Advanced Diploma in Interior Design Technology (Co-op)

at George Brown College - Casa Loma Campus Canada

Whether it’s online or console, cell phone or PC-based, the game industry in Canada is large and growing rapidly. Game developers and publishers in the Greater Toronto Area range from small specialized units to mid-sized companies to Microsoft, Nintendo and other industry leaders.

Computer and game programmers are the fundamental resource for companies that develop, produce, distribute and market computer-based games. In fact, our industry advisors tell us it is the technical skills that are most in demand – a demand that this George Brown program is focused on meeting.

Students in George Brown’s three-year Game – Programming advanced diploma program will learn the technical skills they need to be successful in the job market by learning “the language of gaming” (C and C++), as well as artificial intelligence, 3D graphics and much more.

The added advantage of this program is that students will also be taught by George Brown’s School of Design faculty throughout the program, working closely with design students to create games, explore all aspects of the game industry, and learn to work in teams, just as they will in industry. Classes take place at George Brown’s Casa Loma and St. James Campuses. Some courses are offered online, and in some semesters, evening courses may be required.

Note: Students who start the program in January (Winter term) will be required to attend classes during the summer months (May to August).

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
• Analyze the differences in game genres in order to develop games that meet the needs of specific markets.
• Analyze the history of video games to compare various approaches to game development.
• Support the development of games by identifying and relating concepts from a range of industry roles – programming, design, and art.
• Contribute as an individual and a member of a game development team to the effective completion of a game development project.
• Develop strategies for ongoing personal and professional development to enhance work performance in the games industry.
• Perform all work in compliance with relevant statutes, regulations, legislation, industry standards and codes of ethics.

The Construction Engineering Technician program studies the characteristics of various building types with an appreciation for the latest energy and environmental technologies. The program also focuses on areas that include:

• Interpretation of construction documents
• On-site building engineering and safety
• Quantity surveying (estimating labour, materials, and equipment required for a project)
• Building codes and construction contracts
• Site management practices

Laboratory courses provide practical building layout surveys and quality control testing of various building materials. You will also gain extensive computer experience, working with general business and Building Information Modeling (BIM) software and specialized construction management and estimating software.

Your Field Education Options

• Purpose and Definition of Field Experience
  • Field experience combines classroom learning with hands-on work experience structured to meet specific curricular outcomes. This approach to education relies upon a three-way partnership: the student, the institution and industry. Success depends upon the co-operative efforts of each party. It forms the basis for students’ experiential learning which is achieved when the cycle of experience, reflection, and learning is completed. It is a mandatory component of the T161 Construction Engineering Technician program. Field experience positions can be paid or unpaid. Both fulfill the academic requirement as well as strengthen students’ resumes, positioning them more effectively for future employment.
  • The field experience requires students to accumulate 100 hours of construction industry-related experience over the course of their third and fourth semesters. The field experience is facilitated through the Angelo DelZotto (ADZ) School of Construction Management, via collaborative efforts from the academic supervisors, program coordinators, and the chair.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Develop and use strategies to enhance professional growth and ongoing learning in the construction engineering field.
  • Comply with workplace health and safety practices and procedures in accordance with current legislation and regulations.
  • Complete duties in compliance with contractual obligations, applicable laws, standards, bylaws, codes and ethical practices in the construction engineering field.
  • Carry out sustainability practices in accordance with contract documents, industry standards, and environmental legislative requirements.
  • Collaborate with and facilitate communication among project stakeholders to support construction projects.
  • Collect, process and interpret technical data to produce written and graphical project-related documents.
  • Contribute to the collecting, interpreting and applying of survey/geomatics and layout information to implement construction projects.
  • Identify and use industry-specific electronic and digital technologies to support the design and construction of projects.
  • Contribute to the resolution of technical problems related to the design and implementation of construction projects by applying engineering concepts, basic technical mathematics, and building science.
  • Assist in the scheduling and monitoring of the progression of construction projects by applying principles of construction project management.
  • Assist in the preparation of accurate estimates of time, cost, quality and quantity, tenders and bids.
  • Perform quality control testing and monitoring of equipment, materials, and methods involved in the implementation and completion of construction projects.
  • Apply teamwork, leadership and interpersonal skills when working individually or within multidisciplinary teams to complete work on construction projects

As we advance further into this increasingly digital world, Artificial Intelligence and Data Science will revolutionize most industries by optimizing business processes and automating decision-making in many white-collar jobs. The Applied A.I. Solutions Development program will instill graduates with the skills needed to provide existing businesses and emerging startups with the tools required to thrive in the digital revolution.

This three-semester graduate certificate program uses a hands-on, applied approach to the field of A.I., giving students the broad range of skills needed to excel in this rapidly growing industry.

It teaches the development and application of Machine Learning/Deep Learning models and provides a fundamental understanding of the underlying mathematical algorithms that power them. This combination of knowledge and skills will allow graduates to identify and select appropriate algorithms for a given use, build and fine-tune models, and visualize and effectively communicate the resulting data, thereby bridging the traditional roles of Data Scientist, Machine Learning Engineer and Business Translator.

Your Field Education Options

• 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.
• 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 that includes an industry-sponsored project.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Identify, evaluate and manage relevant data sources to support data analytics and to meet organizational needs.
  • Recommend different systems, architectures and data storage technologies to support data-driven solutions.
  • Develop and deploy complete Machine Learning/Deep Learning production systems for a variety of industry use cases that meet the needs of a specific operational/business process.
  • Assess and apply appropriate mathematical models, algorithms, tools and frameworks to develop A.I.-enabled, industry-specific solutions.
  • Design and present A.I. solutions effectively to stakeholders through the use of data visualizations.
  • Apply legal, ethical, privacy and security-related standards and considerations in data science projects in a manner that protects privacy and confidentiality, addresses data bias and transparency, and ensures data integrity.
  • Implement artificial intelligence systems on time and budget using best practices and strategies in design thinking, project management and lifecycle management.
  • Design artificial intelligence (A.I.) systems through the application of systematic approaches and methodologies to meet growing organizational needs.

Design can change the world. Architectural technologists are key members of a project team and play a vital role in turning conceptual design ideas into technical construction documents and practical, buildable solutions. This three-year program provides you with the essential knowledge base and fundamental skills required to work as an architectural technologist within the many companies and sectors of the architectural and construction industry. Performing tasks of a technical nature, you will be part of a team of professionals and tradespeople involved in the building design, construction and management process.

The three-year Interior Design Technology advanced diploma program prepares you to be an Interior Design Technologist. You will be a valuable member of the design team for building retrofits, renovations and new construction, contributing to the technical design of building interiors by design development of plans, elevations, renderings and 3D models.

Learning in state-of-the-art interior design studios with the most up-to-date equipment and software, you will develop a thorough knowledge of interior design and technical design skills.

Through the application of interior design theory, you will learn how to effectively communicate the applied and technical principles of interior design. As a graduate, your area of specialization might include, but is not limited to, the following:

• Bathroom and kitchen design/build
• Commercial, retail or manufacturing technical sales
• Fitments, colour or texture finishes selection and consultations
• 2D and 3D computer drawing, design, rendering and modeling
• Sustainable interior design practices for commercial, retail and residential

Note: If you enrol in the program in January, you are required to complete semester 2 in the summer (May to August) of the same year in order to continue into semester 3 in the fall.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Analyze a client's needs and goals by using research methodology and techniques.
  • Prepare a design proposal.
  • Analyze design components by using the creative process.
  • Prepare an appropriate design concept of three-dimensional form which meets the criteria of a given design project by using the creative process.
  • Execute appropriate presentation techniques to communicate the design concept.
  • Prepare a design which reflects the concept by using current and relevant information.
  • Communicate to the client the proposed design solution for approval.
  • Prepare documentation needed for the implementation of the design.
  • Collaborate as part of the management team, as the client's agent, in the implementation of a design project to ensure that the project reflects the design solution.
  • Evaluate completed design solutions.

This three-semester graduate certificate program provides applied education for construction management positions in the construction sector. Candidates will receive graduate-level training that builds on their internationally acquired education and experience to enable them to successfully enter the Canadian construction workforce.

Program Learning Outcomes
The graduate demonstrates the ability to:

• Develop and use strategies to promote continuous professional learning in the construction industry.
• Monitor and support workplace health and safety practices and procedures that are compliant with current legislation and regulations.
• Assess construction project operations for compliance with contractual obligations, applicable laws, standards, bylaws, codes and ethical practices in the construction industry.
• Analyze and monitor construction processes to ensure that sustainability practices are implemented in accordance with contract documents, industry standards and environmental legislative requirements.
• Establish and manage relationships among diverse project stakeholders to achieve construction project goals.
• Manage the production, storage, retrieval and communication of project-related digital documents according to best practices, to meet construction project deadlines and goals.
• Perform a feasibility study to inform decisions in the planning phase of a construction project.
• Schedule, manage and evaluate the progression of construction projects by applying the principles, practices and tools of construction project management to complete projects on time and within budget.
• Prepare estimates and manage procurement processes to control costs in accordance with best practices in construction project management.
• Develop and oversee quality assurance and control processes involved in the completion of construction projects to meet project specifications and industry quality standards.
• Analyze and manage project risks to mitigate their impact throughout the construction project lifecycle.
• Formulate human resource management strategies to optimize personnel requirements for construction project completion.
• Build and lead multidisciplinary teams throughout the construction project lifecycle to accomplish construction project goals.

The Jewellery Methods program provides you with the skills and abilities necessary to succeed in this demanding profession as a goldsmith/bench jeweller. The essential skills of measuring, sawing, filing, soldering and finishing are stressed early in the program. These skills are built upon through the introduction and practice of many traditional and contemporary techniques. Once essential skills are achieved, you study more advanced goldsmithing techniques, jewellery repair, gemsetting and model making, as well as jewellery elective subjects.

Jewellery history, technical drawing, gemmology and an overview of the industry are included to provide you with a broad knowledge of the jewellery field.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
• Create jewellery items in copper, brass, silver and gold, using fundamental goldsmithing skills for entry-level employment in the jewellery industry.
• Create wax models using hand-carving techniques.
• Set gemstones in simple settings to industry standards.
• Repair jewellery to industry standards and to meet customer satisfaction.
• Produce multiple reproductions of jewellery using the lost wax casting process.
• Incorporate polishing techniques to produce market ready jewellery items.
• Differentiate gemstones and their properties as required in the jewellery industry.
• Contextualize jewellery according to historical and stylistic qualities to assess provenance, materials and method of production.
• Use technical drawing techniques to communicate jewellery designs as required.
• Follow ethic, security and business practices consistent with jewellery industry standards.
• Employ jewellery tools, equipment and materials in a confident and safe manner.
• Use computer software (CAD) skills to produce 2D drawings and 3D models of complex jewellery forms.
• Produce a professional portfolio that documents attained skills for employment applications.
• Construct finished jewellery pieces according to given designs.

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.

Graduates from this program benefit from a combination of advanced machine-tool technology principles (CAD/CAM/CNC) and extensive hands-on manufacturing practices that better prepare them for the technical challenges they may face in the workplace.

Advanced CNC and Precision Machining students have the opportunity to strengthen their skills by engaging in specialized industry partnerships that include precision machining/welding workshops and formula race-car and rocketry manufacturing with University of Toronto Engineering and Aeronautics undergraduate students.

In their final year, students engage in applied projects to design and fabricate prototypes using digital manufacturing technology (lasers, 3D printer, multi-axis CNC machine tools).

All students will augment their technical training with courses in mathematics, communications, and general education.

Your Field Education Options

• Students will have the opportunity to complete a mandatory 15-week co-op term in Year 2. 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:
  • Complete all work in compliance with current legislation, standards, regulations and guidelines.
  • Apply quality control and quality assurance procedures to meet organizational standards and requirements.
  • Comply with current health and safety legislation, as well as organizational practices and procedures.
  • Apply sustainability best practices in workplaces.
  • Use current and emerging technologies to support the implementation of mechanical and manufacturing projects.
  • Analyze and solve mechanical problems by applying mathematics and fundamentals of mechanics.
  • Interpret, prepare and modify mechanical drawings and other related technical documents.
  • Perform technical measurements accurately using appropriate instruments and equipment.
  • Manufacture, assemble, maintain and repair mechanical components according to required specifications.
  • Contribute to the planning, implementation and evaluation of projects.

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.