Postgraduate Course: Seismic Reflection Interpretation (PGGE11144)
Course Outline
| School | School of Geosciences | 
College | College of Science and Engineering | 
 
| Credit level (Normal year taken) | SCQF Level 11 (Postgraduate) | 
Availability | Available to all students | 
 
| SCQF Credits | 10 | 
ECTS Credits | 5 | 
 
 
| Summary | The course introduces the seismic reflection method, including land and marine data acquisition and processing, with emphasis on the geological interpretation of seismic reflection data. The following topics are covered: the role of the seismic reflection method in exploration; basic principles of the seismic reflection method; subsurface velocities, reflection coefficient and acoustic impedance; seismic data acquisition, including sources and receivers, 2D and 3D source-receiver configurations; seismic data processing steps, including normal moveout and stack, static corrections, deconvolution and migration; sonic and density logs, check shots, well ties and vertical seismic profile (VSP); the seismic wavelet: bandwidth and resolution; seismic structural interpretation; seismic stratigraphic interpretation; Petrel interpretation software.  Practicals include the interpretation of a seismic reflection dataset using Petrel interpretation software. | 
 
| Course description | 
    
    Week 1 
Lecture 1	Introduction: the role of the seismic reflection method in exploration; echoes, sound propagation, the seismic reflection method and its applications, normal-incidence reflection and the seismic profile. 
 
Lecture 2	Seismic velocities: P-waves and S-waves; solids and fluids; reflection coefficient; acoustic impedance; primaries and multiples; thin layers.  
Practical:   Calculate depths and layer thicknesses from velocities and two-way travel times. 
 
Week 2  
Lecture 3	Estimating velocities from seismic data: normal moveout and stack; the effect on multiples; the zero-offset section; the effect of dip.   
 
Lecture 4	Seismic Data Acquisition: land and marine sources; land and marine receivers; 2D and 3D acquisition. 
Practical:  Calculation of reflection coefficients from physical properties of rocks and fluids for different interfaces. 
 
Week 3  
Lecture 5	Seismic data processing: near-surface effects and static corrections; common mid-point, normal moveout and stack; suppressing multiples and deconvolution; conversion from time to space and migration. 
 
Lecture 6	Structural Interpretation: faults, folds, unconformities, diapirism and salt tectonics. 	 
Practical: 	Approaching the seismic sections. 
 
Week 4 
Lecture 7	Stratigraphic interpretation: hydrocarbon traps, evidence of pinch-outs, reefs and channels; seismic facies analysis.     
 
Lecture 8	The seismic wavelet; frequency bandwidth; time and depth resolution; the pinch-out, or wedge. 
Practical: 	Introduction to Petrel. 
 
Week 5  	No lectures 
	Practical seismic interpretation with Petrel. 
 
Week 6  	No lectures 
	Practical seismic interpretation with Petrel. 
 
Week 7 
Lecture 9	Seismic-to-well tie: sonic log; density log; check shots; reflection coefficient series; synthetic seismogram; vertical seismic profile. 
 
Lecture 10 Seismic reports; introduction to the assessment. 
Practical: 	Seismic-to-well tie. 
 
Week 8 	No lectures 
Practical seismic interpretation with Petrel. 
 
Week 9 	No lectures 
Practical seismic interpretation with Petrel. 
 
Week 10 	No lectures 
Practical seismic interpretation with Petrel. 
 
Week 11 	Revision lecture.  Questions and answers 
    
    
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Entry Requirements (not applicable to Visiting Students)
| Pre-requisites | 
 | 
Co-requisites |  | 
 
| Prohibited Combinations |  | 
Other requirements |  None | 
 
| Additional Costs |  None. | 
 
 
Information for Visiting Students 
| Pre-requisites | None | 
 
		| High Demand Course? | 
		Yes | 
     
 
Course Delivery Information
 |  
| Academic year 2015/16, Available to all students (SV1) 
  
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Quota:  None | 
 
| Course Start | 
Semester 1 | 
 
Timetable  | 
	
Timetable | 
| Learning and Teaching activities (Further Info) | 
 
 Total Hours:
100
(
 Lecture Hours 24,
 Programme Level Learning and Teaching Hours 2,
Directed Learning and Independent Learning Hours
74 )
 | 
 
| Assessment (Further Info) | 
 
  Written Exam
0 %,
Coursework
100 %,
Practical Exam
0 %
 | 
 
 
| Additional Information (Assessment) | 
100% continuous assessment | 
 
| Feedback | 
Not entered | 
 
| No Exam Information | 
 
Learning Outcomes 
    On completion of this course, the student will be able to:
    
        - Understand the basic principles of the seismic reflection method
 - Understand the relationship between time and depth and the effect of dip
 - Understand the importance of well ties and knowing the seismic wavelet
 - Carry out a geological interpretation of a seismic section and make maps of seismic horizons
 - Write a seismic report
 
     
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Reading List 
Suggested reading  
 
McQuillin, R. M., Bacon, M., and Barclay, W. An Introduction to Seismic Interpretation. W. Graham & Trotman, 1984 - 287 pages. |   
 
Additional Information
| Graduate Attributes and Skills | 
Not entered | 
 
| Keywords | Not entered | 
 
 
Contacts 
| Course organiser | Prof Anton Ziolkowski 
Tel: (0131 6)50 8511 
Email: anton.ziolkowski@ed.ac.uk | 
Course secretary | Mr Edwin Cruden 
Tel: (0131 6)50 2543 
Email: Edwin.Cruden@ed.ac.uk | 
   
 
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© Copyright 2015 The University of Edinburgh -  18 January 2016 4:34 am 
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