Yes, a simple pendulum consists of a mass (bob) attached to a string fixed at a pivot point - this can be easily constructed using everyday materials. By ensuring the string length is much longer than the amplitude of the swing and minimizing air resistance, the pendulum's motion can closely approximate that of an ideal theoretical simple pendulum.
Yes, a pendulum will eventually stop swinging due to factors such as air resistance and friction, which gradually slow down its motion.
A pendulum will eventually come to a stop due to air resistance and friction, which absorb the pendulum's energy over time. The rate at which the pendulum's motion slows down depends on the amount of resistance it encounters and the initial energy imparted to it.
Without going through all the derivations, unless some one wants me to (I could show you my physics notes), the equation for a period of a pendulum with small amplitude (meaning reasonable amplitudes, i.e. less than 45O from the normal) is : T = 2 * Pi * sqrt(L / g) where L is the length of the pendulum g is the acceleration due to gravity where ever the pendulum is (9.8 m/s2 on earth)
Thermal expansion can affect the accuracy of a pendulum clock by changing the length of the pendulum rod, which alters the period of oscillation. This change in period can lead to variations in the clock's timekeeping accuracy. To mitigate this effect, high-quality pendulum clocks are typically designed with compensating mechanisms or materials that minimize the impact of thermal expansion.
No. The pendulum will slow down by drag from air molecules until the motion becomes exactly the same as random motion caused by the air molecules. But I know what you are looking for-- "Isn't there some tiny detectable motion, even if you can't see it?" Let's look at a hanging pendulum that has NEVER been swung. If we tape a tiny mirror to it and bounce a laser beam off it, we will see a spot on the wall that vibrates from thermal (and ignoring environmental) noise. The average motion will NOT be zero in any finite time. BUT the average motion of the pendulum caused by noise will ALWAYS have some positive value depending on temperature (well, okay...zero at absolute zero). When the original swinging pendulum's motion equals the motion caused by random thermal noise, then the motion is ZERO. So it's a much better question than you might have thought! Quantum Mechanically the problem is even more interesting, since there is a small but finite possibility that the pendulum will launch itself into orbit without warning, but it all depends on statistics.
a horde of ratsa sharpened pendulum getting ever nearera bottomless pit with wall closing in.
a horde of ratsa sharpened pendulum getting ever nearera bottomless pit with wall closing in.
Yes, a pendulum will eventually stop swinging due to factors such as air resistance and friction, which gradually slow down its motion.
A pendulum will eventually come to a stop due to air resistance and friction, which absorb the pendulum's energy over time. The rate at which the pendulum's motion slows down depends on the amount of resistance it encounters and the initial energy imparted to it.
*Harmful/Harmless *legal/Illegal *safe/Unsafe *Righty Lefty good luck with what ever ya doin
Without going through all the derivations, unless some one wants me to (I could show you my physics notes), the equation for a period of a pendulum with small amplitude (meaning reasonable amplitudes, i.e. less than 45O from the normal) is : T = 2 * Pi * sqrt(L / g) where L is the length of the pendulum g is the acceleration due to gravity where ever the pendulum is (9.8 m/s2 on earth)
honestly nothings ever simple.
"Have You Ever Seen the Rain" is a song by Creedence Clearwater Revival from their album "Pendulum" released in 1970.
it was Pendulum this was in 1941. he became a full-time writer in 1942 ur welcome :*
Simple Plan is a band
Thermal expansion can affect the accuracy of a pendulum clock by changing the length of the pendulum rod, which alters the period of oscillation. This change in period can lead to variations in the clock's timekeeping accuracy. To mitigate this effect, high-quality pendulum clocks are typically designed with compensating mechanisms or materials that minimize the impact of thermal expansion.
The only way Hammurabi and Sargon could ever be related is that they were both emperors. Up to today, there has been no evidence suggesting that Sargon and Hammurabi were ever related. Your answer in simple terms: NO.