Year (1)
Certificate in Mechanical Engineering ( Each 1.5 Credits) ( 15 Pt_)
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Unit Number |
Unit Name |
Credit Points |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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1.5 |
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Total |
15 |
Diploma in Mechanical Engineering ( Each 1.5 Credits) ( 15 Pt_)
ME 202
Introduction to Aero Dynamics
ME 204 Engineering
Fluid Mechanics
ME 205
Manufacturing Processes-and-Materials
ME 206
Introduction to Turbo Machinery
ME 207 Chemical
Thermodynamics
ME 209
Introduction-to-polymer-science-and-technology
Year (2)
Advanced Diploma in Mechanical Engineering ( Each 1.5
Credits) ( 30 Pt)
Mathematics
Maths 403
Engineering-Mathematics (EE302)
Maths 301
Introductory Finite Difference Methods-for-pdes
Maths 302
Elementary-Linear-Algebra (EE302)
Maths 303
Introductory Finite Volume Methods-for-pdes
Maths 501 Linear
Algebra-c-1 (EE302)
Mechanical Engineering
ME 302
Automation-and-Robotics
ME 303 Computer
Aided Design and Manufacturing
ME 304
Introduction to Nonlinearity-in-control-systems
ME 306
Theory-of-waves-in-materials
ME 334
Airconditioning and Refrigeration
EE 617 Building
Electrical and Mechanical System Part 1 (EE309)
Mgt 503 Production
& Operation Management
Mgt 505 Quality
Management and Manufacturing Engineering
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Engineering Mathematics (EE201) |
This unit
covers the application of computational processes to solve engineering
problems. It encompasses working safely, applying problem solving techniques,
using a range of mathematical processes, providing solutions to
electrical/electronics engineering problems and justifying such solutions.
Note. Typical
engineering problems are those encountered in meeting requirements in a design
brief, meeting performance requirements and compliance standards, revising
systems operating parameters and dealing with system malfunctions
KS01-EE126A
Electrotechnology engineering maths
Evidence shall
show an understanding of electrotechnology engineering maths to an extent
indicated by the following aspects:
T1 Rational,
irrational numbers and basic algebra
simplification of expressions involving square roots and cube roots
scientific and engineering notation
evaluation of expressions using a calculator
convert units of physical quantities using unity brackets
substitute given values into formulae to find physical quantities
manipulate algebraic expressions using mathematical operations in their correct
order, the laws of indices, expansion of brackets and collecting like terms
T2 Algebraic
manipulation
Factorise algebraic expressions using common factors
Factorise quadratic expressions using trial and error on the factors of the
coefficients
Simplify algebraic fractions using common denominators and cancelling
Solve
simple one variable equations including algebraic fractions
Find
the quotient and remainder given a linear divisor.
Transpose formulae to find a required variable.
T3 Laws of
indices
Conversion between decimal notation, scientific notation and engineering
notation
Laws
of indices: positive /negative values, multiplication/division, fractional
values, index equals zero
Logarithmic laws: multiply/divide
solution
of exponential equations using logarithms, substitution and solution of
relevant formulae involving exponents or logarithms
Graphs
of exponential functions, 10x and ex and the inverses log10(x) and loge(x)
functions on log-linear graphs
Convert
numbers into scientific and engineering notation using the laws of indices
Manipulate and simplify arithmetic and algebraic expressions using the laws of
indices and logarithms
Express logarithms as indices.
Perform logarithmic operations.
Determine
logarithms and antilogarithms to base 10, using a scientific calculator.
Determine logarithms and antilogarithms to base e, using a scientific
calculator.
Convert logarithmic values from base 10 to base e and vice versa.
Sketch
given functions on log-linear graphs
T4 Estimations,
errors and approximations
Errors
in measurement
Maximum probable error
Show
awareness of errors in measurement and of giving results in appropriate number
of significant figures
Use
estimations and approximations to check the reasonableness of results.
T5 Plane
figures – triangles and basic trigonometry
Angles
in a triangle
Isosceles and equilateral triangles
Congruent triangles
Similar triangles
Pythagoras' theorem
Area
of triangles
Basic
trigonometry functions
Degrees, radians
The
ratios: sin, cos, tan, cosec, sec, cot.
Inverse trig functions
Sine
and cosine rules
T6 Plane
figures - quadrilaterals and circles
Types
and properties of quadrilaterals
Areas
and perimeters of regular quadrilaterals
Lengths of arcs
Angles
in a circle - degrees
Angles
in a circle - radians
Lengths of chord segments
Tangents to circles
Circumference and area of circles
Names
and characteristics of common polygons
T7 Graphs of
Trigonometric functions
Graph
trigonometric functions and solve trigonometric equations.
Simplify trigonometric expressions using trigonometric identities
Convert angular measure in degrees to radians and vice versa
Graph
trigonometric functions including graphs of y = sin x and y = cos x
Using
vocational applications of current or voltage as a function of time, consider
changes in amplitude, consider changes in frequency.
Examine relationships of frequency, period and angular velocity.
Sketch
graphs of the form f(t) = a sin φt and f(t) = a cos φt, where a is
the peak voltage or current, and φ is the angular velocity
Solve
graphically equations of the form f(t) = a sin φt and f(t) = a cos φt
T8 Graphs of
linear functions
The
number plane
Gradient and x and y intercepts of a straight line
Equation of a straight line length and mid-point of a straight line segment
Function notation
T9 Simultaneous
equations
Graphical solutions
Substitution
Elimination
Solve
2 linear simultaneous equations both algebraically and graphically.
T10 Matrices
Perform the basic operations on matrices up to 3 x 3
Manipulate matrix equations and expressions
Recognise inverse and identity matrices up to 3 x 3 and use to solve systems of
linear equations.
Find
determinants up to 3 x 3 and use to solve systems of linear equations.
Solve
problems involving more than two simultaneous equations.
State
the limitations of graphical methods of solution.
Distinguish between a matrix and an array.
Describe the null, diagonal and unit matrix
Describe and identify a singular/non-singular matrix
T11 Quadratic
functions
Graphs
of quadratic functions represented by parabolas and the significance of the
leading coefficient.
Graph
quadratic functions and solve quadratic equations.
Sketch
and interpret the graphs of quadratic functions showing the significance of the
leading coefficient and the zeros
Solve
quadratic equations by factoring or using quadratic formula
Solve
simultaneously linear and quadratic equations algebraically and geometrically
Interpret verbally formulated problems involving quadratic and linear equations
and solve.
T12 Exponential
and logarithmic functions
Transform non-linear functions (including exponential) to linear forms and plot
data.
Draw
curves of best fit, interpolate data and estimate constants in suggested
relationships.
Graph
exponential and logarithmic functions and solve exponential and logarithmic
equations.
Sketch
the graphs of simple exponential and logarithmic functions showing behaviour
for large and small values
T13 Vectors and
Phasors
The
vector as an expression of magnitude and direction
The
vector sum of x and y values in terms of magnitude and direction
Rectangular components of vectors in the form x = r cos θ and y = r sin
θ
Rectangular-polar and polar-rectangular conversion
Vector
addition and subtraction
Express rectangular components of vectors in the form x = r cos θ and y =
r sin θ
T14 Complex
numbers
Definitions and notation of complex numbers
Complex numbers as vectors on an Argand diagram
laws
of complex numbers and apply the laws in suitable calculations.
Plot
complex numbers on the Argand plane.
Express
vectors as complex numbers and perform suitable calculations.
Calculate the conjugate of a complex number.
Using
a calculator for rectangular-polar and polar-rectangular conversions.
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Electrical
Circuits |
This unit
covers determining correct operation of single source d.c. series, parallel and
series-parallel circuits and providing solutions as they apply to various
electrotechnology work functions. It encompasses working safely, problem
solving procedures, including the use of voltage, current and resistance
measuring devices, providing solutions derived from measurements and
calculations to predictable problems in single and multiple path circuits.
Evidence shall
show an understanding of electrical fundamentals and direct current multiple
path circuits to an extent indicated by the following aspects:
T1 Basic
electrical concepts encompassing:
electrotechnology industry
static
and current electricity
production of electricity by renewable and non renewable energy sources
transportation of electricity from the source to the load via the transmission
and distribution systems
utilisation of electricity by the various loads
basic
calculations involving quantity of electricity, velocity and speed with
relationship to the generation and transportation of electricity.
T2 Basic
electrical circuit encompassing:
symbols used to represent an electrical energy source, a load, a switch and a
circuit protection device in a circuit diagram
purpose of each component in the circuit
effects of an open-circuit, a closed-circuit and a short-circuit
multiple and sub-multiple units
T3 Ohm’s Law
encompassing:
basic
d.c. single path circuit.
voltage and currents levels in a basic d.c. single path circuit.
effects of an open-circuit, a closed-circuit and a short-circuit on a basic
d.c. single path relationship between voltage and current from measured values
in a simple circuit
determining voltage, current and resistance in a circuit given any two of these
quantities
graphical relationships of voltage, current and resistance
relationship between voltage, current and resistance
T4 Electrical
power encompassing:
relationship between force, power, work and energy
power
dissipated in circuit from voltage, current and resistance values
power
ratings of devices
measurement electrical power in a d.c. circuit
effects of power rating of various resistors
T5 Effects of
electrical current encompassing:
physiological effects of current and the fundamental principles (listed in
AS/NZS 3000) for protection against the this effect
basic
principles by which electric current can result in the production of heat; the
production of magnetic fields; a chemical reaction
typical uses of the effects of current
mechanisms by which metals corrode
fundamental principles (listed in AS/NZS3000) for protection against the
damaging effects of current
T6 EMF sources
energy sources and conversion electrical energy encompassing:
basic
principles of producing a emf from the interaction of a moving conductor in a
magnetic field.
basic
principles of producing an emf from the heating of one junction of a
thermocouple.
basic
principles of producing a emf by the application of sun light falling on the
surface of photovoltaic cells
basic
principles of generating a emf when a mechanical force is applied to a crystal (piezo
electric effect)
principles of producing a electrical current from primary, secondary and fuel
cells
input,
output, efficiency or losses of electrical systems and machines
effect
of losses in electrical wiring and machines
principle of conservation of energy
T7 Resistors
encompassing:
features of fixed and variable resistor types and typical applications
identification of fixed and variable resistors
various types of fixed resistors used in the Electro technology Industry. e.g.
wire-wound, carbon film, tapped resistors.
various types of variable resistors used in the Electro technology Industry
e.g. adjustable resistors: potentiometer and rheostat; light dependent resistor
(LDR); voltage dependent resistor (VDR) and temperature dependent resistor
(NTC, PTC).
characteristics of temperature, voltage and light dependent resistors and
typical applications of each power ratings of a resistor.
power
loss (heat) occurring in a conductor.
resistance of a colour coded resistor from colour code tables and confirm the
value by measurement.
measurement of resistance of a range of variable’ resistors under varying conditions
of light, voltage, temperature conditions.
specifying a resistor for a particular application.
T8 Series
circuits encompassing:
circuit diagram of a single-source d.c. ‘series’ circuit.
Identification of the major components of a ‘series’ circuit: power supply;
loads; connecting leads and switch
applications where ‘series’ circuits are used in the Electro technology
industry.
characteristics of a ‘series’ circuit - connection of loads, current path,
voltage drops, power dissipation and affects of an open circuit in a ‘series’
circuit.
the
voltage, current, resistances or power dissipated from measured or given values
of any two of these quantities
relationship between voltage drops and resistance in a simple voltage divider
network.
setting up and connecting a single-source series dc circuit
measurement of resistance, voltage and current values in a single source series
circuit effect of an open-circuit on a series connected circuit
T9 Parallel
circuits encompassing:
schematic
diagram of a single-source d.c. ‘parallel’ circuit.
major
components of a ‘parallel’ circuit (power supply, loads, connecting leads and applications
where ‘parallel’ circuits are used in the Electrotechnology industry.
characteristics of a ‘parallel’ circuit. (load connection, current paths,
voltage drops, power dissipation, affects of an open circuit in a ‘parallel’
circuit).
relationship between currents entering a junction and currents leaving a
junction
relationship between branch currents and resistances in a two branch current
divider network.
calculation of the total resistance of a ‘parallel’ circuit.
calculation of the total current of a ‘parallel’ circuit.
Calculation of the total voltage and the individual voltage drops of a
‘parallel’ circuit.
setting up and connecting a single-source d.c. parallel circuit
resistance, voltage and current measurements in a single-source parallel
circuit
voltage, current, resistance or power dissipated from measured values of any of
these quantities
output
current and voltage levels of connecting cells in parallel.
T10
Series/parallel circuits encompassing:
schematic diagram of a single-source d.c. ‘series/parallel’ circuit.
major
components of a ‘series/parallel’ circuit (power supply, loads, connecting
leads and switch)
applications where ‘series/parallel’ circuits are used in the Electrotechnology
industry.
characteristics of a ‘series/parallel’ circuit. (load connection, current
paths, voltage drops, power dissipation, affects of an open circuit in a
‘series/parallel’ circuit).
relationship between voltages, currents and resistances in a bridge network.
calculation of the total resistance of a ‘series/parallel’ circuit.
calculation of the total current of a ‘series/parallel’ circuit.
calculation of the total voltage and the individual voltage drops of a
‘series/parallel’ circuit.
setting up and connecting a single-source d.c. series/ parallel circuit
resistance, voltage and current measurements in a single-source d.c. series /
parallel circuit
the
voltage, current, resistances or power dissipated from measured values of any
two of these quantities
T11 Factors
affecting resistance encompassing:
four
factors that affect the resistance of a conductor (type of material, length,
cross-sectional area and temperature)
affect
the change in the type of material (resistivity) has on the resistance of a
conductor.
affect
the change in ‘length’ has on the resistance of a conductor.
affect
the change in ‘cross-sectional area’ has on the resistance of a conductor.
effects
of resistance on the current-carrying capacity and voltage drop in cables.
calculation of the resistance of a conductor from factors such as conductor
length, cross-sectional area, resistivity and changes in temperature
using
digital and analogue ohmmeter to measure the change in resistance of different
types of conductive materials (copper, aluminium, nichrome, tungsten) when
those materials undergo a change in type of material length, cross-sectional
area and temperature.
T12 Effects of
meters in a circuit encompassing:
selecting an appropriate meter in terms of units to be measured, range, loading
effect and accuracy for a given application.
measuring resistance using direct, volt-ammeter and bridge methods.
instruments used in the field to measure voltage, current, resistance and
insulation resistance and the typical circumstances in which they are used.
hazards involved in using electrical instruments and the safety control
measures that should be taken.
operating characteristics of analogue and digital meters.
correct techniques to read the scale of an analogue meters and how to reduce
the ‘parallax’ error.
types
of voltmeters used in the Electrotechnology industry – bench type, clamp meter,
Multimeter, etc.
purpose and characteristics (internal resistance, range, loading effect and
accuracy) of a voltmeter.
types
of voltage indicator testers. e.g. LED, neon, solenoid, volt-stick, series
tester, etc. and explain the purpose of each voltage indicator tester.
operation of various voltage indicator testers.
advantages and disadvantages of each voltage indicator tester.
various types of ammeters used in the Electrotechnology industry – bench, clamp
meter, multimeter, etc.
purpose of an ammeter and the correct connection (series) of an ammeter into a
circuit.
reasons why the internal resistance of an ammeter must be extremely low and the
dangers and consequences of connecting an ammeter in parallel and/or wrong
polarity.
selecting an appropriate meter in terms of units to be measured, range, loading
effect and accuracy for a given application
connecting
an analogue/digital voltmeter into a circuit ensuring the polarities are
correct and take various voltage readings.
loading effect of various voltmeters when measuring voltage across various
loads.
using
voltage indicator testers to detect the presence of various voltage levels.
connecting analogue/digital ammeter into a circuit ensuring the polarities are
correct and take various current readings.
T13 Resistance
measurement encompassing:
Identification of instruments used in the field to measure resistance
(including insulation resistance) and the typical circumstances in which they
are used.
the
purpose of an Insulation Resistance (IR) Tester.
the
parts and functions of various analogue and digital IR Tester (selector range
switch, zero ohms adjustment, battery check function, scale and connecting
leads).
reasons why the supply must be isolated prior to using the IR tester.
where
and why the continuity test would be used in an electrical installation.
where
and why the insulation resistance test would be used in an electrical
installation.
the
voltage ranges of an IR tester and where each range may be used. e.g. 250 V
d.c, 500 V d.c and 1000 V d.c
AS/NZS3000 Wiring Rules requirements – continuity test and insulation
resistance (IR) test.
purpose of regular IR tester calibration.
the
correct methods of storing the IR tester after use
carry
out a calibration check on a IR Tester
measurement of low values of resistance using an IR tester continuity functions.
measurement of high values of resistance using an IR tester insulation
resistance function.
volt-ammeter (short shunt and long shunt) methods of measuring resistance.
calculation of resistance values using voltmeter and ammeter reading (long and
short shunt connections)
measurement of resistance using volt-ammeter methods
T14 Capacitors
and Capacitance encompassing:
basic
construction of standard capacitor, highlighting the: plates, dielectric and
connecting leads
different types of dielectric material and each dielectric’s relative
permittivity.
identification of various types of capacitors commonly used in the
Electrotechnology industry (fixed value capacitors -stacked plate, rolled,
electrolytic, ceramic, mica and Variable value capacitors – tuning and trimmer)
circuit symbol of various types of capacitors: standard; variable, trimmer and
polarised
terms:
Capacitance (C), Electric charge (Q) and Energy (W)
unit
of: Capacitance (Farad), Electric charge (Coulomb) and Energy (Joule)
factors affecting capacitance (the effective area of the plates, the distance
between the plates and the type of dielectric) and explain how these factors
are present in all circuits to some extent.
how a
capacitor is charged in a d.c. circuit.
behaviour of a series d.c. circuit containing resistance and capacitance
components. - charge and discharge curves
the term ‘Time
Constant’ and its relationship to the charging and discharging of a capacitor.
calculation of quantities from given information: Capacitance (Q = VC); Energy
(W =½CV2); Voltage (V = Q/C)
calculation one time constant as well as the time taken to fully charge and
discharge a given capacitor. (τ = RC)
connection of a series d.c. circuit containing capacitance and resistor to
determine the time constant of the circuit
T15 Capacitors
in Series and Parallel encompassing:
hazards involved in working with capacitance effects and the safety control
measures that should be taken.
safe
handling and the correct methods of discharging various size capacitors
dangers of a charged capacitor and the consequences of discharging a capacitor
through a person
factors which determine the capacitance of a capacitor and explain how these
factors are present in all circuits to some extent.
effects of capacitors connected in parallel by calculating their equivalent
capacitance.
This unit
covers the law of physics and how they apply to solving electrotechnology
related problems. It encompasses working safely, knowledge of measurements of
physical phenomena, linear and angular motion, harmonic motion, wave theory,
optics, acoustics and heat capacity and transfer, use of measurement
techniques, solving physics related problems and documenting justification for
such solutions.
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Engineering
Mechanics (EE204) |
KS01-EE082A
Electrotechnology engineering physics
Evidence shall
show an understanding of electro engineering physics to an extent indicated by
the following aspects:
T1 Measurement
encompassing
SI
units in measurement of physical phenomena
Uncertainty and tolerance
T2 Linear
motion
T3 Angular
motion
T4 Simple
harmonic motion and vibration
T5 Wave theory
Interference
Diffraction
T6
Electromagnetic waves and propagation
T7 Optics
Mirrors and lenses
Optical fibre
T8 Acoustics
and ultrasonics
T9 Heat
capacity and heat transfer
Fluid
power
EE 617 Building
Electrical and Mechanical System Part 1 (EE309)
This unit
covers evaluating energy used in buildings and developing and documenting
strategies/methods to effectively reduce energy use without compromising
occupancy standards. It encompasses working safely, setting up and conducting
evaluation measurements and evaluating energy use from measured parameters.
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T1 Climate and
thermal comfort encompassing:
characteristics of the different Australian climatic types. use
of climatic data in published and electronic forms to extract the quantities
relevant to energy efficient design.
relationship between climate and comfort using bioclimatic or psychrometric
charts.
calculation of heating or cooling degree days or degree hours for various
locations.
calculation of thermal neutrality for a given location. |
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T2 Solar
geometry and radiation encompassing:
definition of the terms: declination, hour angle, zenith angle, azimuth and
altitude angles, the equation of time.
conversion of solar time to local time and vice versa.
position of the sun and the length of shadows with the aid of algorithms,
tables, sun charts or computer software.
daily irradiation incident on a wall, window or roof of a given tilt and
orientation.
relative summer and winter irradiation of windows facing the cardinal
orientations. |
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T3 Heat
transfer encompassing:
thermal processes of conduction, convection and radiation apply to the
transfer of heat in buildings.
calculation of the summer and winter U-values of building elements using
tables and software.
calculation of the infiltration heat transfer in a building. |
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T4 Glazing
Systems encompassing:
different types of glazing systems and their characteristics.
different types of shading devices and the window orientations for which they
are most appropriate.
solar heat gain for different glazing types and angles of incidence
calculation of the average daily irradiation of a window partly shaded by
eaves, using computer software.
calculation of the average daily heat gain through a window partly shaded by
eaves. |
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T5 Insulation
encompassing:
different types of insulation and where they are used. how
different types of insulation are installed in roofs, walls and floors
T12
Sustainable and safe building materials encompassing:
common building materials and their embodied energy content.
environmental impact of the production of various building materials.
problems associated with the use or disposal of building materials. |
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This unit covers
fixing, securing and mounting techniques as apply in the various
electrotechnology work functions. It encompasses the safe use of hand and
portable power tools, safe lifting techniques, safe use of ladders and elevated
platforms and the selection and safe application of fixing devices and
supporting accessories/equipment.
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Electrical
Principle (EE102) |
KS01-EE105A
Fixing and support devices/techniques
Evidence shall
show an understanding of accessories and support and fixing device and methods
and their use to an extent indicated by the following aspects:
T1. Device for
securing and mounting electrical/electronic/instrumentation/refrigeration/
air-conditioning/telecommunications accessories for supporting, fixing and
protecting wiring/cabling/piping and functional accessories to hollow walls
encompassing:
types
and safe application of devices for hollow wall fixing and support
methods/techniques used to fix/support to wood, hollow wall, masonry blocks,
plasterboard, panelling
types
and safe application of fixing devices used in the electrotechnology industry
for wood and hollow wall structures (wood screws, coach bolts, self-tappers,
self drilling, metal thread, hollow wall anchors, behind plaster brackets, stud
brackets, plasterboard devices, toggle devices)
types
of tools used for hollow wall fixing and supporting.
using
various fixing methods to fix/support to hollow walls.
T2. Device for
securing and mounting electrical/electronic/instrumentation/refrigeration/
air-conditioning/telecommunications accessories for supporting, fixing and protecting
wiring/cabling/piping and functional accessories to solid walls encompassing:
types
and safe application of devices used for solid wall fixing and support
methods/techniques used in to fix to masonry and concrete structures
fixing
devices used in the electrotechnology industry for solid wall structures
(wall-plugs, expanding concrete fixing devices, gas powered fixing tools,
powder actuated fixing tools, loxins, dynabolts, chemical devices)
regulatory requirements for use of powder fixing tools.
hand
and power tools used in fixing and supporting accessories
using
various fixing methods to fix/support to solid walls
T3. Device for
securing and mounting electrical/electronic/instrumentation/refrigeration/
air-conditioning/telecommunications accessories for supporting, fixing and
protecting wiring/cabling/piping and functional accessories to metal fixing
encompassing:
accessories that may be fixed to metal (saddle clips, conduits, brackets,
switches)
techniques for fixing to metal
fixing
devices: coach bolts, self-tappers, metal thread bolts, hollow wall anchors,
rivets
fixing
tools - spanners, screwdrivers, power screw drivers, pop riveters, files,
reamers
OH&S issues related to drilling, cutting, eye protection, metal filings,
swarf, noise
Using
power drills, drill bits, change drill speeds.
Install a fixing device and accessory capable of supporting up to 20 kg on the
metal plate.
T4. Securing
and mounting electrical/electronic/instrumentation/refrigeration/ air-conditioning/telecommunications
accessories for supporting, fixing and protecting wiring/cabling/piping and
functional accessories using fixing adhesives and tapes encompassing:
types
and safe application of using adhesives and tapes as fixing devices (load
limits of different commercial products)
accessories that may be fixed using adhesives and tapes
techniques for the application of adhesives and tapes
tools
used to apply and cut adhesives and tapes
hazards and safety measures when working with adhesives and chemical fixing
devices (fumes, cutting, eye protection, physical contact, hand protection,
ingestion)
This unit
covers the application of advanced computational processes to solve energy
sector engineering problems. It encompasses working safely, applying problem
solving techniques, using a range of advanced mathematical processes, providing
solutions to electrical/electronics engineering problems and justifying such
solutions.
Note. Typical
engineering problems are those encountered in meeting requirements in a design
brief, meeting performance requirements and compliance standards, revising
systems operating parameters and dealing with system malfunctions
Maths 403 Engineering-Mathematics (EE302)
Maths 302
Elementary-Linear-Algebra (EE302)
Maths 501 Linear
Algebra-c-1 (EE302)
KS01-EE127A
Advanced Engineering Maths
Evidence shall
show an understanding of advanced engineering maths to an extent indicated by
the following aspects:
T1 Differential
Calculus encompassing:
basic
concepts of differential calculus, limited to definition of the derivative of a
function as the slope of a tangent line (the gradient of a curve); limits;
basic examples from 1st principles; Notation and Results of derivative of
k.f(ax + b) where f(x)=x to the power of n, sin x, cos x, tan x, e to the power
of x, ln x.
rules
- derivative of sum and difference; product rule; quotient rule; chain rule
(function of a function), limited to two rules for any given function, the 2nd
derivative.
applications
- equations of tangents and normals; stationary points; turning points; and
curve sketching; rates of change; rectilinear motion
verbally formulated problems involving related rates and maxima: minima
T2 Integral
Calculus encompassing:
integration
as the inverse operation to differentiation - results of the integral of k.f(ax
+ b) where f(x) = x to the power of n, sin x, cos x, sec squared x, e to the
power of x, method of substitution, the definite integral.
applications - areas between curves; rectilinear motion including displacement
from acceleration and distance travelled; voltage and current relationship in
capacitors and inductors and the like.
T3 Linear
Algebra encompassing:
matrices and inverse matrices;
linear
mapping,
determinants,
solution of linear equations.
T4 Vectors
encompassing:
geometrical representation,
addition and scalar multiplication,
dot
and cross products,
equations of lines and planes.
T5 Variables
encompassing:
graphs, level curves and surfaces
partial derivatives; chain rule; directional derivative;
maxima
and minima.
T6 Sequences
and Series encompassing:
algebraic and Fourier series, convergence; Taylor’s Theorem
power
series manipulation.
T7 Differential
Equations encompassing:
first
order and separable linear equations
second
order linear equations.
partial differential equations.
numerical Techniques.
T8 Number
encompassing:
integer, irrational and complex numbers.
number
systems.
arithmetic
operations.
accuracy and stability.
T9 Statistics
encompassing:
assembly, representation and analysis of data.
fitting distributions to data.
non-parametric statistics.
tests
of significance for means, variances and extreme values.
correlation
Maths 301 Introductory Finite Difference Methods-for-pdes
The residue Theorem
Fourier Transform
Integral theorem of complex analysis with applications to the
evaluation of real integral
Integral theorems – The green Theorem
Cauchy’s integral theorem
Cauchy’s residue theorem
|
Process Control System (EE116) |
This unit
covers solving problems in industrial control systems. The unit encompasses
safe working practices, interpreting process and circuit diagrams, applying
knowledge of industry controls to problem solving techniques, safety and
functional testing and completing the necessary documentation.
Note.
Typical basic
industrial control system problems are those encountered in meeting performance
requirements and compliance standards, revising control operating parameters
and dealing with control malfunctions.
|
KS01-EI120A |
Industrial
control systems |
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|
Evidence
shall show an understanding of industrial control systems to an extent
indicated by the following aspects: |
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Control
amplifiers encompassing:
Introduction
Amplifier Operation
Operational Amplifiers
Operational Amplifier Configurations |
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|
Industrial
transducers encompassing:
Introduction SI
Units
Forms of Energy
Transducer Terminology
Temperature Measurement
Force Measurement
Speed Measurement |
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|
SKILLS AND
KNOWLEDGE |
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|
Positional Measurement |
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Industrial
final control elements encompassing:
Introduction
Electromagnetic Devices
Valves
Solid State Switching Devices |
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Industrial
control systems encompassing:
Automatic Control Open
Loop Control
Closed Loop Control
Control System Terminology
Control System Evaluation Two
Position Control
Proportional Control (P)
Proportional + Integral Control (P+I)
Proportional + Derivative Control (P+D)
Proportional + Integral + Derivative Control (P+I+D) |
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Industrial
control loops and control signals encompassing:
Introduction
Control Loops
Converters (D to A and A to D)
Multiplexing |
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Mgt 503 |
Basic Management+ (EE309) Production
& Operation Management |
|
|
Part 1 Project Management
This unit
covers the management of large mechanical projects involving design,
modifications, installation, and/or maintenance of systems and equipment. The
unit encompasses management of safety, budget variation, personnel, resources,
critical path timelines and completion documentation.
KS01-EG169A Project
management
Evidence shall
show an understanding of managing mechanical projects to an extent indicated by
the following aspects:
T1 Defining
project parameters encompassing:
Project scope
Project stakeholders and clients
Project phases and the relationship between phases
T2 Time
management concepts and standard practices
T3 Financial
management encompassing:
Financial management concepts
Standard practices for managing project finances
Project budgets
Costs
variations and estimations
Invoicing against project phases/deliverables
Acquittals and the like
T4 Quality
management concepts and practices
T5 Human
Resource management concepts and practices within a project
T6
Communication management concepts and practices within a project
T7 Risk
management and contingencies encompassing:
Risk
management concepts
Internal risks
External risks
Contingencies
Standard practices for managing risk within a project
Risk
minimisation
Risk
removal; and the like
T8 Procurement
management concepts and practices
T9 Physical
Resource management concepts and practices relating to equipment, technology,
information and facilities
T10 Contracts
encompassing:
Contract format
Contract content
Interpreting contract clauses
Legal
obligations of contract parties
Working to contract specifications
Documentation accompanying contracts such as schedules and the like
T11 Performance
assessment and continuous improvement
T12 Engineering
ethics principles
T13
Customer/Client relations encompassing:
Interpersonal
skills that enhance customer/client
Dispute resolution
Customer/client relations strategies
T14 Mechanical industry
sector customs and practice encompassing:
Equipment procurement, cost/benefit analysis and performance testing
Typical approaches to planning and management
Successful planning techniques
Best
practice management methods and styles
Part 2 Project Planning
This unit
covers development and documentation of large electrical project proposals,
milestones and completions. The unit encompasses, establishing budgets,
critical path analysis, development of workflow strategies, documenting,
presenting and negotiating budgets and timelines.
KS01-EG170A Project
planning
Evidence shall
show an understanding of planning projects and analyzing progress to an extent
indicated by the following aspects:
T1 Project
planning encompassing:
T2 Purpose of
project planning Evidence shall show an understanding of managing electrical
projects to an extent indicated by the following aspects:
T3 Defining
project parameters encompassing:
Project scope
Project stakeholders and clients
Project phases and the relationship between phases
Time
requirements and limitations
Resource requirements and limitations
Quality requirements and limitations
T4 Time
management concepts and standard practices
T5 Financial
management encompassing:
Invoicing
against project phases/deliverables
Acquittals and the like
T6 Quality
management concepts and practices
T7 Human
Resource management concepts and practices within a project
T8
Communication management concepts and practices within a project
T9 Risk
management and contingencies encompassing:
Risk
management concepts
Internal risks
External risks
Contingencies
Standard practices for managing risk within a project
Risk
minimisation
Risk removal;
and the like
T10 Procurement
management concepts and practices
T11 Physical
Resource management concepts and practices relating to equipment, technology,
information and facilities
T12 Contracts
encompassing:
Contract format
Contract content
Interpreting contract clauses
Legal
obligations of contract parties
Working to contract specifications
Documentation accompanying contracts such as schedules and the like
T13 Performance
assessment and continuous improvement
T14 Engineering
ethics principles
T15
Customer/Client relations encompassing:
Importance of customer/client relations
Interpersonal skills that enhance customer/client
Dispute resolution
Customer/client relations strategies
T16 Mechanical industry
sector customs and practice encompassing:
Equipment procurement, cost/benefit analysis and performance testing
|
REQUIRED
SKILLS AND KNOWLEDGE |
|
Typical approaches to planning and management
Successful planning techniques Best
practice management methods and styles
Documents needed to plan a project
Factors influencing sequence and restraints of project activities
Critical path analysis covering graphical representation methods and methods
of representing time/rates T17 Critical
path and project analysis encompassing:
Purpose of critical path analysis
Essential data
Relational sequence of work activities
Graphical representation methods
Methods of representing time/rates
Monitoring methods |
|
T18 Mechanical industry sector customs and practice
encompassing: Equipment
procurement, cost/benefit analysis and performance testing Typical
approaches to planning and management Successful
planning techniques Best practice
management methods and styles |
Mgt 505 Quality Management and Manufacturing Engineering
What Is Quality? Customer’s Perspective, Dimensions of Quality: Manufactured
Products, Dimensions of Quality: Services, What Is Quality: Producer’s Perspective, Meaning of Quality, Deming Wheel: PDCA Cycle, Quality Tools, Flow Chart, Cause-and-Effect Diagram, Cause-and-Effect Matrix, Check Sheets and Histograms,
Pareto Analysis, TQM and QMS, Focus of Quality Management—
Customers, Quality Management in the Supply Chain, Measuring Customer Satisfaction, Role of Employees in Quality
Improvement, Quality Circles, Process (Quality) Improvement Teams, Quality in
Services, Quality Attributes in Services, Breakthrough Strategy: DMAIC, Profitability, Cost of Quality, Prevention Costs, Appraisal Costs, Internal Failure Costs, External Failure Costs, Measuring and Reporting Quality Costs, Cost of
Quality, Quality–Cost Relationship, Effect of Quality Management on Productivity, Measuring Product Yield and Productivity, Computing Product Cost per
Unit, Computing Product Yield for
Multistage Processes, Initial Batch Size For 100 Motors, Quality Productivity Ratio, ISO 9000, ISO 9000 Certification, Implications,
and Registrars
-Constant acceleration, laws of motion, motion with constant acceleration, velocity-time graph, two dimensional motion, newton laws of motion, equilibrium, components of force, lever, fractional force,
-Centre of gravity, conservation of momentum, energy power, circular motion, motion in vertical circle.
ME 102 Engineering Thermodynamics
-Thermodynamic system, thermodynamic properties, quality of the working substances, thermodynamic processes, ideal gas, gas equation during a change of state, thermodynamic process for gas, vanderwaal gas equation, entropy, properties of steam, thermodynamic of working fluids
-Gas problems, method of expansion/compression, first law of thermodynamics, throttling valve, second law of thermodynamics, third law of thermodynamics
Driving machine, transmission machine, driven machines, rotating machines, machine mountings, principle of balancing, static balancing, dynamic balancing, selection of lubricants, methods of application of lubricants, properties of lubricants, bearings,copper lead alloy, rolling element bearing, linear bearing, fretting, V-belt drives, belt tension adjustment, chain drives, gear drives, shaft coupling types, clutches, method of alignment, O- rings, machine condition monitoring methods, safety gears.
Principle of internal combustion engine, heat transfer in engine, cylinder heat flux and temperature, heat transfer equation in engine, boiling of coolant, exhaust valve, engine stroke, fuel combustion, products of combustion, ignition circuit , fuel supply lines in engine, fuel pumps, fuel injectors, fuel injection pump, fuel injection timing, fuel governor, governor control system.
ME 201 Introduction to fluid mechanics
ME 202 Introduction to Aerodynamics
· Definition and approaches of aerodynamics, centre of pressure and aerodynamic centre of air foil, airflow circulation, velocity potential, vortex flow, wind tunnel, finite wing theory , airfoil nomenclature
· Resultant force and moment acting on air foil, fundamental of inviscid compressible flow, one dimensional flow equation, quasi one dimensional flow, nozzle and diffuser flow,.
· Fundamental of viscous flow, wind tunnel, a few basic experiments.
ME 304 Non Linearity in Control System
ME 204 Engineering Fluid Mechanics
ME 301 Fluid Dynamics
Fluid particles, Body forces, compressible flow, incompressible flow, turbulent flow, inviscid flow, boundary layer approximation.
ME 205 Manufacturing Processes and Materials
ME 206 Introduction to turbo-machinery
ME 207 Chemical Thermodynamics
Free energy diagram, variation of motor gibbs, liquid-liquid equilibrium, phase behaviour, condition for equilibrium, mole fraction of ethanol, temperature vs solid water + solid ethanol properties, liquid phases.
ME 209 Introduction to polymer science/ technology
Materials and process resources, manufacturing, heat shrinkable tubes, compounding mixing, polymer processing tube extrusion, crosslink , electron accelerator, tube expansion , polymers, elastomers, properties of polymers, composition of synthetic polymers, categories of polymers, basic molecule, synthetic polymers, properties of synthetic polymers, amporphous & semi crystalline, phase transition, polymer properties, crosslinking and elastic memory, fillers, additives for polymers, elastomers, overall product performance, test methods & specification, energy materials, anti tracking materials, material test method, tracking & erosion resistance test, mechanism of iron oxide, base polymer tracking resistance, track prone polymer, stress control, electrical switching behaviour.
Chemical effect on material, examples of corrosion, galvanic corrosion, intrinsic chemistry, coating, corrosion protection methods, polymer tracking resistance, corrosion in passivation materials, types of corrosion, stress corrosion cracking, carbon steels, concentration cell corrosion.
ME 303 Computer Aided Design
& Manufacturing
CAD/CAM System, comparison between different CAD systems, internet based computer design system, complement of data, milling of cylindrical hole, pro-engineered manufactured parts, machine tool co-ordinate system, operation set up, machining sequence program, drilling hole program, simulation program, program to calculate total machining time, reverse engineering, rapid prototyping, basic process, accurate processing, diagram for rapid prototyping techniques, other kinds of reverse engineering, kinds of materials for rapid prototyping.
ME 306 Theory of waves in materials
Equilibrium process, Claudius inequality, basic wave phenomena, wave equation, characteristics of waves, elastic volume and shear waves, vector field of displacement, approximation, convection of a disturbance in a pipe , diffusion of a wave in a pipe.
ME 334 Air-conditioning & Refrigeration
|
Sustainability |
This unit covers developing strategies to address environmental and
sustainability issues in the energy sector. It encompasses working safely,
apply extensive knowledge of sustainable energy systems and components and
their operating parameters, gathering and analysing data, applying problem
solving techniques, developing and documenting alternatives solutions
|
KS01-EK132A |
Environmental and Sustainability strategies |
|
Evidence shall show an understanding of
greenhouse reduction strategies to an extent indicated by the following
aspects: |
|
|
T1 Principles of sustainability encompassing: ways
in which ecosystems moderate climate. ways in which ecosystems purify and
store water. ways
in which ecosystems recycle waste. |
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T2 Problems in a sustainable world encompassing: changes to Australian forest cover since
white settlement, and the resulting loss of ecosystem and human benefits. changes to Australia‘s soils since white
settlement, and the resulting loss of ecosystem and human benefits. changes to Australia‘s waterways since
white settlement, and the resulting loss of ecosystem and human benefits. place of environmental accounting in
quantifying Australia‘s environmental losses. limits to Australia‘s population
carrying capacity. |
|
|
T3 Sustainability principles encompassing: principles within sustainability
including: environmental accounting and economies; full cost pricing; triple
bottom line ethic; ecologically sustainable development; greenhouse gas
abatement; energy efficiency; resource and water use efficiency; life cycle
costing; renewable energy substitution, cleaner production; waste
minimisation, reuse and recycling; ecological footprint. |
|
|
T4 Addressing the problem of global warming
encompassing: greenhouse gases and their sources and
quantities that contribute to global warming. global warming impacts for Australia for
2030 and 2070 predicted by CSIRO modelling. requirements to achieve stable
atmospheric concentrations of greenhouse gases. ecologically and economically
sustainable methods for achieving these stable concentrations. |
|
|
T5 Greenhouse gas emissions profile encompassing:
goals and principles of the National
Greenhouse Strategy what a greenhouse gas inventory is, why
it is required, and the sectors to which it applies uses to which the National Greenhouse
Gas Inventory can be applied. |
|
|
T6 Understanding and communicating climate change
and its impacts encompassing: the possible impact of climate change in
Australia. techniques for improving the understanding
of climate change techniques for communicating to and
educating the general |
|
|
public on greenhouse gas induced climate change. |
|
|
T7 Partnerships for greenhouse action
encompassing: actions achievable by each level of
government to implement the NGS. methods by which the community activity
can be engaged in the reduction of greenhouse gas emissions. initiatives that can be undertaken by
the private sector to reduce greenhouse gas emissions. advantages of international
partnerships. emissions trading system. |
|
|
T8 Efficient and sustainable energy use and
supply encompassing: techniques for reducing the greenhouse
intensity of energy supply. types of renewable energy sources
suitable for use in Australia. methods and technique for improving
end-use efficiency. |
|
|
T9 Efficient transport and sustainable urban
planning encompassing: how integrating land use and transport
planning can assist the greenhouse problem. how each of the following can be used to
mitigate greenhouse gas; travel demand and traffic management strategies;
encouraging greater use of public transport, walking and cycling; freight and
logistics systems; improving vehicle fuel efficiency and fuel technologies; |
|
|
T10 Greenhouse sinks and sustainable land management
encompassing: how enhancing greenhouse sinks and
encouraging sustainable forestry and vegetation management can complement the
AGS. how greenhouse gas emissions are
obtained from agricultural production and describe techniques to mitigate the
emissions. |
|
|
T11 Models of greenhouse best practice in
industrial processes and waste management encompassing: types and methods of reducing greenhouse
gas emissions from industry. methods of reducing methane emissions
from waste treatment and disposal. |
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T12 Adaptation to climate change encompassing: salient points in each of the key
sectors that require analysis and the strategies required in the need for
adaptation to climate change |
|
Mgt 503
Production & Operation Management
Analyze business operations using appropriate performance measures, such as flow
time, throughput rate and capacity.
2. Propose business solutions in written and verbal forms for operations improvement
and process design projects.
3. Indentify inefficiency and ineffectiveness in business operations and propose
adequate minor changes or major redesigns to improve the process.
4. Understand the theory and implementations of quality control activities for different
industries.
5. Use computing software to determine optimal capacity under various situations in a
process.
6. Practice team skills to organize a functioning team to analyze and improve business
process.
Mgt 105 Quality
Management and Manufacturing Engineering
Meaning of Quality?
Quality:
Customer’s Perspective?
Dimensions of
Quality:Manufactured Products
Dimensions of
Quality: Services
Quality:Producer’s
Perspective
Outline
Deming’s 14 Points.
Deming Wheel:
PDCA Cycle.
Cause-and-Effect
Diagram
Pareto
Analysis.
Control
Chart.
Quality
Management in the Supply Chain.
Quality
Circles.
Quality
Attributes in Services
Design for
Six Sigma (DFSS).
Prevention Cost
External
Failure Costs
Quality costs
measure and report?
Measuring
Product Yield and Productivity.
Quality–Productivity
Ratio.
ISO 9000
certification?
|
Electrical Power Principle |
KS01-EG006A Single and three-phase transformers
Evidence shall show an understanding of single and three phase
transformers to an extent indicated by the following aspects:
T1 Transformer construction encompassing:
types of lamination style and core
construction used in single-phase, three phase, double wound, auto transformers
and instrument transformers.
identification of different winding styles/types used in
transformers.
methods used to insulate low and high voltage transformers.
construction of transformer tanks for distribution
transformers.
transformer auxiliary equipment.
(Bushings, surge-diverters, tap-changers, hot oil & winding indicators,
breather, Buchholz relay and conservator).
function of transformer auxiliary equipment.
types of information stated on transformer nameplates.
application of transformers.
performing basic insulation resistance,
continuity and winding identification tests.
T2 Transformer operation encompassing:
principles of mutual induction of a transformer.
factors that determine the induced voltage in a transformer
winding.
determining the value of a transformers
secondary voltage and current given one winding’s electrical details and turns
ratio.
identification of voltage and current
components of a phasor diagram for a transformer on no-load.
principles of power transferred from
the primary to secondary when a load is connected using a phasor diagram
neglecting impedance drops.
selecting transformers for specific application/s.
safety features specified in AS/NZS3000
with respect to transformers and isolating transformers.
T3 Transformer losses, efficiency and cooling encompassing:
power losses which occur in a transformer.
tests which allow the power losses of a transformer to be
determine.
determination of transformer losses and efficiency using test
results.
relationship between transformer cooling and rating.
methods used for natural and forced cooling of transformers.
properties of transformer oil.
tests conducted on transformer oil.
T4 Transformer voltage regulation and percent impedance encompassing:
voltage regulation as applicable to a
transformer.
reasons for voltage variation in the output of a transformer.
determine the voltage regulation of a
transformer from voltage and percentage impedance values.
percentage impedance as applied to transformers.
determine the percent impedance by
using test results.
determine percent impedance of a transformer by calculation.
T5 Parallel operation of transformers and transformer auxiliary
equipment encompassing:
determine polarity markings for an
unidentified single phase double wound transformer.
need for parallel operation of transformers.
conditions/restrictions required before
two transformers can be connected in parallel.
connecting transformers in parallel to
supply a single load (loading on transformers operating in parallel).
the consequences/effect of an incorrect connection.
T6 Auto-transformers and instrument transformers encompassing:
identification of auto-transformers,
voltage transformers and current transformers from their winding diagrams.
determining voltage and current in the
windings of an auto-transformer by calculation.
advantages and disadvantages of an
auto-transformer.
AS/NZS3000 requirements with respect to transformers.
construction of voltage transformers.
ratings of voltage transformers.
construction of current transformers.
ratings of current transformers.
precautionary measures taken to connect and disconnect
instrument transformers.
connection diagrams for instrument transformers.
applications for auto-transformers and
instrument transformers.
|
EE101 |
This unit covers determining correct operation of single source d.c.
series, parallel and series-parallel circuits and providing solutions as they
apply to various electrotechnology work functions. It encompasses working
safely, problem solving procedures, including the use of voltage, current and
resistance measuring devices, providing solutions derived from measurements and
calculations to predictable problems in single and multiple path circuits.
Evidence shall show an understanding of electrical fundamentals and
direct current multiple path circuits to an extent indicated by the following
aspects:
T1 Basic electrical concepts encompassing:
electrotechnology industry
static and current electricity
production of electricity by renewable and non renewable energy
sources
transportation of electricity from the
source to the load via the transmission and distribution systems
utilisation of electricity by the various loads
basic calculations involving quantity
of electricity, velocity and speed with relationship to the generation and
transportation of electricity.
T2 Basic electrical circuit encompassing:
symbols used to represent an electrical
energy source, a load, a switch and a circuit protection device in a circuit
diagram
purpose of each component in the circuit
effects of an open-circuit, a
closed-circuit and a short-circuit
multiple and sub-multiple units
T3 Ohm’s Law encompassing:
basic d.c. single path circuit.
voltage and currents levels in a basic d.c. single path
circuit.
effects of an open-circuit, a
closed-circuit and a short-circuit on a basic d.c. single path relationship
between voltage and current from measured values in a simple circuit
determining voltage, current and
resistance in a circuit given any two of these quantities
graphical relationships of voltage, current and resistance
relationship between voltage, current
and resistance
T4 Electrical power encompassing:
relationship between force, power, work and energy
power dissipated in circuit from voltage, current and
resistance values
power ratings of devices
measurement electrical power in a d.c.
circuit
effects of power rating of various resistors
T5 Effects of electrical current encompassing:
physiological effects of current and
the fundamental principles (listed in AS/NZS 3000) for protection against the
this effect
basic principles by which electric
current can result in the production of heat; the production of magnetic
fields; a chemical reaction
typical uses of the effects of current
mechanisms by which metals corrode
fundamental principles (listed in
AS/NZS3000) for protection against the damaging effects of current
T6 EMF sources energy sources and conversion electrical energy encompassing:
basic principles of producing a emf
from the interaction of a moving conductor in a magnetic field.
basic principles of producing an emf
from the heating of one junction of a thermocouple.
basic principles of producing a emf by
the application of sun light falling on the surface of photovoltaic cells
basic principles of generating a emf when a mechanical force is
applied to a crystal
(piezo electric effect)
principles of producing a electrical current from primary,
secondary and fuel cells
input, output, efficiency or losses of electrical systems and
machines
effect of losses in electrical wiring and machines
principle of conservation of energy
T7 Resistors encompassing:
features of fixed and variable resistor types and typical
applications
identification of fixed and variable resistors
various types of fixed resistors used
in the Electro technology Industry. e.g. wire-wound, carbon film, tapped
resistors.
various types of variable resistors
used in the Electro technology Industry e.g. adjustable resistors:
potentiometer and rheostat; light dependent resistor (LDR); voltage dependent
resistor (VDR) and temperature dependent resistor (NTC, PTC).
characteristics of temperature, voltage
and light dependent resistors and typical applications of each
power ratings of a resistor.
power loss (heat) occurring in a conductor.
resistance of a colour coded resistor
from colour code tables and confirm the value by measurement.
measurement of resistance of a range of
variable’ resistors under varying conditions of light, voltage, temperature
conditions.
specifying a resistor for a particular application.
T8 Series circuits encompassing:
circuit diagram of a single-source d.c.
‘series’ circuit.
Identification of the major components
of a ‘series’ circuit: power supply; loads; connecting leads and switch
applications where ‘series’ circuits are used in the Electro
technology industry.
characteristics of a ‘series’ circuit -
connection of loads, current path, voltage drops, power dissipation and affects
of an open circuit in a ‘series’ circuit.
the voltage, current, resistances or
power dissipated from measured or given values of any two of these quantities
relationship between voltage drops and
resistance in a simple voltage divider network.
setting up and connecting a
single-source series dc circuit
measurement of resistance, voltage and
current values in a single source series circuit
effect of an open-circuit on a series
connected circuit
T9 Parallel circuits encompassing:
schematic diagram of a single-source
d.c. ‘parallel’ circuit.
major components of a ‘parallel’ circuit (power supply, loads,
connecting leads and
· applications where ‘parallel’ circuits are used in
the Electrotechnology industry.
characteristics of a ‘parallel’
circuit. (load connection, current paths, voltage drops, power dissipation,
affects of an open circuit in a ‘parallel’ circuit).
relationship between currents entering
a junction and currents leaving a junction
relationship between branch currents
and resistances in a two branch current divider network.
calculation of the total resistance of a ‘parallel’ circuit.
calculation of the total current of a ‘parallel’ circuit.
Calculation of the total voltage and
the individual voltage drops of a ‘parallel’ circuit.
setting up and connecting a
single-source d.c. parallel circuit
resistance, voltage and current
measurements in a single-source parallel circuit
voltage, current, resistance or power
dissipated from measured values of any of these quantities
output current and voltage levels of connecting cells in
parallel.
T10 Series/parallel circuits encompassing:
schematic diagram of a single-source
d.c. ‘series/parallel’ circuit.
major components of a ‘series/parallel’
circuit (power supply, loads, connecting leads and switch)
applications where ‘series/parallel’
circuits are used in the Electrotechnology industry.
characteristics of a ‘series/parallel’
circuit. (load connection, current paths, voltage drops, power dissipation,
affects of an open circuit in a ‘series/parallel’ circuit).
relationship between voltages, currents and resistances in a
bridge network.
calculation of the total resistance of a ‘series/parallel’
circuit.
calculation of the total current of a
‘series/parallel’ circuit.
calculation of the total voltage and
the individual voltage drops of a ‘series/parallel’ circuit.
setting up and connecting a
single-source d.c. series/ parallel circuit
resistance, voltage and current
measurements in a single-source d.c. series / parallel circuit
the voltage, current, resistances or
power dissipated from measured values of any two of these quantities
T11 Factors affecting resistance encompassing:
four factors that affect the resistance
of a conductor (type of material, length, cross-sectional area and temperature)
affect the change in the type of
material (resistivity) has on the resistance of a conductor.
affect the change in ‘length’ has on the resistance of a
conductor.
affect the change in ‘cross-sectional
area’ has on the resistance of a conductor.
effects of
temperature change on the resistance of various conducting materials
· effects of resistance on the current-carrying
capacity and voltage drop in cables.
calculation of the resistance of a
conductor from factors such as conductor length, cross-sectional area,
resistivity and changes in temperature
using digital and analogue ohmmeter to
measure the change in resistance of different types of conductive materials
(copper, aluminium, nichrome, tungsten) when those materials undergo a change
in type of material length, cross-sectional area and temperature.
T12 Effects of meters in a circuit encompassing:
selecting an appropriate meter in terms
of units to be measured, range, loading effect and accuracy for a given
application.
measuring resistance using direct,
volt-ammeter and bridge methods.
instruments used in the field to
measure voltage, current, resistance and insulation resistance and the typical
circumstances in which they are used.
hazards involved in using electrical
instruments and the safety control measures that should be taken.
operating characteristics of analogue and digital meters.
correct techniques to read the scale of
an analogue meters and how to reduce the ‘parallax’ error.
types of voltmeters used in the
Electrotechnology industry – bench type, clamp meter, Multimeter, etc.
purpose and characteristics (internal
resistance, range, loading effect and accuracy) of a voltmeter.
types of voltage indicator testers.
e.g. LED, neon, solenoid, volt-stick, series tester, etc. and explain the
purpose of each voltage indicator tester.
operation of various voltage indicator testers.
advantages and disadvantages of each voltage indicator tester.
various types of ammeters used in the
Electrotechnology industry – bench, clamp meter, multimeter, etc.
purpose of an ammeter and the correct
connection (series) of an ammeter into a circuit.
reasons why the internal resistance of
an ammeter must be extremely low and the dangers and consequences of connecting
an ammeter in parallel and/or wrong polarity.
selecting an appropriate meter in terms
of units to be measured, range, loading effect and accuracy for a given
application
connecting an analogue/digital
voltmeter into a circuit ensuring the polarities are correct and take various
voltage readings.
loading effect of various voltmeters when measuring voltage
across various loads.
using voltage indicator testers to detect the presence of
various voltage levels.
connecting analogue/digital ammeter
into a circuit ensuring the polarities are correct and take various current
readings.
T13 Resistance measurement encompassing:
Identification of instruments used in
the field to measure resistance (including insulation resistance) and the
typical circumstances in which they are used.
the purpose of an Insulation Resistance (IR) Tester.
the parts and functions of various
analogue and digital IR Tester (selector range switch, zero ohms adjustment,
battery check function, scale and connecting leads).
reasons why the supply must be isolated
prior to using the IR tester.
where and why the continuity test would be used in an
electrical installation.
where and why the insulation resistance
test would be used in an electrical installation.
the voltage ranges of an IR tester and
where each range may be used. e.g. 250 V d.c, 500 V d.c and 1000 V d.c
AS/NZS3000 Wiring Rules requirements –
continuity test and insulation resistance (IR) test.
purpose of regular IR tester calibration.
the correct methods of storing the IR
tester after use
carry out a calibration check on a IR Tester
measurement of low values of resistance using an IR tester
continuity functions.
measurement of high values of
resistance using an IR tester insulation resistance function.
volt-ammeter (short shunt and long
shunt) methods of measuring resistance.
calculation of resistance values using
voltmeter and ammeter reading (long and short shunt connections)
measurement of resistance using
volt-ammeter methods
T14 Capacitors and Capacitance encompassing:
basic construction of standard
capacitor, highlighting the: plates, dielectric and connecting leads
different types of dielectric material and each dielectric’s
relative permittivity.
identification of various types of
capacitors commonly used in the Electrotechnology industry (fixed value
capacitors -stacked plate, rolled, electrolytic, ceramic, mica and Variable
value capacitors – tuning and trimmer)
circuit symbol of various types of
capacitors: standard; variable, trimmer and polarised
terms: Capacitance (C), Electric charge
(Q) and Energy (W)
unit of: Capacitance (Farad), Electric charge (Coulomb) and
Energy (Joule)
factors affecting capacitance (the
effective area of the plates, the distance between the plates and the type of
dielectric) and explain how these factors are present in all circuits to some
extent.
how a capacitor is charged in a d.c. circuit.
behaviour of a series d.c. circuit
containing resistance and capacitance components. - charge and discharge curves
the term ‘Time Constant’ and its relationship to the charging and discharging
of a capacitor.
calculation of quantities from given
information: Capacitance (Q = VC); Energy (W =½CV2); Voltage (V = Q/C)
calculation one time constant as well
as the time taken to fully charge and discharge a given capacitor. (τ =
RC)
connection of a series d.c. circuit
containing capacitance and resistor to determine the time constant of the
circuit
T15 Capacitors in Series and Parallel encompassing:
hazards involved in working with
capacitance effects and the safety control measures that should be taken.
safe handling and the correct methods of discharging various
size capacitors
dangers of a charged capacitor and the
consequences of discharging a capacitor through a person
factors which determine the capacitance
of a capacitor and explain how these factors are present in all circuits to
some extent.
effects of capacitors connected in
parallel by calculating their equivalent capacitance.
effects on the total capacitance of
capacitors connected in series by calculating their equivalent capacitance.
Connecting capacitors in series and/or
parallel configurations to achieve various capacitance values.
common faults in capacitors.
testing of capacitors to determine serviceability.
application of capacitors in the Electrotechnology
industry.
Principle of internal combustion engine, heat transfer in engine, cylinder heat flux & temperature, heat transfer equation in engine, boiling of coolant, exhaust valves, engine strokes, fuel combustion, product of combustion, ignition circuit, fuel supply lines in engine, fuel pump, fuel injectors, fuel injector, fuel injection pump, fuel injection timing, fuel governor, governor control system.