@arkizia_: Solve this classic internal combustion engine dynamics problem with full step-by-step calculations—we use kinematic relations, rotational dynamics, and force-moment equilibrium to find the piston’s acceleration, covering rigid body motion and Newton’s second law for engineering mechanics. #dynamics #mechanics #kinematics #engineeringphysics #stemstudent

ChiotJack :

I switched from EE to math after my freshman year mainly because I knew engineering was full of tedious bullshit like this (and also I just really had no interest in engineering)

I LOVE YOU I LOVE YOU I LOVE Y :

Average 1940s high school entrance exam

Unknown :

Dynamics, one of the most enjoyable courses

Tonik :

The provided solution is inconsistent with the stated moments of inertia. Using I_A = 0.003 kgm² and I_G = 0.004 kgm², the piston acceleration is approximately 39.96 m/s² to the left. The published result of 53.15 m/s² is obtained only if both moments of inertia are ten times smaller. Therefore, the problem statement likely contains a factor-of-ten printing error.

vemo :

I fckn love this so much

simon :

Mechanics be like yooo how much time can I waste.

yes, I was born yesterday😏 :

should I shift to mechanical engineering?

mmm :

what year is this

я σ м ã σ ♟️ :

Musafir :

Im in college which topics i should focus if i want mechanical eng?

🫠 :

Jack Milford :

turn it off and on again 👍🏻

v,..,v :

Static velocity does not imply zero acceleration. It highlights the key concept many folks miss in this problem

Auth Finder :

Jarr :

It’s actually easy if you memorize the fomula

🇹🇷αтακαи🇹🇷 ༽ :

Do you use complex Numbers to solve the equation?????

Melee 🧪 :

Complex numbers ..?