HUNTERTUTORING

Mechanical vibrations

Undergraduate · Engineering

Syllabus focus

Standard syllabus · STEM / applied

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$60.00 · 60 min · Undergraduate · Online ($60/hr)

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Topics typically covered

Standard syllabus

Single-degree-of-freedom systems

  • Equation of motion: m ẍ + c ẋ + k x = f
  • Free vibration: natural frequency and damping ratio
  • Underdamped, critically damped, and overdamped response
  • Logarithmic decrement for damping estimation
  • Harmonic forcing and steady-state amplitude
  • Frequency response function magnitude and phase
  • Resonance and dynamic amplification factor
  • Base excitation and vibration isolation
  • Rotating unbalance as harmonic excitation
  • Energy methods for SDOF systems

Multi-degree-of-freedom systems

  • Two-DOF systems: natural modes and frequencies
  • Orthogonality of mode shapes for proportional damping
  • Modal analysis and modal superposition
  • Continuous systems: vibrating strings and beams
  • Boundary conditions and characteristic equations
  • Rayleigh's quotient for approximate frequencies
  • Finite element modal analysis workflow
  • Damping models: viscous, structural (intro)
  • Beat phenomenon in closely spaced modes
  • Measurement of FRFs with impact hammer testing

STEM / applied

Applications and control of vibration

  • Balancing of rotating machinery
  • Vibration absorbers and tuned mass dampers
  • Isolation mounts for sensitive equipment
  • Signal processing: FFT for experimental modal analysis
  • Rotordynamics and critical speeds (intro)
  • Vehicle ride comfort and suspension tuning
  • Structural health monitoring with vibration
  • Human vibration exposure standards
  • Lab: accelerometers, signal conditioners, and DAQ
  • Design project: mitigate resonance in a structure

Nonlinear and advanced survey

  • Nonlinear stiffness effects and jump phenomenon
  • Self-excited vibrations: flutter and chatter intro
  • Random vibration and PSD input (overview)
  • Passive versus active vibration control
  • Piezoelectric shunt damping
  • MEMS resonators and micro-scale vibration
  • Earthquake structural response link to dynamics
  • Computational modal analysis validation
  • FE vibrations topic alignment
  • Industry case studies: turbine blade failures

Notes

Topics reflect common engineering syllabi at US colleges and universities. Exact order, depth, and applied emphasis vary by institution, department, and instructor.