Graduate Certificate in Applied A.I. Solutions Development (Co-op)

at George Brown College - Casa Loma Campus Canada

Employment opportunities in the Welding trade span several industries including transportation, petro chemical, oil and gas, aerospace, fabrication, manufacturing, pipelines, mining and construction.

George Brown’s Welding Techniques program prepares students with practical, hands-on experience that applies the technical theory and elements of the welding field. Students articulate their technical and essential employability skills through an e-portfolio, based on skill development throughout the program.

At the end of this intense, two-semester program, students will have the opportunity to challenge the shielded metal arc weld test, in accordance with CSA W47.1/W59 standards, in a position(s) of their choosing through the Canadian Welders Bureau. (This test will be voluntary and at an extra cost to the student.)

This experiential program will provide you the skills to master five of the most common types of welding processes:

• Shielded Metal Arc Welding (SMAW): This process uses a consumable electrode covered with flux. It is the primary type of welding used in the maintenance and repair industry. Arc welding is usually used to weld iron and steel, although it can also be used for alloys (aluminum, nickel, etc.).
• Gas Metal Arc Welding (GMAW): This welding process uses electricity to melt and join pieces of metal together. It is generally regarded as one of the easiest types of welding to learn. It is also called Gas Metal Arc Welding (GMAW). It can be used to weld a variety of metals such as carbon steel, stainless steel, aluminum, magnesium, copper, bronze, etc.
• Gas Tungsten Arc Welding (GTAW): The process uses a non-consumable tungsten electrode that delivers the current to the welding arc. The tungsten and weld puddle are protected and cooled with an inert gas, typically argon or helium. It is most commonly used for welding stainless steel and non-ferrous metals like aluminum, magnesium and copper alloys.
• Plasma Arc and Oxyfuel Cutting: This process utilizes an electrode and compressed gas, forced at high speeds through a nozzle, usually copper, to cut metal, primarily mild steel, stainless steel and aluminum. Oxyfuel cutting uses fuel gases combined with oxygen to cut metals, usually steel.
• Fabrication: Metal fabrication is the building of metal structures by cutting, bending, and assembling processes. It is a value added process that involves the construction of machines and structures from various raw materials.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Perform work responsibly and in compliance with the Occupational Health and Safety Act and industry processes and procedures, including demonstrating learned knowledge of WHMIS.
  • Interpret engineering drawings and blueprints to produce basic graphics and welding projects as required by industry.
  • Select, plan, and demonstrate sustainable metal fabrication operations using industrial metal fabrication machinery and emerging technologies.
  • Perform basic technical measurements and welding functions accurately, using appropriate equipment and welding techniques.
  • Create welds on various types of materials and joints in the major welding positions to industrial standards and codes.
  • Use shop tools and equipment to manufacture, assemble, maintain and repair components according to required specifications and industry standards.
  • Interact effectively and professionally in shop environments, both independently and with fellow workers and other tradespeople.
  • Assess weld quality and implement corrective action where required to follow quality control and quality assurance procedures and meet organizational standards and requirements.
  • Create a professional development plan that addresses one’s strengths and areas for growth in the greater context of the welder profession.

The Construction Techniques program covers popular construction trade areas and has three intakes per year.

This program is designed to offer you choices when considering a career in the construction sector. It exposes you to a variety of trades allowing you to determine where your interests lie. The program will prepare you with basic skills that will assist you in taking the next steps in your career path.

• Semester 1: Electrical/Millwrighting
• Semester 2: Sheet Metal/Air Conditioning/Carpentry
• Semester 3: Welding/Steamfitting/Plumbing

Through practical projects interwoven with theoretical learning, you will gain confidence and experience in the individual trade sections, giving you the information necessary to make informed career choices as well as a good understanding of the construction process.

Program Learning Outcomes
The graduate has reliably demonstrated the ability to:

• Identify and use strategies to enhance professional growth and ongoing learning in the construction field.
• Identify and adhere to established health and safety practices.
• Perform all construction tasks in compliance with applicable laws, regulations, codes and ethical practices in the construction field.
• Work in accordance with established sustainability practices.
• Collaborate with a range of tradespersons and project stakeholders to maintain effective working relationships.
• Communicate technical information to a variety of clients, supervisors and tradespersons to participate in the successful completion of construction projects.
• Identify and use industry-specific technologies to support construction projects.
• Solve on-site trade-related construction problems using mathematical equations and geometric concepts.
• Select, maintain and safely operate hand and power tools and equipment used in the building construction trades.
• Assist in the preparation of project estimates.
• Assist skilled tradespersons and perform labouring tasks at construction sites.

Wireless communications are pervasive in our lives. They have grown in recent years to include everything from personal communications networks to governments, hospitals and neighbourhood businesses. And there’s no end in sight to the growth of our wireless world.

George Brown College’s leading-edge Wireless Networking postgraduate program is designed to put you at the centre of this exciting world by giving you high-demand skills in radio frequency (RF), cellular, broadband and advanced data communications.

We offer you a unique choice of career direction. You can specialize in:

• Long Term Evolution (LTE) and Broadband Technologies
• Advanced Network Security
• Voice over Internet Protocol (VoIP) Technologies

Program Learning Outcomes
The graduate has reliably demonstrated the ability to:

• Test and measure RF (radio frequency) signals, attenuation and antenna systems.
• Assist with the preparation and execution of wireless site surveys.
• Build a wired and/or wireless computer network using system design documentation.
• Measure performance of both wired and wireless network components and applications using a variety of basic and advanced network management tools.
• Produce documentation and reports related to network components and applications performance.
• Troubleshoot and resolve technical problems related to both wired and wireless networks using standardized approaches and methodologies.
• Install and upgrade network hardware (e.g. workstations, servers, wireless access points, routers, switches, firewalls) and related components and software according to best practices in the industry.
• Monitor and evaluate network security issues and perform basic security audits on both wired and wireless networks.
• Assist in the collection and analysis of user requirements related to wired and wireless networks.
• Utilize change control, issue documentation and problem escalation procedures and processes as per industry best practices.
• Generate and maintain “as built” network documentation following industry best practices.
• Compare network performance against service levels and assist in the development of action plans as required against service level agreements.
• Employ concepts and practices as defined in ITIL (IT Infrastructure Library) to manage IT services and operation, including project management tools and techniques.

Today, few organizations make any significant plans without thoroughly understanding the Information Technology (IT) implications. IT professionals are a vital part of decision-making business teams. George Brown College answers this need with its three-year (six-semester) Computer Programmer Analyst program. The broad education in programming and IT analysis that it offers can provide you with a stable platform for career growth in the rapidly expanding and ever-changing world of information technology.

During the first two years of the program, you will develop the skills and techniques required for software application development and testing. The industry tells us they are looking for Computer Programmer Analysts with “the total package.” So the third year includes advanced technical skills in areas such as systems analysis and design techniques – and continues to develop communications, teamwork and other client service skills such as needs assessment, sales, and presentation methods.

George Brown offers other distinct advantages:

• Students are involved in project-based and experiential learning.
• In the third year, students are exposed to the fast-growing game development sector.
• Students are also exposed to mobile application development using the latest mobile devices.

*If you enrol in January, you must complete semester 2 in the summer, May to August, in the same year.

Note: In this rapidly changing industry, program improvements are being made on an ongoing basis, which may result in course changes. Changes are made in consultation with our Program Advisory Committee, which is composed of academic staff and industry representatives from small, medium-sized and large corporations.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Identify, analyze, design, develop, implement, verify and document the requirements for a computing environment.
  • Diagnose, troubleshoot, document and monitor technical problems using appropriate methodologies and tools.
  • Analyze, design, implement and maintain secure computing environments.
  • Analyze, develop and maintain robust computing system solutions through validation testing and industry best practices.
  • Communicate and collaborate with team members and stakeholders to ensure effective working relationships.
  • Select and apply strategies for personal and professional development to enhance work performance.
  • Apply project management principles and tools when responding to requirements and monitoring projects within a computing environment.
  • Adhere to ethical, social media, legal, regulatory and economic requirements and/or principles in the development and management of the computing solutions and systems.
  • Investigate emerging trends to respond to technical challenges.
  • Gather, analyze and define software system specifications based on functional and non-functional requirements.
  • Design, develop, document, implement, maintain and test software systems by using industry standard software development methodologies based on defined specifications and existing technologies/frameworks.
  • Select and apply object-oriented and other design concepts and principles, as well as business requirements, to the software development process.
  • Gather requirements and model, design, implement, optimize, and maintain data storage solutions.
  • Integrate network communications into software solutions by adhering to protocol standards.

A solid grounding in engineering sciences and practical hands-on experience in mechanical shops and computer assisted design laboratories provide the combination of applied and theoretical knowledge that employers expect in today’s integrated work environments.

In the third year of the program, teams plan and craft their own creations that require the application of all of the knowledge accumulated throughout the program. Once built, projects such as medical devices, entertainment equipment, solar-powered products and automotive accessories are often put on display and form an important part of the student assessment. More importantly, graduates learn to work in teams while solidifying their mechanical engineering knowledge and skills.

Note: If you enrol in the program in January, you must complete semester 2 in the summer (May to August) of the same year.

Your Field Education Options
Field study in the form of applied research is provided to all students.

Some students will also have the opportunity to complete a Co-op term. Co-op participants will be selected based on their academic performance, including a minimum GPA of 3.0 and an interview component.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Communicate clearly and concisely in written, graphic and oral form using appropriate formal and informal vocabulary and formats.
  • Display appropriate responsible attitudes.
  • Carry out established design procedures, making use of handbooks, catalogues, specifications, and codes. He/she should be able to recognize problems and apply established engineering practice to arrive at practical solutions.
  • Prepare and interpret detail drawings, assembly drawings and compile technical specifications.
  • Inspect, conduct tests, and compare and compile data in accordance with standard formats and procedures.
  • Assist in the planning, operation, control, and improvement of manufacturing and production processes.
  • Participate in the installation and maintenance of equipment and systems.

The Gemmology program teaches you to analyze and classify a wide variety of gem materials, both natural and artificially created. The program focuses on analyzing chemical and physical characteristics of gem and gem-like materials, and identifying different gems. The gem materials are classified into categories according to their desirable characteristics, which eventually determine the value of the gems. To accomplish the identification and classification, you use a number of specially designed instruments, such as microscopes, spectroscopes, refractometers and polariscopes, on real gem materials.

Visual acuity and accurate colour rendition are essential traits for success in Gemmology.

Refractive Index liquid (RI liquid), which contains diiodomethane, is a commonly used chemical in Gemmology practice. If you are pregnant, have certain medical conditions or are sensitive to RI liquid, please consult with your physician for advice before you attend this program, as you will be exposed to RI liquid in Gemmology lab work.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Identify a large number of gemstones and gem materials and distinguish them from synthetics and imitations.
  • Use, maintain and handle gemmological instruments and testing equipment competently and safely.
  • Grade gemstones for quality based on their cut, colour and other physical characteristics, chemical composition and possible place of origin.
  • Grade diamonds based on their cut, clarity, colour and carat weight.
  • Apply the basic skills of jewellery appraisal to assess market value.
  • Contextualize jewellery according to historical and stylistic qualities to assess provenance, materials and method of production.
  • Conduct ethical and secure business practices consistent with jewellery business standards.

The Cyber Security graduate certificate program at George Brown College is designed to meet the high demand for cyber security professionals and related IT security professionals across multiple sectors – including consulting services, finance and health care.

As a student in this program, you will begin with learning the theory and practical skills required to become a cyber security professional, including the differences and similarities between cyber security and hacking. You will learn about the primary attack surfaces (physical, social, electronic), methods for compromising the attack surfaces, and how to mitigate potential attacks.

In the third semester, you will learn advanced techniques in ethical hacking incident response. A capstone group project will provide you with an opportunity to showcase your skills and talents for potential employers. These skills include:

• Digital forensics and incident response management
• Ethical hacking and analyzing malware
• Delivering security training
• Applying cryptography

In addition to traditional technical skills, the cyber security professionals of today require many non-technical skills and talents, such as:

• Analytical skills
• Written and verbal communication
• Project and time management skills
• Interpersonal and conflict management skills

Students graduating from this program are prepared to help defend organizations from the many cyber threats, including malware, network attacks and data compromise. They will have the capabilities to monitor, assess and evaluate security risks and threats to physical and digital infrastructure, develop and implement security contingency planning, and lead the development of policies and procedures to ensure the mitigation of security risks.

Building automation systems don't just control the basics: they regulate airflow, monitor energy use and are integrated with security, lighting and other building systems to deliver comfort, safety and energy efficiency. Today’s buildings are increasingly complex, and they differ in use and size, but also in operating hours, comfort levels and environmental conditions. Offices, residences, hotels, schools and administrative buildings all have different requirements. Optimal building services technology is the result of appropriate systems design and integration during planning, construction, commissioning and operation.

This advanced diploma program in Building Automation provides students the technical skills they need for success in the job market. Students learn to:

• Install, program, adjust and maintain building automation systems
• Program and install sensors, actuators and controllers
• Collect data for use in real-time or for archiving in a central server
• Work with building software platforms that interconnect different systems

Graduates will have a diverse set of skills and abilities that will also prepare them for "green" careers focused on energy efficiency, renewable energy and the environment. This program provides a skill set that is in high demand in both the construction industry and the controls and automation industry.

Industry Skills

• Safety practices in the installation and troubleshooting of HVAC/R systems, including applicable codes and standards of the NEC, ASHRAE, OSHA, EPA and other regulatory bodies.
• Basic HVAC/R processes and the function, layout and operation of commercial HVAC/R systems.
• Functions, operating characteristics and applications of the control loops and control modes in digital, analog and pneumatic commercial control systems.
• Blueprints and manufacturer’s technical instructions for installing or servicing a sensor, controller, actuator and related relays and power supplies.
• General-purpose software and specific building automation software that monitors and controls HVAC/R and electrical systems.
• Various BAS controls and systems, including DCS, PLC, PAC and SCADA.
• Functions of network devices and protocols, such as a bridge, router, gateway, hub, firewall, twisted pair, Ethernet, TCP/IP, Zigbee, WiFi, BAS/IP and BacNet.
• Emerging green technologies, such as solar, wind and hydronic, and how they can be integrated into building systems and residential applications.

Program Learning Outcomes
The graduate has reliably demonstrated the ability to:

• Fabricate and build electrical, electronic, and mechanical components and assemblies in accordance with operating standards, job requirements, and specifications.
• Analyze, interpret, and produce electrical, electronic, and mechanical drawings and other related technical documents and graphics necessary for electromechanical design in compliance with industry standards.
• Select and use a variety of troubleshooting techniques and equipment to assess, modify, maintain, and repair electromechanical circuits, equipment, processes, systems, and subsystems.
• Modify, maintain, and repair electrical, electronic, and mechanical components, equipment, and systems to ensure that they function according to specifications and to optimize production.
• Design and analyze mechanical components, processes, and systems by applying engineering principles and practices.
• Design, analyze, build, select, commission, integrate, and troubleshoot a variety of industrial motor controls and data acquisition devices and systems, digital circuits, passive AC and DC circuits, active circuits and microprocessor-based systems.
• Install and troubleshoot computer hardware and programming to support the electromechanical engineering environment.
• Analyze, program, install, integrate, troubleshoot and diagnose automated systems including robotic systems.
• Establish and maintain inventory, records, and documentation systems to meet organizational and industry standards and requirements.
• Select and purchase electromechanical equipment, components, and systems that fulfill job requirements and functional specifications.
• Specify, coordinate, and apply quality-control and quality-assurance programs and procedures to meet organizational standards and requirements.
• Work in compliance with relevant industry standards, laws and regulations, codes, policies, and procedures.
• Develop strategies for ongoing personal and professional development to enhance work performance and to remain current in the field and responsive to emergent technologies and national and international standards.
• Contribute as an individual and a member of an electromechanical engineering team to the effective completion of tasks and projects.
• Design and analyze electromechanical systems by interpreting fluid mechanics and the attributes and dynamics of fluid flow used in hydraulic and fluid power systems
• Contribute to project management through planning, implementation and evaluation of projects, and monitoring of resources, timelines, and expenditures as required.

Apparel Technical Designers are the link between design and production as they transform a sketch into a full technical package ready for manufacturing a product in quantity. This one-year Apparel Technical Design graduate certificate program in Toronto prepares fashion designers with apparel technical design skills for positions in the apparel industry.

Graduates will have the skills to design and complete a collection using market research, trend analysis, and computer-aided drafting and product lifecycle management technology. Quality and costing analysis will inform design choices as the full product specification package is completed and collection projects are manufactured using appropriate and efficient manufacturing techniques.

Designers with solid patternmaking, grading, textile, illustration and construction skills will advance their knowledge to manage the complexity of writing detailed technical specifications, refining garment fit and sourcing components in pre-production, to achieve production-ready samples and technical packages. Graduates will attain the expertise required to anticipate and solve manufacturing issues, be able to maximize quality and minimize cost, consider sustainable options and be more prepared to launch future collections through experiencing the full cycle of designing and manufacturing a collection.

This program is part of our School of Fashion and Jewellery.

Your Field Education Options

• Field education is embedded in the program. Students will be required to connect with an industry employer where they can complete 160 hours of field education in semester three.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
• Conceptualize and design apparel collections using target market research to prepare for product development aimed at a target consumer.
• Develop production-ready patterns using computer software and grade, alter and create markers to prepare for manufacture of collection samples.
• Manage the steps of a product development process using product lifecycle management tools and software.
• Select source materials and manufacturing techniques to align with collection quality and cost requirements.
• Develop and communicate product specifications to minimize production time, cost and errors.
• Estimate manufacturing resources (e.g., labour, time and materials) to inform design decisions and schedule production timelines.
• Review and correct garment fit and apply adjustments to production patterns to ensure garment appearance and comfort ease allowances are appropriate to target market sizing specifications while maintaining design integrity.

Looking to transition careers or fill in the gaps to gain advanced blockchain development skills?

This unique Blockchain Development program at George Brown College in Toronto focuses on designing and implementing decentralized applications by leveraging blockchain technology. The three-semester program is designed to also thoroughly cover full stack development to give potential students all the tools they need to succeed in this emerging and exciting field.

This program has been developed with the support of blockchain industry professionals and is taught in a full-time executive format of approximately 20 hours per week of study over a 26-week time period. Co-op and work integrated learning opportunities are available during the third semester of the program. It is the first certificate in blockchain offered by a Canadian college.

The skills you’ll learn include:

• Smart contracts
• Design patterns for blockchain
• Distributed applications (dApps)
• Full stack development
• Blockchain architecture, security practices, laws and regulations, and more

Your Field Education Options
During the third semester of the program, students may choose whether to apply for a Co-op position or take a Work Integrated Learning course which includes an industry-sponsored project.

To be eligible for co-op, a student must complete all Semester 1 and Semester 2 courses. As well, an overall GPA of 3.0 must be achieved.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Communicate essential concepts related to blockchain technology and its industry applications.
  • Implement best security practices for blockchain solutions.
  • Design cryptoeconomic models to solve business problems.
  • Design the architecture of decentralized applications and systems.
  • Develop decentralized applications leveraging blockchain technology.
  • Explain the legal implications, regulations, and industry standards that are relevant to blockchain technology.
  • Apply IT project management principles and best practices.
  • Contribute to the field and blockchain community through various open source projects, partnerships, and community involvement.