Bachelor of Fine Arts (Honours) in Professional Music

at Toronto Metropolitan University Canada

Students in the Criminology and Sociology double-major will have the opportunity to develop proficiency with a range of theoretical and methodological tools used within both Criminology and Sociology, allowing them to think critically about the complexities and structural nature of social inequality and justice. Students will develop a critical understanding of power, inequality, and justice in the social world. Students will engage with theoretical perspectives that allow them to challenge social structures and institutions. Qualitative and quantitative methodological tools will be used to rigorously understand the social and legal foundations of crime, injustice, and social regulation. Successful students will have the capacity to question the status quo and contribute towards social change.

The core goals of the double major are to graduate students who will be able to:

• Identify the implications of cultural and social diversity for justice and equity within and outside of the criminal justice system, as well as the important role of communities, not-for-profit and private-sector agencies in delivering justice;
• Understand the impact of structural inequalities (e.g., gender, race, class, legal status) on individuals, communities, and criminal justice outcomes.
• Use sociological and criminological theoretical frameworks to think critically about access and barriers to justice
• Demonstrate knowledge of the socio-historical and global context of contemporary social relations and knowledge production, including ways in which a) structural inequalities and social injustice are manifested in individual and group identities; and b) social injustice, inequalities and identities have been legitimated, normalized, and institutionalized over time and c) people individually and collectively resist discrimination and inequality.
• Critically read, interpret, assess, conduct and evaluate research methods and methodologies used within sociology and criminology, while demonstrating an informed knowledge and respect for epistemological and ethical issues.
• Demonstrate social engagement by bridging academic thought and research in relation to practical challenges, policies and strategic organization in local, national and global communities and forums. Express the intellectual breadth to allow sociology and criminology specialists to explore new perspectives on identities, social relationships and the organization of social institutions.

The computer revolution has created vast industries and countless jobs that employ professionals educated in electrical and computer engineering, computer science and information technology- all closely related disciplines involving the understanding and design of computers and computational processes. Computer profession specialties constitute a continuum. At one pole is computer science, which is primarily concerned with theory, design and implementation of software- the product being a computer program. At the other pole is computer engineering, primarily concerned with firmware (the micro-code that controls processors), hardware (the processors themselves, as well as entire computers), software (system-level and user/application-level) and interfacing systems (both at hardware and software level) that will allow computer systems to communicate with the outside world as well as with each other. It is not possible, however, to draw a clear line between the two disciplines; many practitioners function to at least some extent as both computer engineers and computer scientists. Computer Engineers distinguish themselves with their versatile set of skills: they can design and build computers, interface them with the outside world and make them talk to each other, develop firmware and also create system-level and user/application-level software.

The Department of Electrical, Computer, and Biomedical Engineering offers highly structured programs that emphasize not only the theoretical fundamentals but also the practical aspects of the engineering profession. The first-year courses will provide the students with grounding in engineering science fundamentals such as mathematics, physics, chemistry, computer science and the theory of electric circuits. The second year of the program introduces discrete mathematics, data structures and engineering algorithms, and electrical engineering core subjects such as analog and digital electronic circuits and systems. In the third year, students will further study computer architecture, microcomputer systems, object-oriented analysis and design, digital electronics, communication systems and control theory.

In the final year of the program, students will take courses in data communications, digital systems engineering, real-time operating systems, VLSI design and numerical techniques. The fourth year curriculum also allows students further specialization in a variety of subject areas through an extensive technical electives list. During this final year of the program all students must complete a mandatory group design project. The key objective of the Design Project is to encourage students to plan, design and implement their project while developing the skills to make key decisions independently.

Software Engineering Option
Students entering the 5th semester will have a choice as to whether they would like to continue on the regular Computer Engineering curriculum or to enroll in the Software Engineering option. Students in this option will gain training in software engineering concepts through a set of seven software focused and intensive courses spread over 3rd and 4th year.

The Department of Electrical, Computer, and Biomedical Engineering also offers graduate degree programs in Electrical and Computer Engineering. These graduate degree programs allow students to pursue advanced studies and independent research in the areas of signal processing and communications, computer systems engineering, and power engineering.

Optional Co-operative Internship Program (Co-op Internship)
Third year full-time students may be eligible to enrol in the optional Co-operative Internship Program. Upon successful enrolment in the program and securing an approved co-op job, students are required to spend a period of 8-16 consecutive months in a work placement. After completing the requirements of the co-operative internship work placement, students return to the academic program to complete their final year of studies. Enrolment in the Co-operative Internship extends the program length to five years.

The Mechanical Engineering BEng degree program is accredited by the Canadian Engineering Accreditation Board.

This program prepares students for various career opportunities in Mechanical Engineering. The curriculum is designed to develop and sharpen the student's abilities to conceptualize, analyze and synthesize. It provides studies in fundamental science and mathematics, engineering science and engineering design. The main engineering areas of the curriculum are machine design, manufacturing and fabrication, materials, thermal and fluid processes and mechatronics. A balance of liberal arts and complementary studies, including some management courses, further the student's ability in communication and provide a wider understanding of the modern technological society.

The Bachelor of Arts (Early Childhood Studies) program offers a combination of academic studies and professional education including practicum experiences.  The courses link theory with field practice that is undertaken in child care programs, public schools (early primary classrooms), specialized programs, family resource centres, children's hospitals, and other related settings.

The curriculum provides for a general four-year Civil Engineering program. Graduates from the Civil Engineering program would expect to be employed by engineering technology and consulting companies, the construction industry, the mining industry, and municipal and government agencies.

After completing two years in the Civil Engineering program students may continue in the regular Civil Engineering program or choose the Structural Engineering option. There will be a 60% cap for enrolment in either the Civil Engineering program or the Structural Engineering option. Enrolment in the Civil Engineering program or the Structural Engineering option after the second year will be made on a competitive basis, subject to program capacity. (Please visit ryerson.ca/civil/undergraduate for more details.) In addition, students continuing in the Civil Engineering program will have the option of pursuing either the Environmental or Transportation Engineering Streams in the 4th year of the program. An enrolment cap for the Environmental or Transportation Streams will be similar to that mentioned above.

The Civil Engineering program curriculum focuses mainly on four areas: environmental, geomatics, structural/materials and transportation engineering. The subjects include environmental sustainable development, impact of civil engineering, water and wastewater management, soil mechanics , geomatics measurement, remote sensing and digital mapping, satellite navigation, structural analysis and design, concrete and highway materials, highway design, transportation planning, road safety, traffic and transit operation, pavement design and project management.

The curriculum of the Structural Engineering option provides further focus on structural analysis, computer-aided structural analysis, structural building systems, structural design of concrete, steel, timber and masonry, bridge design and construction, and renovation/repair of existing structures.

A student graduating from the Civil Engineering program will earn a Bachelor of Engineering (BEng) degree in Civil Engineering. A student graduating from the Structural Engineering option will earn a BEng in Civil Engineering with a Structural Engineering option.

The Mechanical Engineering BEng degree program is accredited by the Canadian Engineering Accreditation Board.

This program prepares students for various career opportunities in Mechanical Engineering. The curriculum is designed to develop and sharpen the student's abilities to conceptualize, analyze and synthesize. It provides studies in fundamental science and mathematics, engineering science and engineering design. The main engineering areas of the curriculum are machine design, manufacturing and fabrication, materials, thermal and fluid processes and mechatronics. A balance of liberal arts and complementary studies, including some management courses, further the student's ability in communication and provide a wider understanding of the modern technological society.

Optional Co-operative Internship Program
Third year students with CLEAR Academic Standing may opt to enrol in the Co-operative Internship. If they are selected by one of the partner corporations, they spend a period of 12-16 months, from May to September of the following year, as engineering interns at the corresponding corporations. After the completion of the Co-operative Internship, students return to the academic program to complete their final year of studies. Enrolment in the Co-operative Internship extends the program length to five years.

Co-operative Internship students enrol in the course WKT 88A/B: Co-operative Internship Program during the academic year in which they work as interns. This course is graded on a pass/fail basis. Completion of the Co-operative Internship Program (CIP) will be identified on the student's transcript as WKT 88A/B: Co-operative Internship Program, with the appropriate grade achieved.

Mathematics is a powerful problem-solving tool and a highly creative field of study that explains diverse phenomena such as the human nervous system, the evolution of life forms and the stock market. You’ll learn to identify patterns using logic, exacting principles and imagination, and will complete a thesis project. An optional paid co-op and optional specializations in Computer Science and Economics will further prepare you with the knowledge and problem-solving expertise needed to offer solutions in a variety of fields.

Communities are complex entities with their own needs, structures and rules — and planners are the ones who guide their operation and promote their growth. Drawing on their understanding of land-use concepts and strategies, planners create and implement plans to develop and enhance regional, urban, suburban and rural communities. Ryerson graduates advise on planning decisions related to social, economic, cultural, land-development, transportation, resource development, environmental, heritage and other issues.

The School of Fashion is launching a revised undergraduate curriculum for students admitted Fall 2020 and after. The revised curriculum provides students the flexibility to gain an understanding of the range of opportunities available within the interdisciplinary field of fashion. Students will have the ability to shape their individual curricular pathways, supported by academic advising, a foundation of core and fundamentals courses, and the option to choose increasingly advanced electives from a range of concentration areas (listed below).

Over the course of four years, students will be able to identify their areas of interest and develop specialized expertise in those areas all while establishing a breadth of knowledge in fashion theory and practice. Working closely with subject matter experts, students will develop creative, technical, and theoretical skills to advance in the interdisciplinary field of fashion.

First Year: The BSc (Hons) in Chemistry shares a point of entry with the programs in Biology and Medical Physics. This allows students to explore various science-based routes to degree completion before they commit to the Chemistry program. In addition to foundation courses, the first year of studies will include an introduction to the use of computers as scientific tools, and an orientation course that will support students in making a successful transition to university and planning their steps to degree completion. All students in Science programs must enroll in SCI 180 in their first semester of studies.

Upper Years: Because this is a strongly applications-oriented program, a large proportion of student learning will take place in the laboratory. Lab hours account for a significant amount of learning time in every semester, supported by a solid grounding in the theory and principles of chemical science. In the upper years of the curriculum, students will focus on developing their technological expertise and exploring the research and industrial applications of chemical science. Depending on the course sequence selected they may pursue a BSc (Hons) in Chemistry, Chemistry with a Biology Minor, Chemistry with an option in Applied Physics.