A particle executing SHM has angular frequency of and amplitude of . Deduce(i) time period(ii) maximum velocity(iii) maximum acceleration(iv) velocity when the displacement is 3 m.
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in SHM, the displacement of a particle from mean equilibrium position is given by
x = A Sin (ω t + Ф)
given ω = angular freq = π rad/ sec
A = amplitude = 5 m
Time period = T = 2π /ω = 2 Seconds.
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instantaneous velocity of the particle: v = dx/dt = A ω Cos (ω t + Ф)
maximum velocity = A ω = 5 m * π rad/sec = 5 π m/sec.
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acceleration = dv/dt = - A ω² Sin (ωt +Ф)
maximum acceleration = A ω² = 5 * π² m/sec²
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displacement x = 5 Sin (ωt + Ф) = 3 meters
=> Sin (ωt + Ф) = 3/5
=> Cos (ωt + Ф) = √(5²-3²) /5 = 4/5
velocity = v = A ω Cos (ω t + Ф) = 5 * π * 4/5 = 4 π m/sec
x = A Sin (ω t + Ф)
given ω = angular freq = π rad/ sec
A = amplitude = 5 m
Time period = T = 2π /ω = 2 Seconds.
===
instantaneous velocity of the particle: v = dx/dt = A ω Cos (ω t + Ф)
maximum velocity = A ω = 5 m * π rad/sec = 5 π m/sec.
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acceleration = dv/dt = - A ω² Sin (ωt +Ф)
maximum acceleration = A ω² = 5 * π² m/sec²
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displacement x = 5 Sin (ωt + Ф) = 3 meters
=> Sin (ωt + Ф) = 3/5
=> Cos (ωt + Ф) = √(5²-3²) /5 = 4/5
velocity = v = A ω Cos (ω t + Ф) = 5 * π * 4/5 = 4 π m/sec
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