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  1. Seismology Basics: Physical Understanding

    • Basic wave properties: amplitude, wavelength, frequency
    • Elasticity, stress, and strain
    • Math & Physics of Ray Propagation:
      • Wave solutions
      • Snell’s Law
      • Ray paths
      • Travel times
      • Group vs. phase velocity
    • Decibels, signal-to-noise ratio, dynamic range
  2. Measurements

    • Seismic Sources & Waves: Active vs. Passive sources, P and S waves, Seismograms, Energy partitioning
    • Differences between Earthquake Seismology and Exploration Seismology
    • Instrumentation:
      • Geophones
      • Broadband seismometers
      • Digitizers
  3. Field Deployment

    • Survey Design: Networks, arrays, channel grouping, shot spacing
    • Geometry: Network geometry, station spacing, spatiotemporal resolution
    • Design surveys starting from a geologic target
    • Instrumentation:
      • Source/Receiver Fundamentals
      • Instrument mechanics and deployment
    • Other field techniques: GPS, field note-taking, compass orientation
  4. Processing/Modeling

    • General workflows for both active and passive seismic data
    • Data formats: SEG-Y, SEED
    • Metadata handling
    • Active Seismic Processing:
      • Seismic Unix
      • Shot record processing
      • Static corrections
      • NMO
      • CDP stacking
    • Passive Seismic Analysis:
      • H/V spectral ratio
      • Beamforming
      • Earthquake signal detection
    • Linking seismic data to subsurface geology
  5. Interpretation

    • Rock Properties: Velocity variations with lithology, porosity, and other factors
    • Integration with geologic models to interpret seismic data meaningfully