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DRPS : Course Catalogue : School of Geosciences : Earth Science

# Undergraduate Course: Geophysical Measurement and Modelling (EASC10110)

 School School of Geosciences College College of Science and Engineering Credit level (Normal year taken) SCQF Level 10 (Year 3 Undergraduate) Availability Available to all students SCQF Credits 20 ECTS Credits 10 Summary This course is about geophysical modelling and measurement, with selected practical examples. It includes the theory of geophysical fields and waves and both passive and active geophysical measurements. It also includes Fourier analysis and filter theory which form the rationale for the sampling and manipulation of the data. The course introduces examples of the measurement of geophysical parameters both in the field and in the laboratory, with special attention to the handling of uncertainties in measured quantities. Practical exercises involve both acquisition and interpretation of the data. Course description Semester 1 Lectures Week 1 Introductory lecture. Handling errors in scientific measurements; accuracy and precision in measurements. 2 Practical: Gravimetry and statistical data analysis -Computer exercise 3 Practical: Rock density - Laboratory and computer exercise 4 Practical: Thermal diffusivity of a rock core - Laboratory and computer exercise. Note that timetabling of practicals from week 4 onwards is subject to change and will be explained by the course organiser 5 No lecture 6 Practical: Seismic velocities - Laboratory exercise. 7 No lecture 8 Lecture: Meteorological measurements: atmospheric turbulence. Practical: Meteorological measurements - Computing exercise. 9 No lecture 10 No lecture Semester 2 Lectures 1 Telegraph equation and acoustic wave equation: derivation of Telegraph equation; total time derivative and partial time derivative; acceleration of a particle; linearization; equation of continuity; pressure waves in a fluid; constitutive equation; 1-D, 2-D and 3-D acoustic wave equations; solution to the 1-D wave equation. 2 Potential fields: Newton's law of gravitation; gravity; gravitational potential; Laplace's equation; satellite orbits, Kepler elements and real satellite motion; Poisson's equation; force due to electric charge and magnetic poles 3 Seismic waves: components of strain and stress; equations of motion in an elastic medium; Hooke's law of elasticity; elastic wave equations, P-waves and S-waves; particle motion of a plane wave; solutions to the wave equation; normal modes: oscillations of a string. 4 electromagnetic (EM) Waves and heat flow: Maxwell�s equations; EM constitutive relations; EM wave equations; plane wave solutions of the EM wave equations, skin depth, wavelength; EM propagation in air and free space; EM propagation in conducting media; diffusion equation. Heat flow in solids. 5 Fourier Analysis and Filter Theory: Fourier transform; the delta-function; resolution and bandwidth; similarity theorem; impulse function; impulse response; linear filters and convolution; convolution theorem; derivative theorem; wavefield transformation. Sampling theorem and aliasing; filtering; correlation and autocorrelation; deconvolution; effects of noise; upward and downward continuation. 6 Passive Geophysical Measurements: gravity anomalies; gravity meters, measurements and corrections; gravity gradiometry and gravity measurement on a moving vessel or aeroplane; non-uniqeness of gravity interpretation; magnetics; heat flow; the magnetotellurics method; classical seismology; Adams-Williamson equation 7 Active geophysical measurements (1) seismic exploration and seismic data acquisition; reflection coefficients for acoustic waves and elastic waves - Zoeppritz equations; seismic exploration and normal moveout correction and stacking; controlled source electromagnetics (CSEM) and the role of fluids; conventional CSEM; transient CSEM and MTEM; 8 controlled source electromagnetics (CSEM) and the role of fluids; conventional CSEM; transient CSEM and MTEM. 9 Theory - Green's theorem, seismic interferometry and receiver functions. 10 Reserved for revision
 Pre-requisites Co-requisites Prohibited Combinations Other requirements None
 Pre-requisites Approval of the Course Organiser. High Demand Course? Yes
 Academic year 2016/17, Available to all students (SV1) Quota:  None Course Start Full Year Timetable Timetable Learning and Teaching activities (Further Info) Total Hours: 200 ( Lecture Hours 30, Seminar/Tutorial Hours 17, Supervised Practical/Workshop/Studio Hours 16, Feedback/Feedforward Hours 2, Summative Assessment Hours 3, Programme Level Learning and Teaching Hours 4, Directed Learning and Independent Learning Hours 128 ) Assessment (Further Info) Written Exam 70 %, Coursework 30 %, Practical Exam 0 % Additional Information (Assessment) Exam (70%) Coursework (30%) The coursework consists of five practical exercises. The students are expected to do all five and write a report on each in no more than four pages. Written feedback will be provided on the first report. One of the subsequent four-page reports, chosen by the student, will be assessed. The assessment will count for 30%. The three-hour exam will be on the whole course, including the practical exercises, and will count for 70%. Feedback Feedback will be given on the first practical exercise report, which will not be assessed. Tutorials will be held in most weeks to cover problems set in lectures Exam Information Exam Diet Paper Name Hours & Minutes Main Exam Diet S2 (April/May) Geophysical Measurement and Modelling 2:00
 On completion of this course, the student will be able to: demonstrate familiarity with essential mathematical techniquesdemonstrate familiarity with the application of classical physics to Earth problemsanalyse observational data including examples of statistical and numerical methods, graphical interpretation and computer modellingappreciate the manipulation of geophysical data to obtain physical properties of the Earthwrite a concise scientific report, or extended abstract, of no more than four pages
 Blackwell, J &Martin, J., 2011, A Scientific Approach to Scientific Writing, Springer Gauch, H.J., 2012, Scientific Method in Brief,, Cambridge University Press. Berendsen, J.C., 2011, A student's guide to data and error analysis, Cambridge University Press. Lowrie, W., Fundamentals of Geophysics, Cambridge University Press. Lowrie, W., A Student's Guide to Geophysical Equations, Cambridge University Press.
 Graduate Attributes and Skills Report-writing skills Keywords Geophysical equations,Fourier theory,data analysis,laboratory measurements,computer modelling
 Course organiser Prof Kathy Whaler Tel: (0131 6)50 4904 Email: Kathy.Whaler@ed.ac.uk Course secretary Miss Sarah Thomas Tel: (0131 6)50 8510 Email: Sarah.Thomas@ed.ac.uk
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