Uploaded November 2024 | Updated September 2026, 1 week ago
Masses and Springs
We derive the famous mass spring ode, which models the motion of a mass attached to a spring. This differential equation depends on the mass of the object, the damping constant of the spring (think friction) and the spring constant. It usually causes large oscillations and sometimes even damping and resonance. This derivation is based both on Newton's second law but also on Hooke's law. This is a must see for any aspiring mathematician and physicist, and gives a great application of second order differential equations
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Masses and Springs
We derive the famous mass spring ode, which models the motion of a mass attached to a spring. This differential equation depends on the mass of the object, the damping constant of the spring (think friction) and the spring constant. It usually causes large oscillations and sometimes even damping and resonance. This derivation is based both on Newton's second law but also on Hooke's law. This is a must see for any aspiring mathematician and physicist, and gives a great application of second order differential equations
Subscribe to my channel: youtube.com/drpeyam
Instagram: instagram.com/peyamstagram
Teespring merch: dr-peyam.creator-spring.com/?










