Diploma in Dance Performance

at George Brown College - Casa Loma Campus Canada

Learning in state-of-the-art architectural studios with the most up-to-date equipment and software, you will develop a thorough knowledge of architectural drawing and technical design skills, as well as an understanding of sustainable building design and construction materials grounded in current green principles.

Courses cover 2D and 3D computer-aided drafting, design, rendering and modelling, design and development drawings, construction drawings and architectural presentation. You will also learn and apply the concepts of building science, building systems, building codes and construction law. Teamwork in a project-based learning environment is emphasized.

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:
  • Communicate with clients, contractors, other building professionals, and approval authorities.
  • Assist in the preparation, reading, and interpretation of drawings, and other graphical representations used in building projects.
  • Read and assist in the preparation of specifications and other project documents used in design and construction.
  • Assist in the preparation of estimates of time, costs, and quantity.
  • Assist in solving technical problems related to building projects through the application of principles of building science and mathematics.
  • Collaborate with members of the building team.
  • Assist in the development of architectural designs.
  • Review and assist in the preparation of site planning documents.
  • Comply with the legal and ethical requirements of an architectural technician in the practice of building design and construction.
  • Assist in the assessment of buildings related to repurposing and renovation projects.
  • Ensure personal safety in the workplace.
  • Identify sustainable design and building practices.
  • Use current and emerging technology to support building projects.
  • Assist in the administration of the construction phase of building projects.

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.

Robotics, controls and process automation are cornerstones of modern production facilities and automated systems. Our multidisciplined and hands-on approach to learning culminates in a capstone project in which students design and produce a complex, integrated, fully functional electromechanical system by applying their accumulated theoretical and practical knowledge.

Students complement their technical skills with a focus on the soft skills needed to establish a successful career and add value to any team. Students will learn from faculty who are experienced in both the workplace and the teaching environment.

The industry-relevant curriculum is delivered through hands-on learning in the college’s machine shops, electrical and industrial automation laboratories, process controls and robotics facilities, to ensure that graduates can move quickly and directly into industry.

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:
  • Fabricate and build electrical, electronic, and mechanical components and assemblies in accordance with operating standards, job requirements, and specifications.
  • Interpret and produce electrical, electronic, and mechanical drawings and other related technical documents and graphics for a variety of stakeholders in compliance with industry standards.
  • Select and use a variety of troubleshooting techniques and equipment to assess, maintain, and repair electromechanical circuits, equipment, processes, systems, and subsystems.
  • Maintain and repair electrical, electronic, and mechanical components, equipment, and systems to ensure that they function according to specifications and to optimize production.
  • Support the design and production of mechanical components by assisting in the specification of manufacturing materials and processes.
  • Apply, analyze, build, install, commission, and troubleshoot a variety of mechanical, electrical, and electronic control systems, logic and digital circuits, passive AC and DC circuits, and active circuits.
  • Install and troubleshoot basic computer hardware and programming to support the electromechanical engineering environment.
  • Maintain and troubleshoot automated equipment 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.
  • Assist in applying quality control and quality assurance program 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.
  • Support project management activities such as planning, implementation and evaluation of projects, and monitoring of resources, timelines, and expenditures as required.

The Building Information Modeling Management graduate certificate program is designed to provide hands-on training to students to enable them to apply and integrate the principles of Building Information Modeling (BIM) to all aspects of a project from conceptualization to operation. Graduates of this program will be able to deploy BIM applications in any organization involved in the procurement, design, construction and operation of building facilities. Successful students will also be able to deploy BIM technologies and BIM Management processes to all phases of a construction project.

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.

The evolution of information and communication technologies is transforming the health-care system and creating new ways of accessing and exchanging information that will impact the health-care sector. Health-care and information systems professionals currently employed or with experience in a health-care or technology environment, or who have an interest in the advancement of information technologies in the health-care delivery sector, will be interested in this program.

The Health Informatics graduate certificate program brings together professionals in health-related and information technology sectors to develop specialists in health informatics who can respond to the current and emerging needs of health-care systems. This intensive program is designed for IT, health-care or related professionals who aspire to enter into a health informatician/analyst role, or practitioners who wish to enhance their experience with formal education. Participants will be engaged and supported by a team of health informatician/business system analyst professionals and faculty in developing critical skills and competencies in the areas of:

• Health-care systems, technologies and trends
• Ethical, professional, legal and policy implications of health information systems technologies and health information standards
• Problem identification and analysis
• Documenting and analyzing health-care organization, health-user and solution requirements
• Process, workflow and system/solution modelling
• Project management
• Technical writing
• Leadership and management
• Business and system analysis techniques and core-professional competencies such as analytical thinking and problem solving, communication and facilitation, and interactional skills.

The Health Informatics program provides breadth and depth of applied knowledge in the field of health informatics. A key characteristic that sets this graduate certificate program apart is the applied nature of the curriculum. Students will be immersed in the process of health informatics/analysis through case studies, industry projects, and practical work experience, and will be responsible for developing solutions. The uniqueness of this program is in creating graduates with work-ready skills built through applied, hands-on experience.

Graduates of the program will have acquired knowledge, skills and competencies relevant to professional certification programs in Health Informatics/Information and Management Systems.

Graduates will be able to:

• Formulate change strategies to implement appropriate health information systems technologies (HIST) within the health-care setting.
• Apply business and system analysis techniques to evaluate the effectiveness of health information systems technologies within a health-related setting.
• Integrate relevant standards and professional, ethical and legislative requirements with the appropriate health information system technologies.
• Design training and education for the effective use of HIST.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Assess organizational requirements for health information system technologies (HIST).
  • Formulate strategies for the selection and implementation of HIST.
  • Design and deliver educational/training strategies for end-users.
  • Evaluate the impact of HIST on business/clinical processes, and on health services delivery.

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.

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.

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.

Mobile application development is one of the fastest growing sectors of information technology. This three-semester program will help students develop a wide variety of skills related to developing, testing and deploying applications for mobile phones and tablets. The main focus of the program is the two leading platforms in mobile devices: iOS and Android.

Java and Swift programming languages are covered in this program so students have an easier transition in developing mobile applications. Client-side development tools such as HTML 5, CSS3 and JavaScript are covered, as well as aspects of server-side programming to complement mobile application development. To synthesize all learning outcomes, students will participate in either a co-op work term or applied project that will provide the experience necessary to improve graduate employability.

Students will learn strategies related to the development of mobile applications from a business perspective such as performing competitive research and exploring revenue-generating approaches. They will also be exposed to the process of App Store and Android Market submissions.

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

• Create meaningful design artifacts using modern software engineering methodologies and project management principles.
• Implement native mobile applications for different mobile platforms.
• Develop solution architectures to support mobile applications by applying enterprise architecture principles and best practices.
• Develop creative concepts for mobile applications that meet innovation, entrepreneurship and social enterprise objectives.
• Develop secure mobile applications by implementing the security principles, standards and best practices of mobile application development.
• Develop usable, friendly, fast and reliable mobile applications by applying the principles and best practices of User Interface design and experience (UI/UX).
• Work independently and as a team member to develop mobile application solutions for a business.
• Use industry standard testing methodologies to ensure software quality and improve software performance.
• Apply various strategies for developing competitive mobile applications.