm = sqrt(9.81 m/s2 / 1.62 m/s2) * 1 s
Tm = 2.46 s
The motion will not be effected. If you build a pendulum in your garage that swings with a period of one second, then bring it on a train, it will again swing with a period of one second, provided the train moves uniformly.
That depends on the period of the clock's pendulum. If we assume it's one second, then it does 1800 cycles in half an hour.
1/4 Hertz or 1.4 per second.
If the length of the second pendulum of the earth is about 1 meter, the length of the second pendulum should be between 0.3 and 0.5 meters.
25m
Second's pendulum is the one which has 2 second as its Time period.
The motion will not be effected. If you build a pendulum in your garage that swings with a period of one second, then bring it on a train, it will again swing with a period of one second, provided the train moves uniformly.
The length of a pendulum affects its period of oscillation, but to determine the length of a specific pendulum, you would need to measure it. The formula for the period of a pendulum is T = 2π√(L/g), where T is the period, L is the length of the pendulum, and g is the acceleration due to gravity.
The period of a pendulum that takes one second to complete a to-and-fro vibration is one second. This means it takes one second for the pendulum to swing from one extreme to the other and back again. The period is the time it takes for one complete cycle of motion.
The time that it "takes" is the period.
The time period of a second pendulum from its extreme position to its mean position is one second. A second pendulum is a pendulum with a length such that its period of oscillation is two seconds when swinging between two extremes.
A pendulum clock works by utilizing the regular swinging motion of a suspended weight on a rod (the pendulum) to regulate the passage of time. The period of the pendulum's swing is usually set to one second, so each swing back and forth represents one second passing. The swinging motion of the pendulum powers the gears in the clock mechanism, allowing the hands to move in a precise and consistent manner to indicate the time.
The time period of a pendulum is determined by its length and gravitational acceleration. If the length of the second pendulum is one third of the original pendulum, its time period would be shorter since the time period is directly proportional to the square root of the length.
The period is 1 second.
The damped pendulum equation is derived from Newton's second law of motion and includes a damping term to account for the effects of air resistance or friction on the pendulum's motion. This equation describes how the pendulum's oscillations gradually decrease in amplitude over time due to the damping effects, resulting in a slower and smoother motion compared to an undamped pendulum.
Actually, the time for a complete to-and-fro swing of a pendulum is called its period, which is the time taken to complete one full cycle of motion. The frequency of a pendulum is the number of cycles it completes in a given time, usually measured in hertz (cycles per second).
Suppose that a pendulum has a period of 1.5 seconds. How long does it take to make a complete back and forth vibration? Is this 1.5 second period pendulum longer or shorter in length than a 1 second period pendulum?