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Program Description
- Calculate beam deflection for four different support/loading systems
- Use Runge-Kutta method to solve a LRC circuit or equivalent damped mass-spring problem
- Response of a 1 dof Mass-Spring System with damping to a sinusoidal input force
- Response of a 1dof Mass-Spring System with viscous damping to a periodic input force:
M X" + C X' + K X = F(t)
- Frequencies and Modes of Mass-spring Systems without Damping By Transfer Method
- Response of a N d.o.f. Mass-Spring System with Damping to a sinusoidal Force
By Transfer Matrices Method
- Frequencies and eigenmodes, masses and modal stiffnesses of a Mass-Spring undamped system
represented by Motion Equation: [M] . [X]" + [K] . [X] = [0].
- Response of a N d.o.f. Mass-Spring System with Damping to a sinusoidal Force By a Direct Method
- Step by step solution of system [M] X" + [C] X' + [K] X = F(t) By the "Wilson-Theta" Method
- Resonance Frequencies of a bending beam, Modal Mass and Stiffness, Deformation modes
and Maximum Strain
- Differential equations with p variables of order 1 by Runge-Kutta method of order 4
(used by program pendulum)
- Calculate angular motion of an elementary Mass Pendulum
- The Bouncing Ball NEW
- EF3D: small finite elements demonstration program
- Calculate the stresses in a unidirectional layer of a composite material, knowing deformations
exx, eyy, gxy, and angle theta of fibers in x direction
- Calculate the matrix linking the stresses to deformamations in a laminated material made of
n unidirectional composite layers
- Calculate the deformations and stresses in a laminated material made of n unidirectional composite
layers, knowing the resulting imposed efforts
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