2018/19 Taught Postgraduate Module Catalogue

SOEE5174M Integrated Sub Surface Analysis

30 creditsClass Size: 30

Module manager: Dr Emma Bramham
Email: E.K.Bramham@leeds.ac.uk

Taught: Semester 2 (Jan to Jun) View Timetable

Year running 2018/19

Pre-requisite qualifications

MSc entrance qualifications

This module is mutually exclusive with

SOEE5128M	Petrophysics & GP Reservoir Ev
SOEE5171M	Seismic Reflection Interp

Module replaces

Replaces SOEE5171M and SOEE5128M for MSc Structural Geology ONLY

This module is not approved as an Elective

Module summary

This module provides theoretical and practical learning with the module focusing on integrating a suite of sub-surface data into a common data set to allow for the learning and skills achieved in parts A,B and C (see below) to be integrated in the final part D of the module, providing the student with a full understanding of how each component works together.The module is divided into four partsA) Petrophysics and borehole analysisB) Seismic Reflection interpretation and sequence stratigraphyC) Geocellular model construction and evaluation of structural Geology implications D) The final component of the module consists of an integrated practical where by a suite of data is provided and students, within a group environment, are expected to integrate these data and make an industry-style report on asset.

Objectives

On completion of this module students should be able to understand the underlying principals behind borehole data, seismic reflection data and fault models. They should be able to take these diverse data and integrate them into a single dataset. This will provide the opportunity to investigate how these different techniques are integrated in a workflow typical in both industry and the final independent research project.

Learning outcomes
In Part A students should be able to understand the fundamentals of petrophysics and its use in the analysis of cores and geophysical well logs for reservoir characterisation and hydrocarbon assessment. They should have acquired skills in the analysis of geophysical well logs for determining lithology, porosity and hydrocarbon saturation.

In Part B the student will be able to understand the principles and practice of interpreting seismic reflection data, in both a general geological and structural context and in a detailed sequence-stratigraphic context. The student will be able to produce 3D-based geological models by interpreting 2D seismic lines and 3D seismic cubes, both using paper sections and computer-based software.

In Part C students should be apply industry-standard 3D modelling/visualisation packages to building structural models and considered relationship between model horizons and faults. They should be able to construct 3D geo-cellular models and considered their application.

In Part D students will integrate the learning outcomes from Parts A-C using a single dataset and produce an industry style report. This will be undertaken as a group exercise to highlight the importance of team work in industry.

Syllabus

Part A

Petrophysics
- Formation Evaluation: geoelectrical properties
- Resistivity borehole logging
- Induction and SP logs
- Porosity Logs: sonic and density
- Porosity Logs: neutron and natural gamma ray
- Magnetic Nuclear Resonance Logs
- Image Logs and determination of lithology and porosity
- Fracture Analysis and seismic anisotropy
- Vertical Seismic Profiles (VSP): field procedures, travel-time relationships

Part B

Seismic interpretation:
- Context of reflection seismic data and basic principles of interpretation using hand and computer algorithms
- Use of seismic attributes for quantitative interpretation
- Seismic-to-well tie
- Velocity models, depth conversion and uncertainty analysis

Sequence stratigraphy:
- Sequence stratigraphy and chronostratigraphy for siliclastic sediments
- Linking seismic interpretation of sequence stratigraphy to well and outcrop parasequences
- Introduction to carbonate sequence stratigraphy
- Strategy and workflow for quantitative interpretation (seismic facies).

Part C

- The generation and interrogation of a faulted 3d geological data set within the 3D modelling programme, Petrel.
- Creating 3D surfaces and faults, geocellular volumes.

Part D

- Integrate the learning outcomes from Parts A-C using a single data in a group setting with minimum support provided by staff.

Teaching methods

Delivery type	Number	Length hours	Student hours
Group learning	1	60.00	0.00
Lecture	20	1.00	20.00
Practical	30	2.00	60.00
Tutorial	2	1.00	2.00
Private study hours			218.00
Total Contact hours			82.00
Total hours (100hr per 10 credits)			300.00

Private study

Private study will be for completion of practicals, assessments and final reports (to include literature searches, reading text books, computer excercises) and revision for examinations

Opportunities for Formative Feedback

Progress will be monitored by assessment and feedback throughout.

Methods of assessment

Coursework

Assessment type	Notes	% of formal assessment
Report	Part D - Individual Project Report	35.00
Practical	Part A – 2 x Assessed Practical	20.00
Practical	Part B - 3 x Assessed Practical	40.00
Presentation	Part D - 1 x Group Presentation	5.00
Total percentage (Assessment Coursework)		100.00

Part A (Petrophysics) – 6 credits; Part B (Seismic reflection + Seismic Stratigraphy) - 12 credits; Part C (Petrel) – 4 credits (assessment for this will be included within the Integrated Practical (part D) final report); Part D (Integrated Practical) – 8 credits

Reading list

The reading list is available from the Library website

Last updated: 03/09/2018

Disclaimer

Browse Other Catalogues

• Undergraduate module catalogue
• Taught Postgraduate module catalogue
• Undergraduate programme catalogue
• Taught Postgraduate programme catalogue

Errors, omissions, failed links etc should be notified to the Catalogue Team.PROD