Current Size: 100%
Mechanical Engineering Technology |
School of Applied Technology |
Program AvailabilityNorth Fall 2012: Open |
|
|
Type:
Advanced Diploma
|
Campus:
North
|
|
|
Program Code:
30731 |
Length: Two semesters, beginning in September |
|
|
CONTACT INFORMATION: Ed Espin, program co-ordinator | 416.675.6622 ext. 4713 | ed.espin@humber.ca
|
||
This Mechanical Engineering Technology advanced diploma program covers the theory and the skills needed to render engineering drawings using the latest in 2D and 3D computer-aided drafting software. Participants gain a thorough knowledge of materials and mechanical solutions for the design and manufacture of mechanical parts and assemblies. As well, students learn to apply design principles and practices to a variety of engineering, design and manufacturing process problems.
The technology program builds upon the solid technical foundation of the technician program. The technology graduate is prepared to enter a wider range of careers. The skills first learned in the technician program are enhanced through project based learning and increased hands-on practice in the labs.
The mechanical technologist graduates will apply their mechanical design, machining, and production skills in a variety of engineering fields and companies. They will be able to perform engineering design and equipment/ technology selection for major components in the design of mechanical systems; liaise with fabrication and engineering staff, as well as with vendors, for technical information and specifications; prepare preliminary and final cost estimates; prepare and evaluate production processes, costing, tool design and inspection requirements.
The graduates of this program may expect to find employment in two main areas:
1. Drafting and design, equipment testing, mechanical equipment installation,
consulting engineering offices.
2. In the metal cutting industries, programming, cost estimating, quality control and inspection, and in machinery sales.
The Ontario Association of Certified Engineering Technicians and Technologists (OACETT) recognizes the Mechanical Engineering Technology program as meeting the academic requirements for certification in the technologist category. Graduates must apply to OACETT to become a registered member. After the application is received OACETT will begin the process of awarding the CET status.
Completion of Humber’s Mechanical Engineering Technician diploma
Note: For more information visit Selection Procedures.
Meeting the minimum requirements does not guarantee admission to the program.
Qualified graduates of this program may be eligible to apply their academic credits toward further study at many postsecondary institutions. For detailed information, visit our website at humber.ca/transferguide.
The 2012/2013 fee for two semesters is
– domestic $4,020.48
– international $12,800.
Amounts listed are the total of tuition, lab and material fees, student service and auxiliary fees for the first two semesters of the 2012/2013 academic year.
Fees are subject to change.
For more information visit Fees and Financial Assistance.
“Small class sizes and a very intimate learning experience allowed the students to easily interact with each other and the experienced faculty.”
Viranjith Tilakaratne, graduate
“The work is innovative, challenging and fun,” says Mracek. “It’s definitely something I would struggle with if I didn’t take Humber’s Mechanical Engineering program. The program provided me with the skills and tools that helped me establish the foundation for my career.” Stephen Mracek, Mechanical Design Engineer at Athena Automation
“Small class sizes and a very intimate learning experience allowed the students to easily interact with each other and the experienced faculty.”
Viranjith Tilakaratne, graduate
“The work is innovative, challenging and fun,” says Mracek. “It’s definitely something I would struggle with if I didn’t take Humber’s Mechanical Engineering program. The program provided me with the skills and tools that helped me establish the foundation for my career.” Stephen Mracek, Mechanical Design Engineer at Athena Automation
Semester 1 | ||
| Course Code | Course | Credits |
| COMM 213 | Technical Communications 1Technical Communications 1Course Code: COMM 213 Credits: 3 This course is designed to develop the writing skills that will be required for clear communication in technical documents. Students will learn write documents that are clear, accurate, and grammatically correct.
Students will practice reading and writing skills that will be valuable in their college programs and build a strong base for professional technical and business writing. Those students who plan to further their studies will develop the fundamental skills for writing acceptable academic English.
To help students reach these goals, the course covers the following: analytical reading and critical thinking; the organization and development of expository and persuasive essays; and the elements of clear writing, including grammar and punctuation skills. 3 | 3 |
| MECH 106 | Workshop PracticeWorkshop PracticeCourse Code: MECH 106 Credits: 0 The use of basic machine shop measuring instruments will be covered. The student will be introduced to basic machining theory and operation of conventional machines such as mills, drill presses and lathes. The student is expected to follow safe work procedures developed for the lab and all machines used in this course. | 0 |
| MECH 120 | Blueprint Reading - Freehand SketchingBlueprint Reading - Freehand SketchingCourse Code: MECH 120 Credits: 4 Blueprints are the starting point of any engineering project. These are the main method of communication between all persons concerned with the design and manufacture of parts. The blueprint reading course has three main sections. The first part includes the principles of mechanical drafting (i.e., scales, line work, dimensioning, orthographic projections, auxiliary views, and cross sections) and free-hand sketching of simple mechanical parts. In the second part the student will use the skills acquired during the workshop practices course MECH 106, to take measurements, sketch and dimension the assembly and parts of mechanical devices. The third section of the course covers the review and study of industrial blue prints, including the process of assembling a set of blue prints, the revision process and documentation. Throughout this course the student will be able to recognize and use dimensions, symbols and call-outs used in the drafting practice. Drawings will concentrate on manufacturing, machining, mechanical, electrical, services, and process technologies. | 4 |
| MECH 207 | Engineering MaterialsEngineering MaterialsCourse Code: MECH 207 Credits: 3 This is an introductory course on engineering materials used in designs for manufacturing. Core elements in manufacturing consist of materials, processes and systems. Emphasis in this course is placed on engineering materials such as metals, polymers, ceramics and composites. Topics in engineering materials include material properties, product attributes and property enhancing operations. Property enhancing operations are limited to the heat treatment of metals. The student is expected to follow safe work procedures developed for the lab and all machines used in the lab portion of the course. | 3 |
| MECH 230 | Technical Drawing (CAD)Technical Drawing (CAD)Course Code: MECH 230 Credits: 4 This is a mechanical drafting course. The student will produce drawings incorporating Canadian and metric standards for third angle orthographic projection, dimensioning, sectional views, screw thread symbols, welded joints, fits, and tolerances, surface finishes, and assembly drawings | 4 |
| TMAT 105 | Math 1Math 1Course Code: TMAT 105 Credits: 4 This mathematics course includes the following: numerical computation of basic arithmetic operations; basic operations applied to algebraic expressions; simple equations; functions and graphs; trigonometric functions; factors and factoring; algebraic fractions and fractional equations; systems of linear equations; second-order determinants; exponents and radicals; quadratic equations; vectors and oblique triangles; radian measure; ratio, proportion and variation.4 | 4 |
Semester 4 | Course Code | Course | Credits |
| HUMA 024 | Humanities: An Introduction to Arts and ScienceHumanities: An Introduction to Arts and ScienceCourse Code: HUMA 024 Credits: 3 The Humanities course focuses on fundamental questions individuals ask of themselves as they proceed through life. Why are we the way we are? Do we have free will or are we prisoners of our past experience or our biological inheritance? What motivates societies to change? Why do societal changes so often divide people into opposing camps? Why do so many people find contemporary life at home, at work, and in the community unfulfilling? What constitutes good government? How should injustice be fought? Can nations successfully deal with global problems? What is science and how does it differ from other kinds of inquiry? Can scientists provide solutions to the problems we face? What is art and does it offer answers of its own? What is its relationship to beauty, to knowledge, and to ethics? Is objectivity about art (or anything) possible? These questions are organized into units that begin with issues concerning the nature of the individual and then extend outward to various social, cultural and physical contexts.
The issues explored in this course are too complex to have any one right answer. Rather, individuals must search for answers that make sense of their experiences via various theoretical perspectives. The Humanities course supports this endeavour through study of different thinkers presented in the readings and exploration of different points of view explored in class discussions.
ESL students should consider taking the ESL Humanities course. Students may transfer into
ESL Humanities (HESL 024) either at the Registrar?s Office or the School of Liberal Arts & Sciences
Office (K201) on a first-come, first-served basis before the Last Day to Add. | 3 |
| MECH 401 | Strength of MaterialsStrength of MaterialsCourse Code: MECH 401 Credits: 4 The study of strength of materials is concerned with the design of structural load bearing components. These load bearing components fail in two main ways; fracture and excessive deformation. The course develops the analytical techniques necessary to design a load-bearing component, which will not fail. The design methodology developed involves identifying the load conditions, optimizing the component's shape and size, and selection of a material of suitable strength. The main structural elements examined in this course are beams, columns and connections. | 4 |
| MECH 405 | Cost Estimating Cost EstimatingCourse Code: MECH 405 Credits: 4 The study of strength of materials is concerned with the design of structural load bearing components. These load bearing components fail in two main ways; fracture and excessive deformation. The course develops the analytical techniques necessary to design a load-bearing component, which will not fail. The design methodology developed involves identifying the load conditions, optimizing the component's shape and size, and selection of a material of suitable strength. The main structural elements examined in this course are beams, columns and connections. | 4 |
| MECH 413 | Industrial Controls 1Industrial Controls 1Course Code: MECH 413 Credits: 4 This course covers two major topics:
1) The use of compressed air as a power and control medium. The focus is to select industrially used pneumatic and electrical hardware and to design simple sequencing and control circuits.
2) Introduction to hydraulic principles, components and their use in hydraulic circuits. The course will prepare students to identify and install, specify and select basic components to build hydraulic circuits. | 4 |
| MECH 440 | Industrial Controls 1Industrial Controls 1Course Code: MECH 440 Credits: 4 This is the second mechanical design and drafting course where the students build upon their knowledge gained from the study of earlier courses. The main topics of study in this course will centre on machine systems: hydraulic system and gear reducer as well as on design of machined parts. | 4 |
| MECH 470 | Applied Industrial Processes 3Applied Industrial Processes 3Course Code: MECH 470 Credits: 4 MasterCAM graphic software is used for programming of advanced projects on a machining centre and turning centre. This course is a continuation of Applied Industrial Processes 2 MECH 370. A three-dimensional part will be programmed and cut on the HAAS machining centre.
Turned parts will be programmed and cut on the Mori Seiki SL3 turning centre. Projects will be drawn in AutoCAD or be provided in Solid Works format. The output G Code file will be checked for correctness before cutting. The student is expected to follow safe work procedures developed for the lab and all machines used in this course. | 4 |
| MECH 550 | Co-op Work TermCo-op Work TermCourse Code: MECH 550 Credits: Students are encouraged to gain valuable work experience, by completing a paid work term following semester four. Students are responsible for finding a suitable placement (minimum 400 hours). The school provides a range of services, including work preparation workshops, to help students develop effective job search skills. The school also works with business and industry to identify employment opportunities for students. |
Semester 5 | Course Code | Course | Credits |
| MECH 500 | Machine Design 1Machine Design 1Course Code: MECH 500 Credits: 4 The purpose of the course is to learn how to design machine system, as well as its key components (shafts, gears, pulleys, keys, housings). Students will also be exposed to selection process of standard off-shelf components (electrical motors, clutches, bearings, couplings, and retaining rings).
A power transmission device (of specific power output and speed output) composed of various power transmission systems (belt drives, chain drives and/or gear drive systems) will be designed. The design will include evaluation of the types of drives best suitable, investigate and evaluate the best split of the two stage reducer. Perform analysis of the load/force conditions on each of the components and the selection of suitable materials and dimensions of these components that will ensure safe and reliable operation.
From the calculations solid models will be created, followed by drawing and detailing package including gears, shafts, housing detail drawings, as well as the full assembly drawing. | 4 |
| MECH 502 | Industrial Process PlanningIndustrial Process PlanningCourse Code: MECH 502 Credits: 4 This course covers the fundamentals of process planning of CNC machining operations. Preliminary part print analysis, the importance of dimensioning style and tolerance and the theory and practice of work-piece control will be discussed and exercised in practical exercises. I addition, an introduction of the meaning and measurement of geometric tolerancing will be presented. Using routing and operations sheets, the student will produce process plans for machining mechanical parts. | 4 |
| MECH 503 | Industrial Controls 2Industrial Controls 2Course Code: MECH 503 Credits: 4 This course provides an introduction to hydraulic components and their use in hydraulic circuits. The course will prepare students to identify and install, specify and select, analyze, design and install industrial hydraulic systems.
This course also provides an introduction to programmable controllers and their applications in machine controls with a focus towards sequencing as the main function of the controller. Position sensing, pressure sensing, timing and counting methods are discussed. Sequencer Instructions are also used to write programs. | 4 |
| MECH 512 | Fabrication DesignFabrication DesignCourse Code: MECH 512 Credits: 4 This course will acquaint the student with modem sheet metal component manufacturing methods and equipment. Further, it will provide the student with the skills and knowledge necessary to quote parts, apply basic GD&T, and design simple dies using standard and specially constructed components. | 4 |
| MECH 540 | Engineering Numerical MethodsEngineering Numerical MethodsCourse Code: MECH 540 Credits: 4 This course is an introduction to applied calculus and engineering numerical methods with applications to mechanical engineering. Applied calculus topics include differential calculus, applications of the derivative, integral calculus and applications of the integral. Emphasis in applied calculus is placed on using differential calculus to determine the slope of a curve at a particular point and using integral calculus to determine the area under a curve between two points. Engineering numerical methods topics include curve fitting, solving systems of linear equations, Newton's methods, trapezoid rule and Simpson's Rule. Emphasis in engineering numerical methods is placed on creating spreadsheets using Microsoft® Excel to provide approximate solutions to application problems. | 4 |
Semester 6 | Course Code | Course | Credits |
| MECH 615 | Quality ControlQuality ControlCourse Code: MECH 615 Credits: 4 This course provides fundamental coverage of quality control concepts by taking a practical approach. Students are presented with a sufficient amount of theory to ensure a sound understanding of basic principles through the use of simple mathematics, tables and charts. Emphasis is placed on coordinate measuring machines (CMM) and statistical process control with applications to design and manufacturing. Topics include total quality management, measurement and inspection, fundamentals of statistics, control charts, acceptance sampling, reliability and quality planning. CMM specific exercises involve calibrating, operating and programming a Mitutoyo machine. | 4 |
| MECH 617 | Advanced Manufacturing PlanningAdvanced Manufacturing PlanningCourse Code: MECH 617 Credits: 4 This course is a continuation of the Manufacturing Process Planning course MANF402. This course looks at the manufacturing processes and tools commonly used to convert cast, forged, moulded and wrought materials into finished products. It includes the basic mechanisms of material removal, surface coatings/plating, measurement/quality control, assembly processes. Using routings and operation sheets students will create manufacturing process plans and assembly process plans that will combine conventional and unconventional material removal processes with surface engineering to create complex components and assemblies. In addition this course will teach basic of GD&T application. | 4 |
| MECH 618 | Engineering ManagementEngineering ManagementCourse Code: MECH 618 Credits: 3 This course is designed to help participants understand the role of mechanical engineering management in the industry and to study the processes, tools and techniques needed to successfully manage the activities affecting the productivity of both product manufacturing and services and engineering projects. The focus is on strategy, management, decision making, engineering economics, product design and development, cost analysis, and project management. The course includes a blend of topics in the domain of engineering management, from technology marketing, production management, value chain management, supply chain management, project management, to engineering economy, and engineering management accounting and financial reporting. | 3 |
| MECH 619 | Machine Design 2Machine Design 2Course Code: MECH 619 Credits: 4 The purpose of this course is to learn and apply product development process while working on engineering design of various mass production products.
Each topic will investigate the type of design method and how that application varies or stays the same from one industry/market to another. Using the case study format the basic concepts will be investigated and reviewed. The students will apply and evaluate these design methods through either individual or small group assignments. | 4 |
| MECH 630 | Stress Analysis (FEM)Stress Analysis (FEM)Course Code: MECH 630 Credits: 4 This course is an introduction to finite element modeling (FEM) and finite element analysis (FEA) for stress analysis. FEA is a computer-based numerical technique that is used to solve stress analysis, heat transfer, fluid flow and other types of mechanical engineering problems encountered in the design and manufacturing industry. Emphasis is placed on linear stress and deformation analyses. Problems are solved using commercial FEA software and results are compared to theoretical calculations where possible. Topics include meshing and modeling, loads and constraints, truss elements, beam elements, two-dimensional elements, plate elements, brick elements, mesh convergence and meshing computer aided design (CAD) solid modes. | 4 |
| MECH 690 | Engineering ProjectEngineering ProjectCourse Code: MECH 690 Credits: 2 The purpose of this course is to develop a project as a group that from concept to a final engineering document package. The students will utilize all aspect of what have been learned in the mechanical engineering technologist program. The design project will be selected and will be done as a group effort. Each student is expected to work together with in their group and co-ordinate their efforts and strength to develop the project/machine. | 2 |
Semesters one, two, three and four are the same as the Mechanical Engineering Technician program.
Humber offers pathways from Ontario college diplomas to Humber degrees. Find out where your diploma can take you.
You can also choose another postsecondary institution. Humber has formal articulation agreements indicating the specific transfer arrangements from a Humber program to a particular degree program, as well as general policies on admissions at specific institutions. Click here to find out more.
