Faculty of
Science and Technology
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Full marks: 100 |
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Course title: Engineering Geology (3-0-2) |
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Pass marks: 45 |
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Nature of the course:
Theory, Practical &Field survey |
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Total lectures: 45 hrs |
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Level: Bachelor |
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Program: BE |
1.
Course Description
This course intends to enable the students to
be acquainted with the basic concept of engineering geology and its relations
with civil engineering. Students will be familiarized with the fundamentals of
engineering geology focusing on different types of rocks, geological structures
and their importance in civil engineering structures.
2.
General Objectives
This course has
been designed to provide basic knowledge of geology to the students of civil
engineering. It would be helpful for them to understand how to identify the
different types of rocks, minerals, geological structures, geological processes
and their impacts on engineering structures.
At the end of this course the students will be able:
·
To
identify the different types of rocks and their significance
·
To
develop skills on geological interpretation for engineering structures and
natural phenomena.
·
To
enhance the knowledge on hydro-geology, engineering geology, geological setting
of the Himalaya.
3.
Methods of Instruction
Lecture,
Tutorial, Discussion, Readings and Practical works
4.
Contents in Detail
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Specific Objectives |
Contents |
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Introduces geology and engineering geology,
different branches of geology and its scope in the field of civil engineering |
Unit I: Introduction
to Engineering geology (3 hrs) 1.1
Definition of geology and branches of geology 1.2
Introduction of engineering geology (definition
according to IAEG) 1.3
Scope and objective of engineering geology in the
field of civil engineering 1.4
Introduction to engineering geological system(EGS) Click here for the notes of this Chapter |
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Define
the internal structure of earth and the mobility of plates |
Unit II: Structure of Earth (3hrs) 2.1 Internal structure of the Earth 2.2 Plate tectonics and mountain
building process 2.3 Origin of Himalaya Click here for the note of this chapter |
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Know and understand rock forming mineral |
Unit III: Mineralogy (3 hrs) 3.1
Introduction of minerals and crystal 3.2 Physical
properties of minerals 3.3 Rock
forming minerals and their engineering significance Click here for notes of this chapter |
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Enhance to knowledge on different types of rocks and their
characteristics. |
Unit IV: Petrology (6 hrs) 4.1Petrographic
classification of rocks and rock cycle 4.2
Introduction, classification, structure, texture, uses and engineering
significance of igneous rock, sedimentary rock and metamorphic rock 4.3
Identification criteria of sedimentary, metamorphic and igneous rock in the
field. Click here for the notes of this chapter |
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Classify
the main geological features and identity the problem related to it Measure
the different types of geological data for rock mass classification. |
Unit V: Structural geology (10 hrs) 5.1
Rock deformation and its reason 5.2
Primary and secondary structures 5.3 Introduction
to rock deformation reasons and its effect 5.4
Attitude of geological structures (Dip, Strike, Plunge, Trend) 5.5
Study of folds faults, joint and unconformity 5.6
Identification criteria of geological structures in the field 5.7
Study of rock mass (classification, Rock
Mass Rating,
NGI-Q system and geological strength index(GSI) 5.8
Introduction of bore hole and bore hole problems Click here for the notes of this chapter |
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Provide
broad concept of how the earth’s surface changes owing to numerous earth processes,
slope movement and slope collapse Identify
the importance of geological phenomena Provide
basic understanding of rock discontinuity for slope stability analysis. |
Unit VI: Geomorphology and geological
hazard (6 hrs) 6.1 Introduction to hazard,
vulnerability, risk,danger. Various landforms produced by geological
agent(running water, glacier, wind and ground water) 6.3 Study of earth processes (Weathering, erosion,
subsidence, expansive soil, mass wasting, volcanism ,Earthquake, flood and
GLOF) and the effect on development of surfaces of the earth 6.4 Kinematic analysis of discontinuity for slope
stability analysis using stereographic projects and Hoek-Brown failure
criterion Click here for the notes of this chapter |
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Familiarize
the basics of the subsurface water problem and its engineering implications. |
Unit VII: Hydrogeology (2 hrs) 7.1 River channel morphology 7.2 Introduction of aquifer and ground water movement 7.3 Mechanism of spring water engineering and significance of sub-surface water movement 7.4 Aquifer system in the context of Nepal Click here for the notes of this Chapter |
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Enhance
the knowledge on site investigation interpretating different maps for site
investigation |
Unit VIII: Site Investigation(6 hrs) 8.1 Elements of an investigation, types of site investigation (Direct and indirect methods) 8.2 Study of topographic, geological and engineering geological maps, satellite imagery and SAR image 8.4 Geological investigation for dam, reservoir, road, building, bridges and underground excavation Click here for the notes of this chapter |
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Get
familiar with the major geology of the Nepal Himalaya with their engineering
significance. |
Unit IX: Geology of Nepal(3hrs) 9.1
Geological subdivision of the Nepal Himalaya 9.2
Engineering geological problem of each geological division of Nepal 9.3
Major rock type, Soil type, construction material found at the different
zones of Nepal Click here for the notes of this chapter |
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Explain
the concept of reserve estimation methods. |
Unit X: Study of Reserve Estimation of
Construction material (3hrs) 10.1
Types of reserves 10.2
Introduction to methods of estimation of reserve 10.3
Role of different types of maps for construction material survey Click here for the notes of this chapter |
Note: The figures in the parentheses
indicate the approximate periods for the respective units.
5.
Tutorials
The
following tutorial activities of 15 hours per group of maximum 24 students
should be conducted to cover all the required contents of this course:
|
SN |
Topics |
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1 |
Study drawings of various geological structure |
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2 |
Solve the
bore hole/three-point problems |
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3 |
Stereographic
projection (plane and pole) |
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4 |
Kinematic
analysis of slope stability (stereographic projection and Hoek-Brown failure
criteria) |
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5 |
Interpretation of
topographical, geological and engineering geological maps |
6.
Practical Works (15
hours for a group of maximum 24 students)
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SN |
Topics |
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1 |
To identify the rock forming minerals |
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2 |
To identify the rocks (Igneous ,sedimentary and
metamorphic) |
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3 |
Interpretation
of topographical map |
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4 |
Solving the problem of geological map |
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5 |
Preparation of engineering geological map |
A three-day fieldwork to provide practical on-site knowledge on
Petrology, Structural geology, Geomorphology, Geo-hazards, River morphology,
Rock mass, and Engineering geological site investigation. Students submit
report after the fieldwork (Attendance in Fieldwork is Compulsory).
7.
Evaluation System
In
addition to the formal exam(s), the internal evaluation of a student may
consist of quizzes, assignments, lab reports, projects, class participation,
etc. The tabular presentation of the internal evaluation is as follows.
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Internal Evaluation |
Weight |
Marks |
External Evaluation |
Marks |
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Theory |
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20 |
Semester-End
examination |
50 |
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Attendance
&Class Participation |
10% |
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Assignments |
20% |
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Presentations/Quizzes |
10% |
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Term exam |
60% |
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Practical and field survey |
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15+15 |
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Attendance
&Participation |
10% |
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Report |
10% |
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Viva |
20% |
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Exam |
60% |
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Total
Internal |
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50 |
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Full Marks:
50 + 50 = 100 |
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Student’s
Responsibilities
Each
student must secure at least 45% marks separately in internal assessment and
practical evaluation with 80% attendance in the class to appear in the Semester
End Examination. Failing to get such score will be given NOT QUALIFIED (NQ) to
appear the Semester-End Examinations. Students are advised to attend all the
classes, formal exams, test, etc. and complete all the assignments within the
specified time period. Students are required to complete all the requirements
defined for the completion of the course.
8.
Prescribed Books and References
Text Book
1.
Bell, F.
G. (2006). Engineering Geology. 2nd Edition, Elsevier.
2.
Krynine,
D., & Judd, W. R. (2005). Principles of Engineering Geology and
Geotechnics. CBS Publishers.
References book
1.
Deoja, B.,
Dhital, M., Wagner, A., & K.B, T. (1991). Mountain Risk Engineering
Handbooks I and II. ICIMOD.
- Dhital,
M.R., Geology of the Nepal Himalaya, Springer International Published,
Switzerland, (2015)
- Price, D.
(2009). Engineering Geology- Principles and Practice. (M. H. de Freitas,
Ed.) Springer.Hoek, E., and Brown, E.T. (2019). The Hoek-Brown
failure criterion and GSI-2018 edition, Journal of Rock Mechanics and
Geotechnical Engineering, 11, 445-463.
- Vallejo, L.G.de., Ferrer,
M., 2011. Geological Engineering, Routledge, Taylor and Francis Group,
