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Program Modules |
Hours
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Credits
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1)
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The
Trade and the Training Process
This module introduces
the student to the machining profession and allows a self-reflection
on his/her suitability for the trade. Field trips to local manufacturing
companies and classroom discussions help the student understand
what is required of a machinist.
|
15
|
1
|
2)
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Math
Related to Convention Machining
Mathematics is an integral part of being a machinist. As such, this
module will teach the basic concepts of equations, formulae and
trigonometry as applied to machining problems. Practical examples
and a rigorous understanding of essential principles are taught.
|
60
|
4
|
|
3)
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Interpreting
Technical Drawings
Technical drawings and blueprints form the basis from which a machinist
works to manufacture simple and complex parts. Therefore the student
will learn how to interpret industry-standard drawings and accurately
identify various critical features and specifications.
|
75
|
5
|
4)
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Health
& Safety
The student will learn how to identify hazards in the workplace.
Proper identification of risks associated with working in a machine
shop and how to avoid and/or minimize them will be stressed.
|
15
|
1
|
|
5)
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Taking
and Interpreting Measurements
The student will learn two essential goals in product inspection:
how to use and select the proper precision measuring instrument
for inspecting workpieces. In addition, hands-on use of an extensive
array of standard and special measuring instruments will be emphasized.
|
60
|
4
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6)
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Shop
Work
Using the knowledge from previous modules, the student will work
on a variety of bench-working projects in the machine shop. The
emphasis is on proper techniques when using hand tools (files, hacksaws,
layout procedures, etc.) and basic power tools (drill press, bench
grinders, etc.). As well, the student is taught how to prepare a
process sheet in order to properly plan and organize his/her work.
|
90
|
6
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7)
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Materials
& Processes
As a machinist, he/she will manufacture parts from a variety of
materials. This module will teach the fundamentals of interpreting
technical information related to materials and manufacturing processes.
Using handbooks and specification sheets, the student will analyze
the different materials found in today's industry.
|
30
|
2
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8)
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Sketches
Freehand drawing, for a machinist, is one of the key methods of
communicating ideas to others. Working with the knowledge gained
from Module 3 (Interpreting Technical Drawings), the student will
expand on his/her skills and make sketches of manufactured parts
with different views and sketching techniques.
|
45
|
3
|
|
9)
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External
Cylindrical Turning
This module introduces the student to the conventional lathe machine.
He/she will perform a variety of precise operations using different
cutting tools. Proper set-up techniques and tool selection, as well
as preparation of process sheets, process planning and quality assurance
are stressed throughout the module with the aid of machining projects.
|
90
|
6
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10)
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Boring
Using the conventional lathe machine, the student will perform internal
machining operations using drawings and process sheets.
|
75
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5
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11)
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Long.
& Trans. Machining on a Milling Machine
With the aid of process sheets, part drawings and a selection of
materials, the student will use the conventional milling machine
to perform basic operations such as facing, slotting, side milling
and gang milling. Learning machine set-up procedures, respecting
the specifications on the drawing, working within time constraints
and understanding the operations of the milling machine will be
the objectives of this module.
|
120
|
8
|
12)
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Thread
Cutting on a Lathe
This module contains two objectives. The first is the use of the
Machinery Handbook to understand the theory and calculations needed
to make and inspect a variety of threads. The second is the practical
aspect, whereby the student will machine different thread styles
using the conventional lathe machine. The student is taught how
to do calculations related to threads, grinding thread cutting tools
and inspection.
|
75
|
5
|
|
13)
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Drilling
& Reaming Using a Milling Machine
Following the knowledge learned from module #11 (Longitudinal and
Traverse Machining on a Milling Machine), the student will be taught
how to use the conventional milling machine to machine parts with
holes. Precision boring, tapping, counterboring and reaming are
just a few of the operations he/she will learn while completing
machining projects.
|
45
|
3
|
14)
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Surface
Grinding
Machining parts to very precise dimensions usually means the use
of precision grinding machines. This module will teach students
how to use both cylindrical and surface grinders. Proper set-up
techniques and respecting tight tolerances will be stressed as well
as the theory behind the selection of proper grinding wheels.
|
60
|
4
|
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15)
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New
Types of Work Organization
In today’s modern manufacturing plants, new manufacturing
techniques, both equipments and procedures, are used. The student
will learn what types of new equipments are being used, in the context
of ISO norms and Total Quality Management. He/she will also experience
working in a multidisciplinary team on projects. Field trips will
highlight some of the theory learned in class.
|
45
|
3
|
16)
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Introduction
to the Workplace
The student will be taught how to prepare a résumé
and cover letter. He/she will also learn how to search for and keep
a job, while following proper work ethics and diligence.
|
30
|
2
|
|
17)
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Angular
& Circular Milling on a Milling Machine
Using the conventional milling machine, the student will perform
complex operations using rotary tables and indexing heads. Proper
set-up techniques and calculations will be stressed through the
completion of a variety of projects.
|
120
|
8
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18)
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Math
Related to Numerical Control Machining
The student will expand on his/her knowledge of basic mathematics
and learn more advanced calculations necessary for CNC machining.
Identification of datums and workplanes for CNC machines, as well
as preparing coordinate charts, based on calculating intersection
points on the X,Y,Z Cartesian coordinate system, will be emphasized.
|
30
|
2
|
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19)
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Manual
Programming of a Numerical Control Lathe
Using the RS-274D and ISO standard G & M codes, the student
will be taught how to program a 2-axes CNC lathe machine. Process
planning, tool selection, respecting drawing specifications and
using a variety of programming techniques will be taught and applied
to properly plan and construct a CNC program.
|
60
|
4
|
20)
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Basic
Machining on a Numerical Control Lathe
Following the knowledge gained from manual programming and conventional
machining, the student will learn how to set up and operate a 2-axes
CNC lathe machine. Working on industry standard controls, such as
FANUC, Mitsubishi and FADAL, and using a project-based approach,
the student will develop a rigorous technique for working in a CNC
environment that will help to develop proper analysis and trouble-shooting
skills necessary for CNC machinists.
|
90
|
6
|
|
21)
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Manual
Programming of a Machining Centre
Using the RS-274D and ISO standard G & M codes, the student
will be taught how to program a 3-axes CNC machining centre. Process
planning, tool selection, respecting drawing specifications and
using a variety of programming techniques will be taught and applied
to properly plan and construct a CNC program.
|
60
|
4
|
22)
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Basic
Machining Using a Machining Centre
Following the knowledge gained from manual programming and conventional
machining, the student will learn how to set up and operate a 3-axes
CNC machining centre. Working on industry standard controls, such
as FANUC, Mitsubishi and FADAL, and using a project-based approach,
the student will develop a rigorous technique for working in a CNC
environment that will help to develop proper analysis and trouble-shooting
skills necessary for CNC machinists.
|
90
|
6
|
|
23)
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Complex
Turning Operations
Using a project-based approach, the student will complete complex
projects using the conventional lathe machine. Planning operations
with assemblies, respecting drawing specifications and performing
complex machining operations, while adhering to time constraints
and quality norms will be the objectives of this module.
|
120
|
8
|
24)
|
Complex
Milling Operations
Using a project-based approach, the student will complete complex
projects using the conventional milling machine. Planning operations
with assemblies, respecting drawing specifications and performing
complex machining operations, while adhering to time constraints
and quality norms, will be the objectives of this module.
|
120
|
8
|
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25)
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Mass
Production (Optional)
Using conventional machine tools, the student will work in a team
to complete a production series of parts. Learning how to set up
machines for production and coordination between tasks are just
two of the objectives for this module.
|
75
|
5
|
26)
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Using
a Boring Machine (Optional)
|
75
|
5
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|
27)
|
Entrepreneurship |
15 |
1 |
28)
|
Entering
the Work Force
This module represents the culmination and application of the Machining
Techniques program. The student will complete a six-week stage in
a manufacturing company. He/she will apply his/her knowledge while
working to gain experience and understanding of working under “real
world” conditions.
|
90
|
6
|
|
Total |
1800
|
120
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