Advanced Diploma in Jewellery Arts

at George Brown College - Casa Loma Campus Canada

The Honours Bachelor of Technology (Construction Management) program provides a dynamic curriculum that integrates theory, applied research, field study and hands-on practical education. Recognizing that today’s successful construction manager must possess both technical and managerial competencies, the curriculum combines studies in construction science and technology with studies in business and management methods as applied to construction.

Students obtain the knowledge and skills to manage the functions and processes of construction projects from start to finish. They master construction-related technical disciplines and soft skills that are critical to completing projects on time and within budget. Graduates of this program are entitled to the academic credential designation of Hons. B.Tech. (Construction Management).

The Honours Bachelor of Technology (Construction Management) program is well recognized by the construction industry and is fully accredited by the Canadian Institute of Quantity Surveyors (CIQS), the Chartered Institute of Building (CIOB), and the Royal Institution of Chartered Surveyors (RICS). Graduates of this program are qualified to obtain professional memberships in various construction management associations. Professional memberships are based on the candidate’s education, training, and work experience.

With the completion of this degree program, graduates will have satisfied all academic requirements for professional membership of the Chartered Institute of Building (CIOB), the Canadian Institute of Quantity Surveyors (CIQS), and the Royal Institution of Chartered Surveyors (RICS). Memberships in these associations must be applied for separately.

Graduates also qualify to obtain their Gold Seal Certification (GSC) offered by the Canadian Construction Association (CCA) to become certified Superintendents, Estimators, Project Managers, Construction Managers, and Construction Safety Coordinators.

Your Field Education Options
WORK TERM

An integral component of the Honours Bachelor of Technology (Construction Management) degree program is a mandatory field study or Work Term offered in the Spring/Summer of the third year of the program. The Work Term is jointly facilitated through the Angelo DelZotto School of Construction Management and the Centre for Construction and Engineering Technologies (CCET)’s Industry Liaison Office (ILO).

Prior to the Work Term, students participate in job preparation courses that cover areas such as workplace communication practices, resume writing, job search strategies and interview practice to enable them to communicate clearly and effectively. In the field settings, students practice team-building, managing, and tracking project resources, analyzing project performance, preparing technical proposals and reports, and improving their construction project management skills.

Students are required to complete a minimum of 14 weeks of full-time work experience, or part-time equivalent of no less than 420 hours of verifiable work experience, in the field of construction management in order to fulfill the Work Term requirement.

Students are allowed to complete the Work Term requirement through the following pathways:

Field Placement: Students register in the Work Term course (TCOP 1001), secure field placement in a relevant construction field, obtain a minimum of 14 weeks of full-time fieldwork experience, or part-time equivalent of no less than 420 hours of relevant fieldwork experience, and pass the course.

Prior Learning Assessment Recognition (PLAR): Students who have prior work experience equivalent to the minimum requirement (that is, minimum of 14 weeks of full-time or part-time equivalent of no less than 420 hours of relevant work) can seek to complete the Work Term requirement of the program through the PLAR process

WORK/STUDY ABROAD OPPORTUNITIES

There is also a work/study abroad opportunity that will allow a limited number of students to complete one month of field studies at Shanghai Urban Construction College (SUCC) in China, including two weeks of studies and two weeks of work. SUCC is a multi-divisional college that serves 6,000 students with over 400 faculty members.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Use relevant media to communicate all manner of information related to a construction project.
  • Analyze the past performance of construction projects to predict and improve the execution of future projects.
  • Manage construction projects in a compliant, safe, ethical and sustainable manner.
  • Apply management tools and techniques to execute construction projects on time and within budget.
  • Recognize and value the diversity of opinions, processes, and approaches in executing construction projects.
  • Incorporate effective leadership strategies to develop high-functioning, multidisciplinary and multicultural teams and work groups.
  • Apply the principles and practices of leadership development and human resources to manage and develop people in the construction industry.
  • Analyze technical problems encountered in construction projects and develop appropriate solutions in accordance with the principles and practices of construction science and management.
  • Apply business, accounting and financial principles and practices to effectively manage construction project costs.
  • Apply the principles and practices of construction management in assessing the key performance indicators of construction projects.
  • Evaluate potential risks impacting construction projects and devise appropriate risk mitigation strategies.
  • Create technical documents relevant to the design, procurement and execution of construction projects and manage documentation flow effectively.
  • Behave in a fair, ethical and responsible manner consistent with professional codes of conduct, laws, policies and contracts.

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 Computer Systems Technology program is designed with extensive input from industry and offers two optional specializations in its third year. The Networking specialization focuses on network security, voice-over-IP (VoIP) and wireless LANs. The Systems specialization focuses on mail server administration, content management systems (Collaboration), database administration and computer security. Both specializations include core courses on infrastructure virtualization (through the VMWare IT Academy) and cloud computing, along with best practices in Information Technology.

The three-year Computer Systems Technology program is designed with extensive industry input and offers two optional specializations in its third year:

The Networking specialization focuses on network security, voice-over-IP (VoIP) and wireless LANs.
The Systems specialization focuses on mail server administration, content management systems (Collaboration), database administration and computer security.
Both specializations include core courses on infrastructure virtualization (through the VMWare IT Academy) and cloud computing, along with best practices in Information Technology (IT).

George Brown College continues to invest in up-to-date networking, wireless, radio frequency, VoIP and security lab equipment, so that all students gain hands-on experience in installation and configuration of equipment ranging from small offices all the way to enterprise-class hardware and software. This investment, along with the hands-on teaching environment, was recognized by Cisco when the college was designated an Area Support Centre and Instructor Training Centre, and became part of a very select group of Cisco Networking Academies in Canada.

In the third year of the program, students will be involved, hands-on, in real-life projects or case studies. These may be completed independently, in conjunction with an industry partner, or George Brown's Office of Research and Innovation, and may include developing proposals and working in teams to plan, set schedules and achieve specific goals in the field of information technology. Through some of these projects, George Brown students have recently helped develop IT solutions for hospitals, large corporations and major IT and telecommunications service providers, including Bell Mobility, Rogers Communications, Cogeco Data Systems and many other well-known companies in the Greater Toronto Area.

This program covers all courses of the official Cisco CCNA Routing & Switching curriculum. The curriculum also prepares students to write several other examinations leading to industry certifications, such as the Certified Wireless Network Administrator (CWNA) and Cisco Certified CyberOps Associate.

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 relationship.
• 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.
• Analyze, plan, design, implement and administer computer systems and cloud solutions.
• Research, design, deploy, configure, troubleshoot, maintain, upgrade and decommission computing system infrastructures.
• Select and apply scripting tools and programming languages to automate routine tasks.
• Install, monitor, optimize and administer a database management system in response to specified requirements.
• Design, implement and administer technical support processes for computing system infrastructures that aligns with industry best practice.

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.

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 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.

The Fashion Techniques and Design program prepares graduates for careers in garment manufacturing design rooms. This is a women's wear program that simulates, as closely as possible, the industry's standards, practices and facilities. You will use industrial machines and learn the essentials of technical illustration, pattern making, pattern grading and clothing construction. Additional core subjects include textiles, technical specifications and history of costume. Program electives allow you to select specific related subject areas, such as fashion show development, portfolio development, draping, lingerie, men's pattern drafting, leather apparel, knitwear and bridal and evening wear. Computer skills in Adobe Illustrator, pattern drafting and pattern grading are included as core and elective courses and are continually upgraded to meet industry needs. This program covers introductory methods to more advanced concepts in the second year.

An annual fashion show and portfolio event highlights successful student projects. Students have the opportunity to network with industry, participate in numerous competitions, work on applied research projects, volunteer and attend industry events.

Note: This program requires extensive sewing; manual dexterity and good vision are assets. Both sewing experience and access to a sewing machine outside of the campus facilities are expected.

At the School of Fashion and Jewellery, the learning environment is as diverse as our students and there are many extracurricular activities to take advantage of.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Draft and grade flat patterns for mass garment production.
  • Select and use production methods and techniques that best suit the fabric, pattern and design of the garments.
  • Select garment materials that are compatible with the overall apparel design and meet the user's needs.
  • Operate industrial sewing, pressing, grading and other technical equipment safely to professional standards.
  • Apply technical and computing skills to fashion design and production.
  • Research and analyze factors, trends, stylistic features, and art principles that influence current fashions.
  • Prepare visual and portfolio materials, product specifications, and cost analysis for a product, project and/or market.
  • Design, prototype and produce original patterns and garments using mass production industrial methods and equipment.

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.

This Sustainable Fashion Production graduate certificate program prepares graduates to manage the manufacturing process of small batch apparel products. Pre-production analysis, selection of appropriate techniques and technology, flow and efficiency, human resource ethics, environmental concerns, and quality and costing are assessed and applied for the sustainable production of small batch apparel products.

Students will examine manufacturing methods including lean, machinery, material requirements and production flow, and observe first hand the development and manufacture of apparel products. Management of production will be experienced through the development of costing, capacity, process mapping, work measurement, value stream mapping and other planning tools.

Students will learn to conduct an analysis of environmental impact aand ethical treatment of production workers to discern optimum sustainable product development and manufacturing decisions. Students will use industry technology, such as product lifecycle management tools, to track apparel products through product development and manufacturing stages. While the context of this program is apparel, the processes, management tools and knowledge could be applied to product design in other fields.

Your Field Education Options

• Students complete a Field Education preparation course in semester 2 and will be required to connect with an industry employer where they must complete 160 hours of field education in semester three.

Program Learning Outcomes

• The graduate has reliably demonstrated the ability to:
  • Select appropriate apparel production techniques and technology (e.g. machines, cutting room) to optimize manufacturing results.
  • Manage the manufacture of garments using lean manufacturing and small batch production principles.
  • Implement pre-production processes, including textile sourcing and equipment analysis, to ensure sustainable production.
  • Manage the steps of the manufacturing process using product lifecycle management tools and software.
  • Assess apparel manufacturing processes for evidence of social, environmental and economic sustainability.
  • Perform costing, time, and plant layout to determine production flow and efficient use of resources.
  • Analyze cost and quality of materials to inform product development and manufacturing decisions.

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.