• Basic concepts on waves, time-domain Vs frequency domain. What is an anomaly, what is noise, SNR
• Seismic waves: volume and surface waves
• Wavefront and raypath, acoustic impedence, diffraction and convloution.
• Time-space relations for direct, refracted and reflected waves in horizontal and parallel strata
• Time-space relations for direct, refracted and reflected waves in inclined stratification.
• Refraction seismic, Snell law, critical refraction, reflection coefficient, limitations of the refraction method
• Reflection seismic, Common Shot Gathers, Common Mid Point.
• Precautions to perform a proper seismic acquisition.
• Fundamentals of seismic processing (NMO, Stacking, deconvolution, migration, depth conversion).
• Seismic velocities of rocks, methods for determination and importance of the velocity model.
• Surface waves, dispersion, main characteristics of the surface waves and seismostratigraphic characterization of construction sites as defined in the NTC2018 law.
• Surface waves methods: MASW, HVSR. Main characteristics, limitations and advantages.
• Electrical methods: resistivity of rocks, electrodes configuration for resistivity measurements, apparent res. Vs real res. ERT inversions
• Basic notions about spontaneous potential methods, induced polarization, TEM and TDEM methods and magnetotelluric methods.
• Ground Penetrating Radar (GPR), relation between GPR pulse velocity and EM properties of materials, resolution vs penetrationn of GPR signal as a function of antenna’s frequency, limitations due to high-conductivity materials, range of applications of GPR instruments.
• Fundamentals of geothermics. Heat flux, heat transfer, Fourier equation, thermal conductivity of natural materials, geothermal resources development and usage.
• Magnetic anomalies, magnetization and induced field, ACurie temperature -> Curie depth, magnetic susceptibility, paleomagnetism.
• Analysis of anomaly maps: intensity and wavelength of anomalies.
• Gravity anomalies: gravity data corrections, density of rocks, principles for interpretation of gravity anomalies.
• Anomalies filtering, forward modeling, inverse modeling.
• 4D geophysics: its significance, applications and capabilities.
• Laboratory exercise: 2D and 3D integrated modeling of geological and geophysical data for the crustal-scale investigation.