Your studies will focus on the principles of electronic circuits. You will study DC and AC circuits, and solid state devices. Circuit analysis techniques will be emphasized throughout the course.

Credit Units: 4

Lecture Hours: 64

Corequisites(s): ELTR 118, MAT 100

Learning Method(s): Lecture/Theory

Using laboratory experiments and practice, you will illustrate and verify the electrical theory learned in ELTR 117 (Electronics Theory).

Credit Units: 4

Lab Hours: 64

Corequisites(s): ELTR 117

Learning Method(s): Lab/Practical

You will study the principles and measurement of pressure, level, temperature and flow. The theory presented will be reinforced by practical applications in INST 103 (Instrument Measurement Lab).

Credit Units: 4

Lecture Hours: 64

Corequisites(s): INST 103, MACH 106, MAT 100, PHYS 120

Learning Method(s): Lecture/Theory

You will apply the principles studied in INST 102 (Instrument Measurement Theory) to the operation, selection, sizing and specification of primary sensors and secondary instruments.

Credit Units: 4

Lab Hours: 64

Corequisites(s): INST 102, MACH 106, MAT 100, PHYS 120

Learning Method(s): Lab/Practical

You will learn how to use basic hand and power tools. Your studies will include layout, threading, precision measurement and operating oxy-acetylene equipment.

Credit Units: 2

Other Hours: 32

Learning Method(s): Lecture/Lab

You will learn basic algebra and trigonometry from the technical perspective. Your studies will focus on instrumentation standards and specifications, and algebraic and transcendental mathematics that are the foundation of a variety of instrumentation applications.

Credit Units: 5

Lecture Hours: 80

Learning Method(s): Lecture/Theory

You will study the principles of fluid mechanics, thermometry and calorimetry, thermal properties of matter and vector addition.

Credit Units: 3

Lecture Hours: 48

Prerequisites(s):

Learning Method(s): 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

Your studies will focus on the structure of the atom, mole relationship, nomenclature, stoichiometry and gases. Laboratory exercises will provide you an opportunity to practice theoretical concepts.

Credit Units: 3

Other Hours: 48

Learning Method(s): Print Distance Individual, Lecture/Lab

You will be introduced to microcomputer concepts and components. Your studies will cover Windows workstation operating system software, network operating system software, system and data file management and maintenance, and various applications software. The applications software includes word processing, workbook processing (spreadsheet), database, presentation and Internet navigation. You will integrate the various applications software to demonstrate the ideas of document-centric and object-based solutions.

Credit Units: 3

Other Hours: 44

Learning Method(s): Lecture/Lab

You will study the principles of digital logic and digital logic components (such as logic gates and flip-flops). Using number systems, truth tables and Karnaugh maps, you will design and analyze basic logic circuits.

Credit Units: 4

Other Hours: 60

Prerequisites(s): ELTR 117, ELTR 118

Corequisites(s): DGTL 226

Learning Method(s): Lecture/Lab

You will illustrate and verify the principles of digital logic that are covered in the theory component of DGTL 225 (Digital Logic).

Credit Units: 4

Other Hours: 60

Prerequisites(s): ELTR 117, ELTR 118

Corequisites(s): DGTL 225

Learning Method(s): Lecture/Lab

You will study codes and standards related to industrial process measurement and control. You will also study design and construction practices.

Credit Units: 2

Lecture Hours: 32

Prerequisites(s): ELTR 117, ELTR 118, INST 102, INST 103

Learning Method(s): Lecture/Theory

You will study control valves and pressure relief devices. Evaluating, selecting, sizing, specifying and testing final control elements will be emphasized. Laboratory experiments will provide opportunities for you to verify theory concepts and practice maintaining, calibrating and installing control valves.

Credit Units: 4

Other Hours: 60

Prerequisites(s): INST 102, INST 103, MACH 106, PHYS 120

Learning Method(s): Lecture/Lab

You will study analytical geometry, derivatives of algebraic and transcendental functions, integrals of algebraic functions and areas under curves. The application of the principles and techniques of differential and integral calculus to relevant problems in the instrumentation engineering field will be emphasized.

Credit Units: 5

Lecture Hours: 80

Prerequisites(s): MAT 100

Learning Method(s): Lecture/Theory

Your studies will focus on the principles of linear and curvilinear motion, accelerated motion, work, energy and power, translational and rotational equilibrium, torques, friction, electric forces, electric fields, electric potential and magnetism.

Credit Units: 3

Lecture Hours: 48

Prerequisites(s): PHYS 120

Learning Method(s): Lecture/Theory

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

Your co-operative education term will provide you with the opportunity to consolidate theoretical and practical concepts learned in the classroom and gain valuable experience in a work setting.

Credit Units: 0

Other Hours: 0

Learning Method(s): Coop Education Work Term

You will use computer aided drafting software to draw various instrument diagrams (such as loop, and installation). You will apply the industrial process symbols you studied in ENG 120 Codes and Standards.

Credit Units: 4

Other Hours: 64

Prerequisites(s): ENG 120, INST 221

Learning Method(s): Lecture/Lab

You will study solution chemistry, equilibrium and acid-base chemistry. Through laboratory experiments you will apply basic principles to solve industry-related situations.

Credit Units: 4

Other Hours: 64

Prerequisites(s): CHEM 221

Learning Method(s): Lecture/Lab

The course focuses on problem solving using the computer. You will study computer program logic and problem solving through program design and documentation using flowcharts. You will implement problem solutions using the logical structures, data types and objects in Visual Basic.NET. Programming techniques and practices you may encounter in instrumentation technology will be emphasized.

Credit Units: 3

Other Hours: 48

Prerequisites(s): COAP 122

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

You will study the operation and applications of electro-mechanical relays. Your studies will focus on the concepts of normally open, normally closed, instantaneous and time-delay relay contacts and coils. As an introduction to programmable logic controllers (PLCs), you will design logic control circuits using electro-mechanical relays and mini PLCs.

Credit Units: 4

Other Hours: 64

Prerequisites(s): DGTL 225, DGTL 226, ENG 120, INST 221

Learning Method(s): Lecture/Lab

You will study the principles and applications of process control algorithms, cascade control, ratio control and feed-forward control. The course content includes the analysis of open loop responses to PID controllers, the analysis of effects of non-linear control elements and the selection and application of controller tuning techniques.

Credit Units: 5

Other Hours: 80

Prerequisites(s): ENG 120, INST 221

Learning Method(s): Lecture/Lab

You will study the conventional electronic and smart instruments used to measure process variables, as well as the software and communicators designed for configuration and diagnostics. You will practice operating, evaluating, sizing, installing, and wiring. Your studies will include developing electrical loop wiring diagrams and practical lab exercises.

Credit Units: 5

Other Hours: 80

Prerequisites(s): ENG 120, INST 221, MAT 221, PHYS 221, TCOM 103

Learning Method(s): Lecture/Lab

You will review the rules of the differentiation and integration of algebraic functions and then apply them to linear motion, areas, volumes, moments, work, fluid pressure, average value, arc length and surface area. You will study the integration of transcendental functions, techniques of integration and their applications in areas of interest to instrumentation engineering.

Credit Units: 3

Lecture Hours: 48

Prerequisites(s): MAT 221

Learning Method(s): Independent Study, Lecture/Theory

You will examine uniform circular motion, rotation of rigid bodies, simple machines, simple harmonic motion, wave motion, elasticity, reflection and refraction of light.

Credit Units: 2

Lecture Hours: 32

Prerequisites(s): MAT 221, PHYS 221

Corequisites(s): MAT 229

Learning Method(s): Print Distance Individual, Lecture/Theory

Your second co-operative education term will build on the experience gained during your first work placement and provide you with additional opportunities to develop skills and techniques related to your field of studies in a real work setting.

Credit Units: 0

Other Hours: 0

Learning Method(s): Coop Education Work Term

You will study buffers, electrochemistry, nuclear chemistry and organic chemistry. Through laboratory experiments you will develop an understanding of chemistry principles and apply them to problem solving situations.

Credit Units: 4

Other Hours: 60

Prerequisites(s): CHEM 222

Learning Method(s): Lecture/Lab

You will study the analysis, design and trouble-shooting of automation equipment. You will gain insight into microprocessor applications in industrial measurement and control.

Credit Units: 5

Other Hours: 72

Prerequisites(s): DGTL 225, DGTL 226, ENGE 224, INST 220

Corequisites(s): INST 240

Learning Method(s): Lecture/Lab

You will examine the operational theories of various microprocessor-based instruments and their applications in industry. Your studies will include practical lab exercises where you will configure and calibrate highway addressable remote transducer (HART) and Foundation Fieldbus smart instruments used for the measurement of flow, level, temperature and pressure.

Credit Units: 4

Other Hours: 60

Prerequisites(s): CADD 222, COAP 136, INST 220, INST 224

Learning Method(s): Lecture/Lab

You will study the implementation and purpose of analytical measurement systems. Given specifications, you will operate and calibrate pH, oxidation-reduction potential, conductivity, humidity, mass spectrometers and density analysers.

Credit Units: 3

Other Hours: 52

Prerequisites(s): CHEM 222, INST 224, PHYS 221

Corequisites(s): CHEM 223

Learning Method(s): Lecture/Lab

Configuration software and process simulation will be used to help you learn how to design, analyze and evaluate various control strategies. The course content includes various process control applications (such as boiler, distillation column, compressor and heat exchanger controls).

Credit Units: 3

Other Hours: 48

Prerequisites(s): ENGE 224, INST 220, INST 224

Learning Method(s): 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.

Credit Units: 2

Lecture Hours: 24

Learning Method(s): Lecture/Theory

Your studies will focus on the basic statistical concepts and techniques used in engineering technology. The course content includes the collection, presentation, analysis and interpretation of data, frequency distributions, measures of central tendency and dispersion, probability, probability distributions, normal distribution, samples and sampling distributions, prediction, simple linear regression and correlation, and tolerance and control charts.

Credit Units: 2

Lecture Hours: 36

Prerequisites(s): MAT 100

Learning Method(s): Lecture/Theory

Your third co-operative education work term will round out the work term experience by adding related work knowledge through the application of theories and practices relevant to your field of studies.

Credit Units: 0

Other Hours: 0

Learning Method(s): Coop Education Work Term

You will analyze the interrelationships and interdependencies of plant or process operations and their associated instrumentation components and systems. An integral part of your studies will include tours to industries such as power plants, potash operations, pipeline systems, pulp and paper industry, refineries and chemical plants.

Credit Units: 2

Lecture Hours: 32

Prerequisites(s): INST 228, INST 230, INST 240

Corequisites(s): CNTR 227, INST 234, INST 236, TCOM 104

Learning Method(s): Lecture/Theory

You will study the design and implementation of logic control systems using microprocessor-based programmable logic controllers (PLCs). The course content includes using graphical programming languages. You will configure, select and study the installation of PLCs. Practical lab applications will include programming timers, counters, math instructions and other advanced techniques.

Credit Units: 4

Other Hours: 64

Prerequisites(s): ENGE 224, INST 220, INST 228, INST 240

Learning Method(s): Lecture/Lab

Your studies will focus on feedback control systems, basic tools and yardsticks that a technologist uses to design and analyze control systems. You will learn how to mathematically model a process, select best applications of field devices and control hardware to fit the applications.

Credit Units: 2

Lecture Hours: 32

Prerequisites(s): INST 240, PHYS 225

Corequisites(s): MAT 247

Learning Method(s): Lecture/Theory

You will design, analyze, install and evaluate digital data communication systems. The course content includes digital communication concepts, industrial networks, local area networks and wide area networks. The laboratory components will provide practical experience.

Credit Units: 4

Other Hours: 64

Prerequisites(s): CIRC 222, COAP 122, ENGE 224, INST 228

Corequisites(s): CNTR 227, INST 236

Learning Method(s): Lecture/Lab

Building on the knowledge gained in INST 230 (Analytical Instruments 1), you will study other analytical devices (such as sampling systems, gas chromatographs, dissolved oxygen, humidity, turbidity, IR and UV spectroscopic analyzers, combustibles and toxic gas measurements).

Credit Units: 4

Other Hours: 64

Prerequisites(s): CHEM 223, INST 230, PHYS 225

Corequisites(s): CNTR 225

Learning Method(s): Lecture/Lab

You will configure a distributed control system (including graphics displays to provide for the manual or automatic sequence operation of a process incorporating HART field devices). The course content includes PID (proportional, integral, derivative), cascade, feedforward, output tracking, discrete and sequence function tables.

Credit Units: 6

Other Hours: 96

Prerequisites(s): CIRC 222, COAP 136, INST 228, INST 240

Corequisites(s): COMP 238

Learning Method(s): Lecture/Lab

You will investigate first-order and second-order differential equations as models for mechanical, electrical, thermal and fluid physical systems. You will learn how to formulate those models and solve them using LaPlace transformation theory.

Credit Units: 3

Lecture Hours: 48

Prerequisites(s): MAT 229

Equivalent Course(s): MAT 237

Learning Method(s): Lecture/Theory

You will use project management software to develop an entire project. Working in small groups you will research, plan, design, cost and construct a prototype. Your final step of the project will be to prepare a manual.

Credit Units: 3

Lab Hours: 48

Prerequisites(s): INST 228, INST 230, INST 240, PROJ 227

Corequisites(s): CNTR 227, INST 234, INST 236, TCOM 104

Learning Method(s): Lab/Practical

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