Bachelor of Engineering - Mechanical Systems Engineering (Optional Co-op)

at Conestoga College - Cambridge Campus Canada

This dynamic three-year program gives the student broad and thorough training in all phases of the building industry. The training is directly related to industry standards and working conditions, with challenging projects encompassing building design, building performance, working drawings, building systems, estimating, building-code analysis, specifications, and building information modelling (BIM). Founded on project-based learning principles, the program uses discussion groups, seminars, field trips and practical assignments. Sustainable design and construction practices form the core of this program and cover such topics as structure, building envelope, whole building and universal design, building science, indoor environment systems, building economics, sustainability, renewable energy and energy efficiency. Faculty are highly qualified specialists with current and relevant field experience. The local industry actively supports this program and is used as a teaching resource. The optional co-op stream includes two co-op work terms.The Ontario Association of Certified Engineering Technicians and Technologists (OACETT) conditionally recognizes this program as meeting all the academic requirements for certification in the Certified Engineering Technologist (CET) category.

With the focus towards a lower-carbon future, energy professionals are in high demand. This three-year program is specifically designed to meet the high demand for engineering technologists in electrical power generation, transmission, and distribution, as well as in low-carbon energy systems, smart building systems, and energy management.Topics include conventional and renewable energy generation, including distributed energy resources for Ontario’s low-carbon energy future. Students will develop a strong electrical engineering technology foundation in electrical fundamentals, motors and control, programmable logic controllers, power system generation, transmission/distribution, protection and control, and grid transformation/smart grids. In addition, topics such as residential/commercial/industrial energy savings, building automation, analytics, energy storage, HVAC systems, and energy auditing are applied for careers in the growing specialty of conservation in private and public sector jobs. Mechanical topics include statics, dynamics, thermodynamics, and fluid mechanics as they apply directly to various energy systems.Throughout the program, students gain applied experience in AutoCAD and Revit, safety practices, safety standards and equipment, technical writing, and project management. Theory is applied practically in many laboratory settings.Strong industry support is evidenced by the program's high employment rate and successful optional co-op stream. Students benefit from the well-established, high-quality labs, relevant field trips, and active industry mentorship. Faculty have current, specialized credentials and are well-connected with industry to assist with graduate employment. Students enjoy analyzing Conestoga’s on-site 250 [ton] geothermal heat pump system and associated 500 [kW] PV solar system as they witness the journey to net-zero emissions on campus.Graduates have developed an applied theory in both mechanical and electrical systems and, as a result, are uniquely prepared to perform technological functions in various aspects of electrical, power, and energy fields for the exciting growth in Ontario’s low-carbon and smart-energy future.The Ontario Association of Certified Engineering Technicians and Technologists (OACETT) conditionally recognizes this program as meeting all the academic requirements for certification in the Certified Engineering Technologist (CET) category.The optional co-op stream includes four consecutive four-month work terms.

Embedded Systems Development (ESD) is a four-semester graduate certificate program including a one-semester exploration of career management or an optional co-op in the embedded systems industry. The program is aimed at providing the student with a solid understanding of the embedded systems industry, gaining hands-on skills in the development (design and implementation) of both hardware and software for embedded systems.The program integrates a hands-on, practical approach to augment theoretical knowledge a student may already have coming into the program. Applied projects and lab work help prepare graduates for a career in embedded systems development. The optional co-op stream includes one co-op work term instead of the Guided Career Management course. 

The Packaging Engineering Technician program provides training in the structural design of packaging materials. Students will learn to design packaging utilizing different materials: metal, glass, plastic, paper, and corrugated. Critical in the design of any packaging are product protection (safety and security), durability, the ability to recycle materials, and sustainability opportunities and issues. The delivery of the program includes approximately 10% online courses. The optional co-op stream includes one co-op work term.

Applying to the Co-op Stream
All applicants apply to the non co-op program. Students will be informed of the application deadline and process to apply for the Co-op Stream. Labour market conditions determine the number of co-op seats in optional co-op programs. Every student who meets academic eligibility requirements may not be admitted to the co-op stream.
To be considered for admission to the co-op stream, students are required to achieve a minimum 70% session weighted average and no failed or dropped courses in Level 1.

Co-op Information
Co-op programs add value to your education. Earn while you apply what you learn in a real workplace environment. See the Co-op webpages.
The College cannot guarantee co-op employment. All co-op students are required to conduct an independent co-op job search in addition to the supports and services provided by the Department of Co-op Education.
Students are responsible for their own transportation and associated costs in order to complete work term requirements. Work locations may not always be readily accessible by public transportation.

This unique 2-year program prepares you to enter the workplace with exceptional welding skills that employers are seeking. There is an identified gap in the workforce for qualified graduates needed to operate and troubleshoot robotic welding systems while having maintenance, welding and robotic programming knowledge. This program is aimed at motivated individuals looking for a challenging and rewarding career in manufacturing automation. You will earn a Welding Engineering Technician - Robotics diploma and will acquire comprehensive welding skills through hands-on practical labs, using the latest equipment. You will create and read blueprints and gain an understanding of metals and their characteristics, complemented by solid welding automation knowledge and welding robot programming. Safe work practices and practical experience in weld inspection methods are also covered. The optional co-op stream includes one co-op work term. 

Program Outcomes

• Perform safe work practices in the welding trade in accordance with the Occupational Health and Safety Act (OHSA) and Regulations for Industrial Establishments.
• Interpret and prepare drawings and other technical documents that meet appropriate engineering standards in the manufacturing industry.
• Perform trade related mathematical calculations including volume, area, estimation, geometry, ratio, measurement, weights, loads, and centring of various lifts to complete projects safely and accurately.
• Perform practical welding operations using appropriate tools, materials and processes that are specific to automated welding production and meet industry and quality standards and appropriate codes.
• Complete projects using appropriate materials, arc welding processes, and consumables that meet industry standards and codes.
• Recommend quality improvements to correct common weld defects and faults found using destructive and non-destructive examination and testing methods.
• Troubleshoot technical problems related to welding automation processes in order to recommend solutions for repairing and maintaining equipment to industry standards.
• Use various computer software and programming applications to accurately communicate welding specifications to the automated welding and manufacturing personnel.
• Select, program and develop specifications for robotic and automated welding and joining systems that meet quality standards and applicable codes.

Applying to the Co-op Stream
All applicants apply to the non co-op program. Students will be informed of the application deadline and process to apply for the Co-op
Stream. Labour market conditions determine the number of co-op seats in optional co-op programs. Every student who meets academic eligibility requirements may not be admitted to the co-op stream.
To be considered for admission to the co-op stream, students are required to achieve a minimum 65% in Level 1 and a maximum of one dropped or failed course.
Co-op Information

• Co-op programs add value to your education. Earn while you apply what you learn in a real workplace environment. See the Co-op webpages.
• The College cannot guarantee co-op employment. All co-op students are required to conduct an independent co-op job search in addition to the supports and services provided by the Department of Co-op Education.
• Students are responsible for their own transportation and associated costs in order to complete work term requirements. Work locations may not always be readily accessible by public transportation.

Wireless Network Infrastructure

This program prepares graduates with degrees or diplomas in telecommunications, electronics, or computer engineering/technology for work in emerging fields in the wireless telecommunications industry. Students will enhance their undergraduate knowledge with practical skills that include the use of industry standard tools (drivetest tools, propagation tools, spectrum analyzers, network analyzers, etc.), and the techniques required for success in the wireless industry. Students will broaden their familiarity with troubleshooting and the configuration of local area and wide area networks (LANs and WANs) and networking topics relevant to telecom carriers including virtual private networks, quality of service, and others. Cutting-edge topics which include long term evolution (LTE) and 5th generation wireless networks, high bandwidth wireless (WiGig+) and concurrent MIMO systems, will ensure that graduates will be in high demand. 

Information Technology Network Security

Information technology and network infrastructure are targets for malicious activity on a regular basis. News reports about data breaches, security violations, privacy failures and other infrastructure failures highlight a growing threat to business and personal information. This one-year, full-time, graduate certificate program is designed to address this growing threat to our network infrastructure. It will provide students with the security background in network technologies, computing hardware, operating and protocols, to harden and further secure such systems from attack. Students will learn to identify threats through audits and supporting technical methods, as well as evaluate and develop appropriate policies to support a strong organizational security posture. This program offers skills that allow graduates to evaluate risk and design infrastructure solutions that keep a business’s code, data and network systems safe.

The Food Safety and Quality Assurance - Food Processing program is a two-semester, full-time graduate certificate program designed for students having a previous degree or advanced diploma in science, food or engineering, and who want to be prepared for a career in the food processing industry in the area of food safety and quality assurance. The program offers a suite of courses designed to enhance skills and knowledge gained in previous education stages for direct applicability in the food processing environment with respect to food safety and quality assurance. The Food Safety and Quality Assurance program is unique in Ontario because students apply their learning in Conestoga's pilot plant facility, enabling learners to incorporate theoretical knowledge in quality assurance and food safety to the practical environment of food manufacturing. Upon completion, graduates will have practical experience in food safety applications in the industrial processing environment, a strong understanding of Canadian and international food safety regulations, HACCP principles, and knowledge of the inter-dependence between cleaning and sanitation principles, food safety concepts and quality assurance and quality control elements typical of the food processing sector.

Program Outcomes

• Apply scientific concepts of chemistry and microbiology to the development, monitoring and maintenance of food safety and quality assurance systems specific to the food processing industry.
• Evaluate the effectiveness of practical applications of food safety and quality assurance system elements in a real food manufacturing environment, across the logistics chain from the farm to the consumer.
• Analyze law and regulations applicable to food processing from the perspective of food safety and quality assurance and their effects on operational activities in a food manufacturing facility.
• Create and modify food safety and quality assurance system components such as policies, procedures, and instructions, based on scientific principles and in line with pertinent regulations and laws, using clear communication and appropriate terminology.
• Recommend means to mitigate and control risks through cleaning and sanitation, traceability, HACCP, Good Manufacturing and Good Agricultural Practices, and other quality assurance and food safety elements based upon food safety risk assessments of food manufacturing activities.
• Recommend changes to processes and procedures by employing food safety and quality system audit tools (i.e. GFSI, ISO) that inform compliance of food processing operations to laws and regulations.
• Collect, prepare and test food and environmental samples using appropriate laboratory techniques.
• Analyze, interpret and report on the results of sampling programs and studies relative to food safety and quality assurance processes to draw conclusions and make recommendations that align with regulations and established industry practices.

Increased concern regarding the protection and management of the environment has resulted in the environmental field becoming one of the future-facing industries in Canada and abroad. This graduate certificate program meets the demand for trained technologists and environmental scientists in the areas of brownfield redevelopment, environmental monitoring, regulatory compliance and enforcement. It was developed in consultation with representatives from the environmental industry. The program is reviewed and updated by a Program Advisory Committee comprised of practitioners from the consulting, manufacturing, and public sectors.For qualified college or university graduates, this program enhances existing skills and competencies. The training provided prepares graduates to act as key players in responding to today's environmental challenges. Studies focus on the application of current engineering and scientific principles to protect and manage the environment in the following areas:- environmental monitoring and investigations- environmental auditing and assessment- management and clean up of contaminated sites- environmental enforcement and regulations- solid and hazardous waste management- 40-hour HAZWOPER training- water quality- air quality monitoring and permittingGraduates will be prepared to write Ministry of Environment Operator in Training (OIT) and Water Quality Analyst (WQA) licensing exams. Classroom instruction will be complemented by environmental monitoring training in the field, visits to solid-waste and industrial facilities, health and safety training, and visits to sites undergoing environmental investigations or clean up. The 40-hour HAZWOPER training course is offered as part of the program curriculum. During the completion of a term project, students are provided with mentoring advice from practicing environmental engineers, technologists, and scientists. The optional co-op stream includes one co-op work term.

This program is built on the newly identified Communication Infrastructure Engineering (CIE) discipline, which is defined by the Professional Engineers of Ontario (PEO) Council at a high level as the systems-level architecture, design, and management of trusted networks for mission-critical and safety-critical applications, including those that support other critical infrastructures. If you are interested in combining elements of the more traditional disciplines of Communications Engineering, Computer Engineering, and Software Engineering to achieve Cyber-Security from an Engineering rather than an Information Technology perspective, this program is the right choice. This Bachelor of Engineering - Cyber Systems Engineering program focuses on real-time systems, communications, networks, and risk management.

Civil engineering involves all aspects of designing, constructing, and maintaining our cities to serve the needs of growing communities. As a technologist in this field, you will aid in the design and construction of subdivisions, highways, stormwater management, drinking water systems, waste-water systems, landfills, and structures. The Civil Engineering Technology program at Conestoga College is a three-year advanced diploma program (with optional co-op) where students gain a balanced education in civil engineering, combined with hands-on skills in labs and in the field. Students will:design clean water distribution, waste-water purification, and stormwater management systems;conduct designs of wood, steel, masonry, and concrete structures;test soils, road, and construction materials in the lab and in the field;learn how to use modern survey technology (including GPS) and apply these techniques to land development projects;create engineering drawings using AutoCAD and Civil 3D for civil projects;study the design of roads, highways, and transportation construction management; anddemonstrate their knowledge of civil engineering through a final capstone project working directly with industry experts. In this program, you will be under the guidance of faculty who are passionate about their field, have strong ties to industry, and are vested in helping you to achieve your career goals. Graduates can become Certified Engineering Technologists (CET) through the Ontario Association of Certified Engineering Technicians and Technologists (OACETT).