
DEPARTMENT of MINING
ENGINEERING
Introduction:
Mining Engineering Department of the Isfahan
University of Technology (IUT) offers two Bachelor of Science degrees (B.Sc.)
in Mining Exploration and Mining Exploitation. Mining Exploration and Rock Mechanics are also
offered as the two master degrees at the graduate level.

RESEACH ACTIVITIES AND INTERESTS
The
department of Mining Engineering consists of three main programs of Mining
exploration, Mining Exploitation and Rock Mechanics. The research activities
and industrial projects are basically done in the graduate levels individually
or by teams, mostly in Mining Exploration and Rock Mechanics. The industry oriented research and projects
are done in our university-based company (Zamin Pajouhan Ofogh).
The
research activities and research interests of the Department and the
university-based company are as follows.
1- Mining Exploration
Mining or mineral exploration is
the joint application of procedures and techniques capable of finding ore
deposits (commercially viable concentrations of minerals) for mining industry.
Mineral exploration is a much more intensive, organized and professional form
of mineral prospecting and, though it frequently makes use of prospecting, it
is more detailed and extensive. Stages of mineral exploration include area selection, target definition or generation, resource
evaluation, reserve definition and evaluation. Exploration geophysics,
exploration geochemistry, remote sensing, GIS, resource/reserve evaluation and
oil exploration are the main research interests in Mining Exploration section
of the faculty.
Exploration Geophysics: Exploration geophysics is the applied branch of geophysics which uses surface methods to measure the physical properties of the subsurface Earth, in order to detect or infer the presence and position of concentrations of ore minerals and hydrocarbons. In general, geophysics is the study of the Earth by the quantitative observation of its physical properties, in particular by seismic, electromagnetic, radioactivity, Induced Polarization (IP/RS), Resistivity (RS) and potential field (such as gravity and magnetism) methods. Exploration geophysics can be used to directly detect the target style of mineralization, via direct measurement of its physical properties. For example, one may measure the density contrasts between iron ore and silicate wall rocks, or may measure the conductivity contrast between conductive sulfide minerals and barren silicate minerals. Exploration geophysics is also used to map the subsurface structure of a region, to elucidate the underlying structures, spatial distribution of rock units, and to detect structures such as faults, folds and intrusive rocks. This is an indirect method for assessing the likelihood of ore deposits or hydrocarbon accumulations.
At Mining
Engineering Department, geophysical instruments such as Electrical techniques
(IP/RS) and ground magnetics are available and widely used in both
undergraduate and graduate research levels as well as in mineral exploration,
outside the department, in industry.
Exploration Geochemistry: The primary role of geochemistry, here used to
describe assaying or geological media, in
mineral exploration is to find an area anomalous
in the commodity sought, or in elements known to be associated with the type of
explored mineralization.
Regional
geochemical exploration has traditionally involved the use of stream sediments
to target potentially mineralized catchments. Follow-up geochemical surveys
commonly use soils as the sampling media,
possibly via the collection of a grid of samples over the tenement or areas
which are amenable to soil geochemistry. Once the geochemical analyses are
returned, the data is investigated for anomalies (single or multiple elements)
that may be related to the presence of mineralization. The geochemical anomaly
is often field checked against the outcropping geology and, in
modern geochemistry, normalized against the regolith type and landform, to
reduce the effects of weathering,
transported materials and landforms. Geochemical anomalies may be spurious or
related to low-grade or sub-grade mineralization. In order to determine whether
this is the case, geochemical anomalies must be drilled in order to test them
for the existence of economic concentrations of mineralization, or even to
determine why they exist. The presence of some chemical elements may indicate
the presence of a certain mineral. Chemical analysis of rocks and plants may
indicate the presence of an underground deposit. For instance, elements like
arsenic and antimony are associated with gold deposits and hence, are examples of
pathfinder elements. Tree buds can be sampled for pathfinder elements in order
to help locate deposits.
Geochemical
laboratory of the Mining Engineering depart is equipped with Atomic Adsorption
Spectroscopy (AAS) and other associated instruments, which are used to measure different element concentrations
in soil, rocks and stream sediments.
Remote Sensing and GIS: Aerial photography is a traditional remote sensing
tool in assessing mineral exploration tenements, as it gives it gives the
explorer information on both the orientation and location of tracks, roads,
fences, habitation, as well as the ability to at least qualitatively map
outcrops and regolith
systematics and vegetation cover across a region. Aerial photography was first used after World War II and has been
heavily adopted from 1960's.
Since the advent
of cheap and declassified Landsat
images in the late 1970's and early 1980's, mineral exploration has begun to
use satellite imagery to map not only the visual light spectrum over mineral
exploration tenements but also the spectra which are beyond the visible. In the
regions devoid of cover and vegetation, satellite based spectroscopes
allow the modern mineral explorationists to directly map minerals. Improvements
in the resolution of modern commercially based satellites have also improved
the utility of satellite imagery; for instance IKONIS and Quick Bird satellite
images can be generated with 60cm to 100cm pixel size.
Geographic
Information Systems (GIS) are used in mineral exploration to create a data base
and integrate different exploration layers to define the subtle mineral
exploration anomalies and introduce high potential targets for further
exploration.
At
the Cartographic laboratory of the department, RS and GIS are widely used by
different experts in different aspects of mineral exploration.
Evaluation:
Resource evaluation is undertaken to quantify the grade and tonnage of a
mineral occurrence. This is achieved primarily by drilling to sample the
prospective horizon, lode or strata where the minerals of
interest occur. The ultimate aim is to generate a density of drilling
sufficient to satisfy the economic and statutory standards of an ore resource. Depending on the financial situation and the size of
the deposit and the structure of the company, the amount of details required to
generate this resource and the stage at which extraction can commence varies;
for small partnerships and private non-corporate enterprises a very low level
of detail is required; whereas; for corporations which require debt equity (loans)
to build capital intensive extraction infrastructure, the rigor
necessary for resource estimation is far greater. For large cash rich companies
working on small ore bodies, they may work only to a level necessary to satisfy
their internal risk assessments before extraction commences. Resource estimation may
require pattern drilling on a set grid, and in the case of sulfide minerals,
will usually require some form of geophysics such as down-hole
probing of drillholes, to geophysically delineate ore body continuity within
the ground. The aim of resource evaluation is to expand the known size of the
deposit and mineralisation. A scoping study is often carried out on the ore deposit during this
stage to determine whether there may be enough ore at a sufficient grade to
warrant extraction; if there is not further resource evaluation, drilling may
be necessary. In other cases, several smaller individually uneconomic deposits
may be socialised into a 'mining camp' and extracted in tandem. Further
exploration and testing of anomalies may be required to find or define these
other satellite deposits.
Reserve definition is undertaken to convert a mineral
resource into an ore reserve, which is an economic asset. The process is similar to resource evaluation,
except that it is more intensive and technical, and is aimed at statistically
quantifying the grade continuity and the mass of ore. Reserve definition also
takes into account the milling and extractability characteristics of the ore,
and generates bulk samples for metallurgical testwork,
involving crushability, floatability and other ore recovery parameters.
Reserve definition includes geotechnical assessment and engineering studies of the
rocks within and the surrounding of the deposit to determine the potential
instabilities of the proposed open pit or underground mining methods. This process may involve drilling diamond
core samples to derive structural information on weaknesses within the rock mass such
as faults, foliations, joints and shearing. At the end of this
process, a feasibility study is published, and the ore deposit may be either
deemed uneconomic or economic.
Hydrocarbon
exploration: Hydrocarbon exploration (or oil and gas exploration) is the search by petroleum exploration geologists for hydrocarbon deposits beneath
the Earth's surface, such as oil and gas. Oil and gas exploration
are grouped under the science of petroleum geology.
Visible surface
features such as oil seeps, natural gas seeps, pockmarks (underwater craters
caused by escaping gas) provide basic evidence of hydrocarbon generation (be it
shallow or deep in the Earth). However, most exploration depends on highly
sophisticated technology to detect and determine the extent of these deposits
using exploration geophysics and exploration geochemistry. Areas thought to
contain hydrocarbons are initially subjected to a gravity survey, magnetic survey, passive seismic or regional seismic reflection surveys to detect large scale features of the sub-surface
geology. Features of interest (known as leads) are subjected to more
detailed seismic surveys which work on the principle of the time it takes for
reflected sound waves to travel through matter (rock) of varying densities and
using the process of depth conversion to create a
profile of the substructure. Finally, when a prospect has been identified and
evaluated and passed the oil company's selection criteria, an exploration well is drilled in
an attempt to conclusively determine the presence or absence of oil or gas. Oil
exploration is an expensive, high-risk operation. Offshore and remote area
exploration is generally undertaken by very large corporations or national
governments.
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Currently, the Rock Mechanics group in Department of Mining Engineering at IUT has 1 full-time Associated Professor and 3 full-time Assistant Professors whose research topics and teaching interests cover the whole range of Rock Mechanics and Rock Engineering. The research areas are as follows:
Dam: Many large structures,
such as hydroelectric dams are built in Iran. The design and construction of
these large dams provides unique opportunities for research projects. Many of
these dams that were constructed after Islamic Revolution in Iran have
extensive instrumentation to track their long-term performance. Consequently,
research opportunities exist to evaluate the performance of these structures
and their foundations.
Geo-environmental:
Geo-environmental Engineering broadly
relates to the interaction of contaminants and wastes with the geo-sphere. It
encompasses a large number of problems that can be broadly classified into 3
main areas: landfills and other waste containment facilities, mine waste
geotechnics, and assessment and remediation of contaminated sites. Our
Geo-environmental engineering research includes a working of geology, hydrology
and hydrogeology, geochemistry, soil mechanics, slope and embankment behavior,
water seepage and drainage, and site characterization (working with a team).
Numerical Modeling: Many of our research
projects have a numerical modeling component. In some circumstances new
software is developed, for example, the distinct element methods and
discontinuous deformation analysis (DDA) for both rigid and deformable blocks
and particle systems, and also the discrete fracture network (DFN) approach for
fluid flow simulations. In many cases this simply means using
commercially available software such as the Itasca codes FLAC, PFC and 3DEC,
the DDM software and the software available from Rocscience Inc.
Site Investigation: Site investigation is a major element for almost all geotechnical
projects. Research is underway at IUT to study improved methods to carry out
and interpret site investigations. Advancements in deformability and stress
measurement testing, geological data collection, rock strength
properties and their measurement, surface monitoring methods and continuous movement monitoring by nanotechnology
(high-resolution tilt) are under study.
Rock Engineering: Rock
engineering entails the essential elements of:
(1) Geological data collection.
(2) Laboratory testing of rock.
(3) Rock mass classification.
(4) Rock mass strength.
(5) In-situ stress measurement.
(6) In-situ rock mass deformation determination.
(7) Groundwater problems.
(8) Rock reinforcement.
(9) Excavation methods.
(10) Analytical tools.
Research opportunities exist related to all aspects of rock
engineering. The present focus is on the
in-situ rock mass deformation determination by different types of loading and
stress measurements. All rock engineering research entails laboratory testing
and the use of numerical tools such as FLAC, 3DEC, Examine3D,
Phase2, Dips and Unwedge.
Slopes: The
linkage between the traditional limit equilibrium stability of natural and
man-made slopes and deformations is problematic. Limit Equilibrium Analyses
(LEA) are only concerned with balancing forces and moments and the linkage
between (LEA) and deformations is usually made through experience. However, in
many situations, the deformations are seldom considered when evaluating the
stability of a natural or man-made slope. This separation between LEA and deformation has
developed, in part, because the technology, i.e., computers and software, were
not available as the subject knowledge was developed. Today, situation has
greatly changed and commercial numerical software such as FLAC, DDM, PLAXIS, and
ABAQUS can quickly provide the deformation of a slope. Now, the challenge is
what properties do we assign for the analysis and how do we prescribe the
failure process. This is the focus for much of our research on slope stability.
Tunnels: Research
projects related to underground excavations in soft ground and rock are
currently underway. A common goal is evaluating the near face response and
developing support strategies for a wide range of ground conditions. Instrumented
rock support, field studies together with numerical
modeling using FLAC3D, PHASE2, 3DEC, PLAXIS and ABAQUS form the
core for most of these research projects.
Tailings Dams: Transient and long term geotechnical stability of tailings storage facilities-static liquefaction, drainage, compaction and high deposition rate problems.
Geomechanical mine design: Stability of slopes and mine developments during the life of a mine plan, stability of shafts, raises, ore passes, and underground chambers.
Rockburst Phenomena: Assessment of burst potential based on energy release and storage parameters, stability of highly stressed mining fronts and pillars, laboratory evaluation of bi-axially loaded rock, biaxial rock failure criteria.
De-stressing: Design, modeling, and evaluation of de-stress blasting in different mining environments, dynamic modeling of blast-induced rock fractures under confinement.
B.Sc.
Undergraduate Program
Undergraduate students would take hundred forty credits to obtain a B.Sc.
degree. The curriculums for the Degree of Bachelor Science in Mining Exploration
and Mining Exploitation are listed in tables 1 to 4.
Curriculum (Core Courses) for
a Degree of B. Sc. in Mining Exploration
|
Course
Code |
Course
Title |
Credits |
|
Semester I (Fall) |
|
|
|
1212101 |
General Geology |
2 |
|
1510160 |
Engineering Drawings 1 |
1 |
|
1914101 |
Calculus I |
4 |
|
2110103 |
General Chemistry (major in Eng.) |
3 |
|
2110104 |
General Chemistry Lab |
1 |
|
1212102 |
Field Excursion |
1 |
|
2410101 |
General Work Shop |
1 |
|
|
General Course |
|
|
Semester II (Spring) |
|
|
|
1914102 |
Calculus II |
4 |
|
2010115 |
General Physics l |
3 |
|
1610104 |
Static |
3 |
|
1212114 |
Analytical Chemistry |
2 |
|
1212108 |
Optical Mineralogy |
1 |
|
1212123 |
Mineralogy and lab |
3 |
|
|
General Course |
|
|
Semester III (Fall) |
|
|
|
2010125 |
General Physics ll |
3 |
|
2010126 |
General Physic Lab. (Electricity) |
1 |
|
1914251 |
Elementary Differential Equations |
3 |
|
1612212 |
Strength of Materials |
3 |
|
1212202 |
Petrology I & lab |
2 |
|
1212203 |
Physical Chemistry |
2 |
|
1914252 |
Engineering Mathematics |
3 |
|
|
General Course |
|
|
Semester IV (Spring) |
|
|
|
1212204 |
Petrology II & Lab |
2 |
|
1212228 |
Graphic Methods of Structural Geology |
1 |
|
1212206 |
Structural Geology (Tectonics) |
2 |
|
1514266 |
Fluid Mechanics |
3 |
|
1730150 |
Computer Programming |
3 |
|
1212205 |
Rock Mechanics |
2 |
|
1212208 |
Rock Mechanics Lab |
1 |
|
1914271 |
Numerical Methods |
2 |
|
|
General Course |
|
|
Semester V (Fall) |
|
|
|
1212346 |
Economic Geology ( Metallic Ore Deposits
) |
2 |
|
1212305 |
Geotechnics |
2 |
|
1912291 |
Engineering Statistics and Probability |
3 |
|
1212304 |
Exploratory Drilling |
2 |
|
1212326 |
Field Geology |
2 |
|
1212347 |
Geology of Ore Deposit in Iran |
2 |
|
1212349 |
Mine surveying |
2 |
|
1212307 |
General Surveying Practice |
1 |
|
1212229 |
Remote Sensing & Photogeology |
1 |
|
|
General Course |
|
|
Semester VI (Spring) |
|
|
|
1212309 |
Exploration Geophysics I |
2 |
|
1212308 |
Exploration Geochemistry I |
2 |
|
1212313 |
Mineralography |
1 |
|
1212312 |
Principles of Mine Exploitation |
3 |
|
1212351 |
Workshop Training |
2 |
|
1212348 |
Economic Geology of Non-Metallic ore
deposits |
2 |
|
1212430 |
Mineral Processing |
3 |
|
1510256 |
Mining engineering Drawing |
1 |
|
|
General Course |
|
|
Semester VII (Fall) |
|
|
|
1212401 |
Exploration Geochemistry II |
2 |
|
1212403 |
Well-logging |
2 |
|
1212405 |
Exploration Project |
3 |
|
1212402 |
Exploration Geophysics II |
2 |
|
1212325 |
Field Geophysics I |
1 |
|
1212431 |
Prospecting and Exploration of ore
Deposits |
2 |
|
1212432 |
Analysis and interpretation of
Exploration Data |
2 |
|
|
Elective Course |
|
|
Semester VIII (Spring) |
|
|
|
1212311 |
Evaluation of Mineral Deposits |
2 |
|
1212408 |
Mineral Economics |
2 |
|
1212417 |
Water Recourses Engineering |
3 |
|
2510013 |
English Language in mining engineering |
2 |
|
|
Elective Course |
|
Curriculum (Elective
Courses) for a Degree of B. Sc. in Mining Exploration
|
Course Code |
Elective Course |
Credits |
|
301_10_12 |
Civil Engineering |
2 |
|
302_10_12 |
Coal Recourses & Technology |
2 |
|
303_10_12 |
Gas & Petroleum Resources |
2 |
|
305_10_12 |
Application of Computer in Mining |
2 |
|
315_10_12 |
Petroleum Geology |
2 |
|
318_10_12 |
Coal Geology |
2 |
|
320_10_12 |
Mineral
Applications |
2 |
|
340_10_12 |
Principles of Mining |
2 |
|
413_10_12 |
Mine Safety |
2 |
|
414_10_12 |
Operational Research |
2 |
|
417_10_12 |
Statistical Methods in Geology |
2 |
|
419_10_12 |
Fossil Fuels |
2 |
|
423_10_12 |
Mining Specific Subject |
2 |
|
424_10_12 |
Mining Specific Subject |
2 |
|
425_10_12 |
Mining Specific Subject |
2 |
|
426_10_12 |
Physical Metallurgy I |
2 |
|
427_10_12 |
Thermo Dina Metallurgy |
2 |
|
428_10_12 |
Soil & Rock Mechanics |
2 |
|
429_10_12 |
Chemical Mineralogy |
2 |
|
430_10_12 |
General Physics(Electricity &
Magnetism) |
2 |
|
431_10_12 |
Physical Metallurgy Lab I |
2 |
Curriculum (Core Courses)
for a Degree of B. Sc. in Mining Exploitation
|
Course Code |
Course Title |
Credits |
|
Semester I (Fall) |
|
|
|
1212101 |
General Geology |
2 |
|
1510158 |
Engineering Drawings 1 |
2 |
|
1914101 |
Calculus I |
4 |
|
2110103 |
General Chemistry (major in
Eng.) |
3 |
|
2110104 |
General Chemistry Lab |
1 |
|
1212102 |
Field Excursion |
1 |
|
2410101 |
General Work Shop |
1 |
|
2010115 |
General Physics l |
3 |
|
|
General Course |
|
|
Semester II (Spring) |
|
|
|
1914102 |
Calculus II |
4 |
|
1214103 |
Mine Excursion |
1 |
|
1214104 |
Mineralogy & Lab |
4 |
|
1610104 |
Static |
3 |
|
2010116 |
General Physics Lab. l (Heat) |
1 |
|
2410151 |
Auto mechanic work shop |
1 |
|
2010125 |
General Physics ll |
3 |
|
|
General Course |
|
|
Semester III (Fall) |
|
|
|
1214201 |
Blast Hole Drilling &
Blasting Technique |
2 |
|
1214202 |
Petrology & Lab |
3 |
|
1610208 |
Dynamics for non-Civil
Students |
3 |
|
1512213 |
Strength of Materials
(Non-ME students) |
2 |
|
1914251 |
Elementary Differential
Equations |
3 |
|
|
General Course |
|
|
Semester IV (Spring) |
|
|
|
1214203 |
Shaft Sinking and Tunneling |
2 |
|
1212206 |
Structural Geology
(Tectonics) |
2 |
|
1214206 |
Cartography and Photogeology |
1 |
|
1514266 |
Fluid Mechanics |
3 |
|
1212203 |
Physical Chemistry |
2 |
|
1730150 |
Computer Programming |
3 |
|
1914252 |
Engineering Mathematics |
3 |
|
|
General Course |
|
|
Semester V (Fall) |
|
|
|
1214204 |
Rock Mechanics & Lab |
3 |
|
1214301 |
Mine Draining |
2 |
|
1912291 |
Engineering Statistics and
Probability |
3 |
|
1212306 |
General Surveying |
2 |
|
1212307 |
General Surveying Practice |
1 |
|
1710250 |
Electrical Engineering
Fundamentals |
3 |
|
|
General Course |
|
|
Semester VI (Spring) |
|
|
|
1914271 |
Numerical Methods |
2 |
|
1214304 |
Support in Mining |
2 |
|
1214305 |
Economic Geology |
2 |
|
1214306 |
Surface Mining Methods |
2 |
|
1214307 |
Field Geology |
1 |
|
1214308 |
Thermal Machines |
2 |
|
1214309 |
Transportation in Mines |
2 |
|
1212314 |
Machine Elements |
1 |
|
1214404 |
Mineral Processing & Lab |
3 |
|
|
General Course |
|
|
Semester VII (Fall) |
|
|
|
1214401 |
Mine Ventilation |
2 |
|
1214402 |
Underground Mining Methods |
3 |
|
1214403 |
Technical Services in Mine |
2 |
|
1214405 |
Evaluation of Mineral Deposits |
2 |
|
1214406 |
Excavation Project |
3 |
|
1212351 |
Workshop Training |
2 |
|
|
Elective Course |
|
|
Semester VIII (Spring) |
|
|
|
1212407 |
Mine Surveying |
2 |
|
1214408 |
Principles of Mine Planning |
2 |
|
1212408 |
Mineral Economics |
2 |
|
|
Elective Course |
|
Curriculum (Elective
Courses) for a Degree of B. Sc. in
Mining Exploitation
|
Course Code |
Course Title |
Credits |
|
301_10_12 |
Civil Engineering |
2 |
|
302_10_12 |
Coal Recourses &
Technology |
2 |
|
303_10_12 |
Gas & Petroleum
Resources |
2 |
|
305_10_12 |
Application of Computer in
Mines |
2 |
|
315_10_12 |
Petroleum Geology of
Deposits |
2 |
|
318_10_12 |
Coal Geology |
2 |
|
320_10_12 |
Mineral Application |
2 |
|
340_10_12 |
Principles of Mining |
2 |
|
413_10_12 |
Mining safety |
2 |
|
414_10_12 |
Operational Research |
2 |
|
417_10_12 |
Statistical Methods in
Geology |
2 |
|
419_10_12 |
Fossil Fuels |
2 |
|
423_10_12 |
Mining Specific Subject |
2 |
|
424_10_12 |
Mining Specific Subject |
2 |
|
425_10_12 |
Mining Specific Subject |
2 |
|
426_10_12 |
Physical Metallurgy I |
2 |
|
427_10_12 |
Thermo Dina metallurgy |
2 |
|
428_10_12 |
Soil & Rock Mechanics |
2 |
|
429_10_12 |
Mineralogy for chemists |
2 |
|
430_10_12 |
General Physics(Electricity
& Magnetism) |
2 |
|
431_10_12 |
Physical Metallurgy Lab I |
2 |
Undergraduate Course Descriptions
|
1914101 Calculus I 4 Cr. Study of single variable calculus,
numerical sequences, limits, continuity differentiation, extreme function
values, The definite integrals, applications of the definite integrals,
Inverse functions, logarithmic and exponential functions, inverse
trigonometric and hyperbolic functions, techniques of integration,
indeterminate forms, improper integrals, Taylor’s formulae, infinite series. Prerequisite : Precalculus |
|
2110103 General Chemistry (major in Eng.) 3 Cr. Stoichiometry, gases thermo chemistry,
atomic structure, solutions of acids and bases, electrochemistry, chemical
kinetics |
|
|
|
2110104 General Chemistry Lab 1 Cr. Independent laboratory work under the
supervision of a facility member of the chemistry department. |
|
1212102 Field Excursion 1 Cr. Field study of important geological facies
and Phenomena. Prerequisite : General
Geology 1212101 |
|
1914102 Calculus
II 4 Cr. Study of several variable calculus: Euclidean
geometry matrices, linear transformation, elementary topology of Rn, limits,
derivative as linear operator, directional and partial derivatives, extreme
function values, Lagrange multiplier, multivariable and iterated integrals,
change of variable theorem, parametric curves and surfaces, line integral,
surface integral, vector analysis, green stokes and divergence theorem. |
|
2010126 General Physic Lab. (Electricity) 1 Cr. Measurement of resistively, verification of
Ohm's and Kirchhoff's laws, study of capacitors, hysteresis curves, R-C and
R-L circuits, oscilloscope, Biot and Savart's law. |
|
1914251 Elementary Differential Equations 3 Cr. Methods of solving especial classes of
ordinary differential equation including linear, bernulli, separable and
exact first order equation, reduction of order, variation of parameter,
undetermined coefficients, power series methods, and Laplace transform
methods in second order linear equation and autonomous system of linear
differential equations. Systems of first order differential equations,
exponential matrix. |
|
1212204 Petrology II & Lab 2 Cr. Sedimentary and metamorphic
classifications, Genesis, Processes, Chemical composition, Minerals,
Environments, Relations with plate tectonics. Prerequisite : Petrology I & Lab 1212202; Mineralogy I &
Lab 1212123 |
|
1212206 Structural Geology (Tectonics) 2 Cr. Introduction to tectonics, forces causing
tectonic, anticlinal, synclinal, faults, types of foldings, files data
analysis, diagrams, Schmitt net and Kluft rose diagram and its
interpretations. |
|
1514266 Fluid Mechanics 3 Cr. Definitions and general concepts. Fluid
statics. Fluid kinematics. Conservation laws of mass, energy, and momentum and
their applications. Incompressible flow in closed conduits. |
|
1212205 Rock Mechanics 2 Cr. Stress, Strain and stress analysis. Mohr
circle, Failure criteria. Earth stress. Induct stress, Concentration stress,
stress around the underground opening measurements of in-situ stress, Rock
mass classification, Stability of rock slope. Prerequisites : Strength of Materials 1612212; Petrology II &
Lab 1212204 |
|
1914271 Numerical Methods 2 Cr.
Errors and the sources, solving nonlinear equations solving systems of
linear and nonlinear equations, interpolation, numerical differentiation and
integrations, solving ordinary differential equations. Prerequisite : Calculus II 1914102; Elementary
Differential Equation 1914251 |
|
1212305 Geotechnics 2 Cr. Classification and identification of soil,
soil water, permeability and flow, shear strength of soils, stability slopes,
element of stress analysis, site investigation. Prerequisite : Rock Mechanics
1212205 |
|
1212309 Exploration Geophysics I 2 Cr. Seismic prospecting, seismic recording
instruments, Interpretation of seismic reflection data, gravity prospecting
and field measurements and reduction, Interpretation of gravity data,
magnetic prospecting, magnetic surveying techniques, interpretation of magnetic
data. |
|
1212308 Exploration Geochemistry I 2 Cr.
Geochemical dispersion and migration of elements, geochemical index
(pathfinder and indicator elements), geochemical mapping, analytical methods,
statistical analysis of geochemical data (monovariable and multivariable). Prerequisites : Engineering Statistics and
Probability 1912291; Engineering Mathematics 1914252, Structural Geology
(Tectonics) 1212206, General Physics l 2010115 |
|
1212313 Mineralography 1 Cr.
The preparation of samples, physical and optical properties of opaque
minerals , reflectance theory. Micro chemical methods, paragenesis, textures,
characteristics of common ore minerals. |
|
1212312 Principles of Mine Exploitation 3 Cr. Explosives, blasting, tunneling, shaft sinking,
mining methods (surface & underground), mine support, ventilation, safety
transportation in mines, mine lighting, drainage. |
|
1212403 Well-logging 2 Cr.
Field operation, permeability, saturation, reservoir geometry,
temperature and pressure, Log interpretation, resistivity formation factor
and porosity, water saturation, resistivity logging, S.P logging, gamma ray
logging. Sonic, density, and nextron logs, induction logging, electromagnetic
propagation logs, well bore seismic. Prerequisite
: Drilling 1212304 |
|
1212405 Exploration Project 3 Cr. The basic purpose of exploration project is
to be familiar with analysis of geological and mining field techniques. |
|
1212311 Evaluation of Mineral Deposits 2 Cr. Exploratory tunnels, bore holes and bore
hole grid plans, estimation and evaluation, sampling and evaluation extracting. Prerequisite
: Analysis and interpretation of Exploration Data 1212432 |
|
1212408 Mineral Economics 2 Cr.
Introduction to general economics, energy resources, gross National
Product, mineral production of Iran and its role in the national economy,
exploration and mining Costs, financing mining projects, feasibility Study. Prerequisite : Engineering Statistics and
Probability 1212291 |
|
1214103 Excursion to Mines 1 Cr. Visiting different mines in the first year |
|
|
|
1214104 Mineralogy & Lab 4 Cr. Crystallography, Structure and chemistry of
minerals, calculation of chemical formula, physical and chemical properties. Different
classes of silicates and non-silicates, Laboratory. |
|
2010116 Gen. Physics Lab. l (Heat) 1 Cr.
Thermal expansion, heat conduction, specific heat, calorimetry, the
mechanical equivalent of heat, surface tension. |
|
1214201 Blast Hole Drilling & Blasting
Technique 2 Cr.
Rock drills, jumbo drills, drilling pattern, composition of
explosives, fuses, detonation instruments and facilities, blasting,
compressed air consumption, safety regulations according to the blasting. Prerequisite : Excursion to Mines 1214103 |
|
1214202 Petrology & Lab 3 Cr.
Igneous, sedimentary and metamorphic petrology including
classifications, genesis, processes, chemical, composition and minerals.
Experimental petrology, environment relation with plate tectonic and
laboratory. Prerequisite : General
Geology 1212101; Mineralogy and Lab 1214104 |
|
1512213 Strength of Materials (Non-ME students) 2 Cr. Stress. Stress tensor. Equilibrium
equation. Strain. Stress-strain relation. Hook's law. Torsion problem. Bending
of beams. Transformation of stress. Deflection of beams. |
|
1214203 Shaft Sinking and Tunneling 2 Cr. Types of tunnels, tunneling methods, tunnel
supporting, shaft sinking in hard rocks and strata, shaft lining, shaft
sinking in water tables, special methods for shaft sinking, a short
description to explosives and borehole drilling as well as blasting technique. |
|
1214206 Cartography and Photogeology 1 Cr. Topographic and geological maps and cross
sections, application of aerial photographs in drawing geological maps. |
|
1214204 Rock Mechanics & Lab 3 Cr. Stress, strain and stress analysis, Mohr
circle, failure criteria, earth stress, induct stress, concentration stress,
stress around the underground opening measurements of in situ stress, rock
mass classification, stability of rock slope. |
|
1214304 Support in Mining 2 Cr. RMR, Q System, RSR, Underground stress
analysis, Support equipment, Rock boiling, Shotcrete and steel rips in mining
stress and strain criteria. Prerequisite
: Drilling and Blasting 1214201; Rock Mechanics & Lab 1214204 |
|
1214305 Economic Geology 2 Cr.
Modern theories of ore-bearing fluids, migration of ore, deposition,
alteration, gangue, paragenesis, zoning, geo-thermometry, isotopic studies,
classification of ore deposits, magmatic, pegmatitic, metamorphic,
hydrothermal, volcanogenic and sedimentary deposits, metamorphism of ores.
Metallogenic provinces and epochs. |
|
1214306 Surface Mining Methods 2 Cr. Mine development, stripping, open Pit,
quarries, drilling, blasting, excavation and loading, haulage and
transportation, economics aspects, stripping ratio, cut off Grade. |
|
1214307 Field Geology 1 Cr. Field geology, preparing geological maps
and sections in an area with topographical maps and aerial photographs.
Applying some instruments such as compass. |
|
1214309 Transportation in Mines 2 Cr. Railway, Conveyor, Chain conveyors, Chutes,
Construction of railroads in mines, Rope Ways, Shaft hauledge, Vertical
transportation by pipes in both directions, Hydraulic transportation, Man
riding and material transportation.
Prerequisite : Drilling and Blasting 1214201 |
|
1212314 Machine Elements 1 Cr. Welding, screws, keys, springs, shafts,
ball bearings, roller bearings, clutches, gears, belts, friction, solid
couplings, flexible coupling, brakes. |
|
1214404 Mineral
Processing & Lab 3 Cr. Crushing, grinding, classification,
screening, gravity concentration, electrostatic and magnetic separation,
floatation, thickening, filtering, drying, storage. |
|
1214402 Underground Mining Methods 3 Cr. Definition and naming of methods, long wall
mining, cut and fill, shrinkage, sublevel, block caving methods, open stopes.
Stopes with supporting roof, combined mining methods, methods for mine steep
seams and veins. |
|
1214403 Technical Services in Mine 2 Cr. Mine lighting (personal and general), water
supply and drainage, workshops, compressed air, compressors, mine electrical
power circuit safety. |
|
1214405 Principal of Exploration & Evaluation
of Mineral Deposits 2 Cr. Criteria and guidelines for prospecting,
exploratory tunnels, bore holes and bore hole grid plans. Estimation and
evaluation, sampling and evaluation extracting. |
|
1214406 Excavation Project 3 Cr. A research on a subject of excavation. |
|
1212407 Mine Surveying 2 Cr. Introduction, differences between mine and
general surveying, underground surveying, marking of points orientation,
transfer of points and directions. Prerequisite
: General Surveying Practice 1212306 |
|
1214408 Principles of Mine Planning 2 Cr. Calculation of production. Opening a mine,
planning of mine network, considering the laws, regulation and instruction
for mine planning, using the diagrams, graphs and tables for mine planning. |
|
1212408 Mineral Economics 2 Cr. Introduction to general economics, energy
resources, gross National Product, mineral production of Iran and its role in
the national economy, exploration and mining Costs, financing mining
projects, feasibility Study. Prerequisite
: Engineering Statistics and Probability 1912291 |
|
1214301 Mine Draining 2 Cr.
Specifications of Confine and Unconfined aquifer, Darcy’s low, Determination
of permeability coefficient in Laboratory and field, equivalent permeability
in layer medium, prevent of waterpollution in mining, dewatering in canals,
Design storage and pipe line, pump Types, specification curve of centrifugal pumps, application of pumps,
cavitations, NPSH, Similarity in pumps Prerequisite : Fluid Mechanics
1514266, Shaft Sinking and Tunneling 1214203 |
|
1214401 Mine Ventilation 2 Cr. Review
some elementary thermodynamic, Gases in subsurface, Methane and coal dust,
The hazardous nature of dusts, Airflow through Roadways and ducts,
Ventilation network analysis, Auxiliary ventilations, Fans, Ventilation
layout, Subsurface fires and explosions, Safety Prerequisite : Fluid Mechanics 1514266, Shaft Sinking and
Tunneling 1214203 |
|
1212101 General Geology 2 Cr. Introduction, Mineralogy, Igneous rocks,
weathering and ground water, clacier, Time and dating in geology, Deformation
of the crust, Internal Structure of the earth, volcanism and magmatism
activities, Sea-Floor Spreading, Plate tectonic, earthquake. |
|
1212202 Petrology I & Lab 2 Cr. Introduction, Geological Shape of the plutonic and
volcanic body, Structures and texture, Minerals, Classification of the
Igneous rocks, Descriptive of the major of the Igneous rocks, Petrology and
origin of the Igneous rocks, Experimental of petrology. Prerequisite : Optical Mineralogy 1212108,
Mineralogy & Lab 1212123 |
|
1212123 Mineralogy & Lab 3 Cr.
Crystallography: Definition of crystals, primitive cell, Laws in
crystallography miller’s Indices, The Law zone, crystallography systems and
thirty-two crystal classes, crystal growth and Twining. |
|
1212108 Optical Mineralogy 1 Cr. Theories of
Light-Indices of refraction-The polarizing microscope-study of the minerals
by orthoscopic by using of microscope: Olivine, Pyroxene, Amphiboles,
Biotite, Muscovite, Quartz, Feldspar, Calcite….Prerequisite : General Geology 1212101, General Chemistry 2110103 |
|
1212402 Exploration Geochemistry II 2 Cr. Litho-geochemical Exploration (Rock and
Soil), Hydro-geochemical Exploration, Atmo-Geochemical Exploration, Bio-geochemical
Exploration, Isotope Geochemistry, Hydrocarbon Exploration Prerequisite :
Exploration Geochemistry I 1212308 |
|
1612212 Strength of Material 3 Cr. Definition of stress, loading, stress
tensor, safety factor, strain; stress-strain relationship; Hoek's law;
elastic modulus; creep; thermal deformation; Poison's ratio; torque
definition, stress concentration during torque; bending, stress concentration
during bending; stress in a beam; principal stresses, drawing and application
of Mohr's circle; residual stresses; strain analysis and measuring in 3D. Prerequisite : Static 1610104 |
|
1610104 Static 3 Cr. Definition of force, torque, couple process;
force projection and analysis; force analysis in 2D and 3D; combination of
force and torque; force equilibrium; application of static in engineering
works; internal and external forces; force and torque analysis in beams;
stress analysis, torque and bending in beams; analysis in complex beams. Prerequisite :
Calculus I 1914101 |
|
1212347 Geology of Ore Deposit in Iran 2 Cr. Introduction to basic of stratigraphy,
Stratigraphic Units (Lithostratigraphy, Biostratigraghy, Chronostratigrphy), Lithostratigraph
Units in Iran (Albroz/Zagros, Central Iran. Koped Dagh), Precainbrian in Iran
(Sedimentation Metamorphism Magmatism and tectonic phase), Paleozoic,
Mesozoic, Tertiary and Quaternary in Iran, Ore deposits Forming in Iran.
Prerequisite : Pertology II
1212204 |
|
1212229 Remote Sensing & Photogeology 1
Cr. Field Geology Theoretical &
practical Structural Geology |
GRADUATE PROGRAM (M.Sc.)
At the Mining Engineering Department of IUT two master degrees in
Mining Exploration and Rock Mechanics are offered. Graduate students would take
thirty two credits to obtain a M.Sc. degree. The 32 credits consist of 15 credits as core courses, 9 credits as elective
courses, 2 credits as seminar and 6 credits as final thesis.
M. Sc. GRADUATE
COURSES
Curriculum courses for M.Sc. Degree in
Mining Exploration:
|
Course
Code |
Course Title |
Credits |
Course Type |
|
12501 12502 12503 12504 12505 12506 12507 12510 12512 12513 12516 12524 12526 12527 12529 12531 12530 12532 12533 12534 12535 12536 |
Feasibility
Study of Projects Advanced
Mathematics Designing
Exploration Geophysics Projects Designing
Exploration Geochemistry Projects Geostatistics Exploration
of Metallic Mineral Deposits Exploration
of Non-Metallic Mineral Deposits Advanced
Geotechnics Seminar Sampling Advanced
Geology of Iran Project Iran
Metallogeny Advanced
Mineral Processing Operational
Research Petroleum
Geology Mineral
Economics Industrial
Management Applications
of Minerals Applied
Geochemistry Advanced
Hydrogeology Remote
Sensing |
2 3 2 2 2 2 2 2 2 2 2 6 2 2 2 2 2 2 2 2 2 2 |
Core Core Core Core Core Core Core Elective Core Elective Elective Core Elective Elective Elective Elective Elective Elective Elective Elective Elective Elective |
Curriculum for M. Sc. Degree in Rock
Mechanics:
|
Course
Code |
Course Title |
Credits |
Course Type |
|
16550 16552 16553 16554 16555 12556 12502 12557 12510 12512 12524 12532 12535 |
Advanced
Rock Mechanics Fundamentals
of Elasticity Advanced
Open Pit Mine Excavation Design
Theory of
Continum and Discontinum Mechanics
Advanced
Underground Excavation Design
Numerical
Methods in Rock Mechanics
and Foundation Advanced
Mathematics Field
Test and Instrumentation Advanced
Geotechnics Seminar Thesis
Project Industrial
Management Advanced
Hydrogeology
|
2 3 2 3 3 3 3 2 2 2 6 2 2 |
Core Elective Core Core Core Elective Core Elective Elective Core Core Elective Elective |
MINING EXPLORATION COURSE
DESCRIPTIONS
12501 Feasibility Study of Projects: Factors affecting Capital investments, capital
values and costs, interest rates, risks and sensitivity analysis, Net Present
Value (NPV), Discount Cash Flow (DCF), Compound continuous and discontinuous
interest methods, converting coefficients, Equal Annual Costs (EAC), Internal
Return Rate (IRR), Comparative study on advantages and disadvantages
of above mentioned methods, Criteria for
selecting equipment's and machinery, economic life of machines, industrial
accounting, feasibility study of a mining project.
12502 Advanced Mathematics: Advanced theory of complex functions, review
of the matrices and tensors, solutions of the Partial Differential Equations
(PDE), integral transforms, orthogonality conditions of functions,
Storm-Liuville problems, special functions such as Bessel, Legendre, Gamma,
Hermit, Gauss and Lagurre functions, theory and application of the variational
principle and perturbation theory.
12503
Designing Exploration Geophysics Projects: Position of
exploration geophysics in sequential exploration program, selection of the
appropriate geophysical methods according to the type of deposits, designing
optimal geophysical survey grids, geometry of deposits, filtering raw data,
cost functions and estimates, performing above designing rules on an assumed
typical deposit.
12504
Designing Exploration Geochemistry
Projects: Methods for evaluating the probabilities of detecting
deposits and/or their haloes, role of deposits shapes and geometry's, theory of
geometric probability, evaluation methods, cost estimations, theory and
strategies of optimization for mineral deposits, optimization for different
type of deposits such as porphyritic Cu-Mo, Contact metamorphosed ultrabasic
Ni-Cu, volcanogenic massive sulfide ores, Micissipi types Pb-Zn and vein type
gold deposits, selection of optimum drilling points.
12505 Geostatistics: Fundamental
concepts of geostatistics, regional variables theory, variograms, covariograms,
correlograms, regularization, estimation and dispersion variances, structural
analysis based on variograms, geostatistical estimation, Point Kriging, Block
Kriging, Linear Kriging, Non-Linear Kriging, geostatistical sampling.
12506 Exploration of Metallic Mineral Deposits: General characteristics of metallic deposits, their
shapes, condition of formation, classification, description, prospecting and
exploration methods of metallic deposits such as: 1) Ferrometals (Fe, Mn. Cr,
Ti and V deposits), 2) Nonferrous metals (Al, Mg, Cu, Pb, Zn. Ni, Co, Mo, Sn,
W, Sb deposits), 3) Precious metals (Au, Ag, Pt group (PGE), 4) Light rare
metallic elements (such as Li and Be), 5) Heavy rare metallic elements (Nb, Ta,
Rare Earth Elements (REE) such as Ce, La, Y ...).
12507 Exploration
of Non - Metallic Mineral
Deposits: Soils and construction rocks (gravel,
sands, clays, brick material, road material, ceramics, refractory clays,
refractory sands such as Silimanite, Disthene, Chromite, Magnesite and
Dolomite), quality, mineralogy and methodology for exploration of above
deposits; industrial minerals (geology, mineralogy and exploration of Asbestos,
Bentonite, Borates and Diatomites); Precious rocks and Jewelry; Igneous
deposits (Feldespars, Nepheline, Syenite, Mica, Granite and ...); Phosphate,
sulphate, Quartz, Barite, Talk and so on deposits; Salty deposits; Radioactive
deposits (Uranium, Thorium and so on); Coal deposits.
12508
Seminar: A topic related
to the exploration of deposits which should be surveyed throughout existing
literature and then writing a seminar report in appropriate format.
12509 M.Sc Thesis: A research topic in applied exploration related discipline
or inter-disciplinary fields.
ROCK MECHANICS COURSE DESCRIPTIONS
16550 Advanced Rock Mechanics:
Physical and mechanical properties of intact rocks and rock masses
and the effects of discontinuity features; intact rock classifications; rock
mass classifications; types of discontinuity features in rock masses;
observation and measuring geometrical and mechanical properties of single
fractures; deformability of rock masses; measuring rock mass properties in
field; rock dynamics; time dependency of mechanical properties of rocks; stress
around the cavities.
16552
Fundamentals of Elasticity:
Apply
the fundamentals of elasticity to engineering problems. Comparison with
solutions obtained by using elementary strength of materials in solving
engineering problems will be emphasized. It also covers Analysis of Stress and
Strain, Two Dimensional Problems in Elasticity,
Criteria for Material Failure, Axisymmetrically Loaded Members, Energy
Methods, Special Topics, Thermal
Stresses, Finite Difference, Finite Elements, Boundary Element Methods.
16553
Advanced Open Pit Mine Excavation Design:
This
course covers the following topics:
Role
of geology in open pit mining, engineering geology studies on design of open
pit mining, in-situ stresses determination, stress distribution after
excavation of open pit minings, ground treatment and stabilization methods,
open pit mining in soft ground, support of pit in soft ground, excavation of
pit openings in strong ground, quality assessment of open pit machineries,
support of pit opening in strong ground, structural failure assessment on
jointed rock masses and effects of dynamic loads on stability of pit openings
16554
Theory of Continum and Discontinum Mechanics:
This course covers the following topics:
Tension and vector analysis, strain,
stress, kinematic elasticity, fluid movement equations.
16555
Advanced Underground Excavation Design:
This
course covers role of geology in underground excavations, engineering geology
studies on design of underground openings, in-situ stresses determination, stress
distribution after excavation of underground openings, ground treatment and
stabilization methods, excavation of underground openings in soft ground,
support of underground openings in soft ground, excavation of underground
openings in strong ground, quality assessment of underground excavations
machineries, support of underground openings in strong ground, structural
failure assessment on jointed rock masses and effects of dynamic loads on
stability of underground openings
12512 Seminar: A topic related to rock mechanics which should be surveyed
throughout existing literature and then writing a seminar report in appropriate
format.
12524 Thesis Project: A research topic in applied exploration related discipline or inter-disciplinary fields