Your studies will focus on the concepts of micro-based computer assisted drafting (CADD). Extensive hands-on training and lecture sessions will provide the knowledge you need to produce industrial standard CADD drawings, use 2-D drafting and draw from 3-D models. You will follow standard conventions while improving your skill and efficiency in using a CAD system.

Credit Units: 5

Other Hours: 68

Corequisites(s): COAP 172, DRFT 174

Equivalent Course(s): DRFT 105, DRFT 191

Learning Method(s): Prior Learning, Lecture/Lab

You will receive an introduction to computer applications (such as a word processor, spreadsheet and database application). You will also gain knowledge of electronic spreadsheets in detail.

Credit Units: 3

Other Hours: 51

Equivalent Course(s): COAP 110, COAP 122

Learning Method(s): Prior Learning, Lecture/Lab

You will learn the basic theory and skills needed to generate graphic representation of an idea, concept or entity. You will use engineering lettering and geometric construction, prepare engineering graphs with computer software, use sketching methods, use basic descriptive geometry and its applications, and develop orthographic drawings, dimensioning, pictorial drafting, auxiliary views and sectional views. You will also construct engineering technical drawings using the orthographic projection method with an introduction to piping drawings.

Credit Units: 6

Other Hours: 85

Corequisites(s): CAD 181

Equivalent Course(s): DRFT 106, DRFT 181

Learning Method(s): Lecture/Lab

You will learn how to use basic algebra and trigonometry to determine the forces in stationary machine and equipment members. The course content includes force systems, center of gravity, static friction and moment of inertia, and the application of these principles to engineering problems.

Credit Units: 5

Other Hours: 77

Prerequisites(s): MATH 182, MATH 193

Corequisites(s):

Equivalent Course(s): ENGM 190, MECA 120

Learning Method(s): Lecture/Lab, Web CT/Blackboard

You will gain expertise in assessing and utilizing fluid properties such as temperature, pressure, density and viscosity in evaluating the behaviour of flowing and non-flowing fluids. The forces exerted on bodies and surfaces due to non-flowing fluids (fluid statics) and the characteristics of fluids in motion along with any resulting energy changes (fluid dynamics) will be examined. You will develop competency in analyzing simple pipe networks, classification and selection of associated mechanical equipment (pumps, blowers, etc.), and the principles of fluid flow measurement.

Credit Units: 5

Other Hours: 77

Prerequisites(s):

Corequisites(s): ENGM 191

Equivalent Course(s): HYDR 285

Learning Method(s): Prior Learning, Lecture/Lab

You will review trigonometry, algebraic, logarithmic, exponential and trigonometric functions and their graphs, and trigonometric identities. You will also receive an introduction to differential calculus involving algebraic functions.

Credit Units: 6

Lecture Hours: 85

Equivalent Course(s): MAT 122, MAT 226

Learning Method(s): Prior Learning, Lecture/Theory

You will receive an orientation to your program and learn where and how the technician/technologist fits into the workplace and society. You will become familiar with the role of technicians/technologists in society, study and time management skills, increasing diversity in the workplace, principles of sustainability, the impact of technology on society and workplace safety requirements.

Credit Units: 1

Lecture Hours: 16

Equivalent Course(s): ENGM 181, ETHC 183, ORTN 120

Learning Method(s): Prior Learning, Lecture/Theory

Your studies will focus on the basic skills required of the technologist in the workplace. You will examine the communication process and interpersonal and workplace communication techniques. The course content includes technical writing and job search skills.

Credit Units: 3

Lecture Hours: 48

Equivalent Course(s): COMM 191, JOBS 190, JOBS 288, JOBS 290, TCOM 120, TMGT 180

Learning Method(s): Prior Learning, Learn Linc, Lecture/Theory, Web CT/Blackboard

You will receive a sound calculus background for solving a wide range of problems in the field of mechanical engineering. You will receive an introduction to integral calculus and learn how to apply it in a variety of situations. Differential and integral calculus will be expanded to include transcendental functions.

Credit Units: 5

Lecture Hours: 68

Prerequisites(s): MATH 182

Equivalent Course(s): CALC 190, MAT 221

Learning Method(s): Lecture/Theory

You will be provided an introduction to computers and computer programming, a description of structured programming and the program development cycle. You will learn how to design modular event-driven programs using a top-down structured approach. Your lab work will include using the Visual Basic.Net language to develop applications for solving engineering problems. Your introduction to VB.Net and VB.Net environment will be followed by a discussion of object-oriented programming using an object oriented event-driven high-level language, event procedures, forms and form controls. You will learn techniques for coding event procedures using algorithms and flow charts to implement sequence selection and repetition control structures. You will examine functions, subprocedures and arrays. Examples used in the lab will be taken from engineeering applications.

Credit Units: 4

Other Hours: 60

Prerequisites(s): COAP 172

Equivalent Course(s): COSC 193, COSC 284

Learning Method(s): Prior Learning, Lecture/Lab

The course builds on the skills you developed in DRFT 174 (Drafting Principles). You will acquire theory and facility in 2-D drawings of threaded fasteners, welding symbols and geometric dimensioning and tolerancing. You will complete detail drawings and assembly drawings that combine the majority of the basic concepts into one project. Some structural drawings will allow you to focus on more practical problems.

Credit Units: 5

Other Hours: 80

Prerequisites(s): CAD 181, DRFT 174

Equivalent Course(s): DRFT 182, DRFT 205

Learning Method(s): Prior Learning, Lecture/Lab

Your studies will focus on piping drawings. You will learn how to use the different modules of a 3-D piping software program. You will use the program to produce piping and instrumentation drawings, orthographic piping drawings and isometric piping drawings. You will begin a piping project that will be used in FMEC 288 (Fluid Mechanics) and INST 288 (Instrumentation and Controls).

Credit Units: 3

Other Hours: 52

Prerequisites(s): DRFT 175

Equivalent Course(s): DRFT 182

Learning Method(s): Prior Learning, Lecture/Lab

You will study basic electricity and electronics from a functional point of view. The examination of components will be avoided in favour of a black box approach. The course content includes current and voltage (AC and DC), resistance, capacitance, inductance, Ohm's Law, series and parallel circuits, electrical power and energy, and digital electronic circuits.

Credit Units: 5

Other Hours: 77

Equivalent Course(s): ELTR 120

Learning Method(s): Lecture/Lab

You will gain practical knowledge of the fundamental structure, properties (physical, mechanical, chemical) and supplied form of common engineering materials. This knowledge will assist in the evaluation and selection of materials suitable for given design and/or manufacturing processes. Major focus will be directed towards iron and iron alloys (steels), with additional examination of non-iron metals and alloys (aluminum, copper, etc), ceramics, polymers, and composite materials. Your studies will also include areas such as material corrosion and non-destructive examination.

Credit Units: 5

Other Hours: 77

Equivalent Course(s): ENG 191, ENGM 288

Learning Method(s): Lecture/Lab

You will gain an understanding of machine shop principles and practices. This course will serve as a foundation for further studies in manufacturing. In addition to lectures and demonstrations, you will receive extensive hands-on experience.

Credit Units: 2

Other Hours: 30

Corequisites(s):

Equivalent Course(s): MACH 120

Learning Method(s): Prior Learning, Lecture/Lab

Building on the skills you developed in TCOM 102 (Communication in Technology), you will apply basic research skills to create workplace documents. Your studies will focus on the workplace skills of creating effective client relations, conducting meetings and giving presentations.

Credit Units: 3

Lecture Hours: 48

Prerequisites(s): TCOM 102

Equivalent Course(s): COMM 181, COMM 190, TCOM 123, TCOM 190

Learning Method(s): Prior Learning, Lecture/Theory, Web CT/Blackboard

You will study the fundamental properties and energies associated with matter; primarily liquids, gases and vapours. The principles of mass and energy conservation will be used to define and examine the relationships between heat, work and other forms of energy. You will develop analytical competency in simplified thermodynamics processes and devices such as the piston-cylinder, heat engines, nozzles, turbines, compressors, etc. You will apply the concept of efficiency and its consequences explored. The impact of thermodynamic processes (energy transfer) on physical systems will also be assessed through an examination of resulting changes in pressure, temperature, volume, force and/or stress.

Credit Units: 5

Other Hours: 77

Prerequisites(s): FMEC 288, MATH 182

Corequisites(s):

Learning Method(s): Lecture/Lab

You will observe and perform welding, thermal cutting and metal forming operations. You will develop an understanding of processes rather than skill. Supervised hands-on training will help you develop an understanding of Shielded Metal Arc Welding, Gas Metal Arc Welding, Flux Cored Arc Welding, Gas Tungsten Arc Welding, Oxy-Fuel Welding and Submerged Arc Welding. Your metal cutting activities will include Oxy-fuel Cutting and Plasma Arc Cutting. You will perform metal forming activities on a plate roll, press brake and structural roll.

Credit Units: 2

Other Hours: 30

Prerequisites(s):

Corequisites(s):

Equivalent Course(s): WELD 102

Learning Method(s): Prior Learning, Lecture/Lab

You will learn how to use computer software to solve mathematical/engineering problems. You will develop techniques for creating programs to solve these problems, discuss the limitations of these techniques and be introduced to commercially available software. The course content includes numerical methods, statistics, piping system analysis and design, and the design of cams. A commercially available software program is used for the piping analysis portion of the course. You will also learn about advanced features of Excel as a tool for solving engineering problems.

Credit Units: 5

Other Hours: 77

Prerequisites(s): CAD 181

Corequisites(s):

Learning Method(s): Lecture/Lab

Building on the skills you developed in ELTR 182 (Electricity and Electronics 1), you will receive a general overview of electrical applications. The course content includes the power supply, transformers, AC and DC motors, electromagnetic and electronic control device symbols, basic PLC programming symbols and variable speed drives. You will be introduced to some basic automation ideas with respect to industrial plant control.

Credit Units: 5

Other Hours: 77

Prerequisites(s): ELTR 182

Learning Method(s): Lecture/Lab

Building on the skills you developed in ENGM 191 (Applied Mechanics: Statics), your studies will focus on kinematics and kinetics. In kinematics, you will analyze the geometry of rectilinear, circular and general plane motions. In kinetics, you will analyze the forces and movements associated with motion using the dynamic equilibrium method, the work, energy power method and the impulse-momentum method. You will learn how to solve engineering problems involving motion only and the forces causing that motion. You will also study linkage mechanisms and their motion.

Credit Units: 5

Other Hours: 77

Prerequisites(s): ENGM 191

Learning Method(s): Prior Learning, Lecture/Lab

You will study the relationship between the external applied loads and the induced internal stresses in various structural members. You will also learn design and analysis techniques of axial and torsional loaded members, beams, columns and pressure vessels.

Credit Units: 5

Other Hours: 77

Prerequisites(s): DRFT 174, ENGM 180, ENGM 191

Equivalent Course(s): ENG 192

Learning Method(s): Prior Learning, Lecture/Lab

The course provides an introduction to hydraulic components, circuits and standard symbols. Design problems will involve sizing and selecting hydraulic components for typical applications. Your major assignment will involve designing a hydraulic system. Your lab work will provide you with hands-on exposure to hydraulic pumps, motors, cylinders and various types of control valves.

Credit Units: 4

Other Hours: 60

Prerequisites(s): FMEC 288

Corequisites(s):

Learning Method(s): Prior Learning, Lecture/Lab

You will gain an understanding of the merits and limitations of the manufacturing and fabrication industry. You will study the use of engineering principles to solve manufacturing and fabrication problems. Your studies will concentrate on the metal industry but you will tour several manufacturing operations to gain a broad view of the different types of manufacturing. You will also gain an understanding of quality assurance principles and the ISO 9000 series of standards. You will learn how to use statistics to analyze quality problems.

Credit Units: 6

Other Hours: 85

Prerequisites(s): CAD 181, DRFT 174, ENGM 180, ENGM 191, MACH 191, WELD 387

Corequisites(s): ENGM 289

Learning Method(s): Prior Learning, Lecture/Lab

You will apply thermodynamic theories of cycles/systems. Your studies will include examining power producing cycles (engines), refrigeration systems and industrial compressors. You will develop analytical techniques for unsteady and compressible/sonic flow systems. You will apply the principle modes of heat transfer (conduction, convection and radiation) and you will determine thermal resistances and heat transfer co-efficients.

Credit Units: 5

Other Hours: 77

Prerequisites(s): CALC 181, MATH 182, THER 180

Corequisites(s):

Learning Method(s): Prior Learning, Lecture/Lab

You will learn what is required to maintain human comfort in residential and commercial buildings. Using a step-by-step approach, you will design a complete year-round air conditioning system for an institutional building while considering available energy conservation techniques.

Credit Units: 7

Other Hours: 100

Prerequisites(s): THER 284

Corequisites(s):

Learning Method(s): Lecture/Lab

Building on the skills you developed in CAD 281 (Computer Aided Engineering 1), you will learn how to use computers in the engineering process. Design work in the field of mechanical engineering will be emphasized and will complement concurrent Year 2 - Semester 4 technical courses.

Credit Units: 4

Other Hours: 60

Prerequisites(s): CAD 281, ENGM 289

Corequisites(s): AIR 288, ENGM 280, ENGM 281, INST 288

Learning Method(s): Lecture/Lab

You will examine the techniques used in the design, analysis and selection of various machine components. Components you will study include shafts, belt and chain drive components, wire rope, fasteners, bearings, springs, couplings, gears, clutches and brakes.

Credit Units: 6

Other Hours: 90

Prerequisites(s): ENGM 289

Learning Method(s): Prior Learning, Lecture/Lab

You will design a machine that is made up of several components you learned to design and select in ENGM 280 (Mechanical Design), along with other more specialized components. You will use specialized software programs as an aid in the design project.

Credit Units: 2

Other Hours: 30

Prerequisites(s):

Corequisites(s): ENGM 280

Learning Method(s): Lecture/Lab

The course provides an introductory study of all aspects of industrial process control (including process signals, measurement devices, final control elements, controllers and control schemes). You will examine analog and discrete state processes. Laboratory exercises will supplement your study of pneumatic, electronic, digital and microprocessor-based measurement devices, transmitters, final control elements, PID controllers and programmable logic controllers (PLC's).

Credit Units: 7

Other Hours: 100

Prerequisites(s): COSC 181, ELTR 289, FMEC 288

Corequisites(s):

Learning Method(s): Lecture/Lab

You will be provided an overview of the role of a technologist in an engineering team. As well, you will study documents associated engineering contracts.

Credit Units: 1

Other Hours: 10

Learning Method(s): Prior Learning, Lecture/Lab

You will be introduced to project management. You will examine the basic theory of project planning and control, from project initiation to project close out. You will apply research techniques and various tools to practice project management theory in a variety of projects. You will practice skills using project management software.

Credit Units: 2

Other Hours: 30

Learning Method(s): Prior Learning, Lecture/Lab, Web CT/Blackboard

The course provides instruction in the application of basic knowledge in the design of "real life" engineering problems from local industries. Based on your knowledge of several previous and concurrent courses, you will learn how to select and define a technical project, find design solutions for the problem and then prepare and present your technical solutions to the industrial client.

Credit Units: 4

Other Hours: 57

Prerequisites(s): CAD 281, ELTR 289, ENGM 193, ENGM 289, HYDR 283, MANU 288, THER 181, THER 284

Corequisites(s): AIR 288, CAD 282, ENGM 280, ENGM 281, INST 288, PROJ 287, TCOM 104

Learning Method(s): Lecture/Lab

You will develop a technical proposal and apply advanced research skills to a technical problem. You will use the technical problem-solving process in an applied research project and present your research findings in a written report and oral presentation.

Credit Units: 2

Lecture Hours: 34

Prerequisites(s): TCOM 103

Equivalent Course(s): COMM 115, COMM 182, COMM 290

Learning Method(s): Prior Learning, Lecture/Theory

You will study energy system engineering and explore how energy is employed to achieve beneficial functions in industry, transportation and in the home. You will evaluate thermal/fluid systems by studying principles of thermodynamics, fluid dynamics and heat transfer. Your studies will focus on design principles, industrial standards and governing agencies as they pertain to conventional and non conventional energy conversion, conservation and storage.

Credit Units: 5

Other Hours: 80

Prerequisites(s): CALC 181, THER 181

Equivalent Course(s): THER 280

Learning Method(s): Lecture/Lab